Outline Specification (Electrical)
Outline Specification (Electrical)
2024
Electrical Specifications
TABLE OF CONTENTS
Division 26 – ELECTRICAL
SECTION 260000 GENERAL REQUIREMENTS
SECTION 260000 BASIC ELECTRICAL REQUIREMENTS
SECTION 260519 WIRES, CABLES AND RELATED ACCESSORIES
SECTION 260523 CONTROL/SIGNAL TRANSMISSION MEDIA
SECTION 260526 EARTHING SYSTEM
SECTION 260533 RACEWAYS, BOXES AND FITTINGS
SECTION 260536 CABLE TRAYS AND LADDERS SYSTEMS
SECTION 260553 IDENTIFICATION OF ELECTRICAL SYSTEMS
SECTION 260923 LIGHTING CONTROL DEVICES
SECTION 261216 DRY TYPE TRANSFORMERS
SECTION 261300 MEDIUM VOLTAGE SWITCHGEAR METAL ENCLOSED TYPE
SECTION 262413 MAIN DISTRIBUTION BOARDS
SECTION 260943 KNX AUTOMATION SYSTEM
SECTION 262416 SECONDARY DISTRIBUTION BOARDS
SECTION 262419 MOTOR CONTROL CENTERS
SECTION 262726 WIRING DEVICES AND DISCONNECTS
SECTION 262900 MOTORS & STARTERS
SECTION 263213 EMERGENCY / STANDBY POWER PLANT
SECTION 265000 GENERAL LIGHTING REQUIREMENTS
SECTION 263353 STATIC UNINTERRUPTIBLE POWER SUPPLY
SECTION 263533 AUTOMATIC REACTIVE POWER COMPENSATION
SECTION G BUSBAR
SECTION 265200 CENTRAL BATTERY SYSTEM
Division 27 – COMMUNICATIONS
SECTION 270000 COMMUNICATION SYSTEMS
SECTION 270200 TELEPHONY SYSTEM
SECTION 270510 COMMUNICATIONS PATHWAYS
SECTION 270520 BUILDING COMMUNICATION SYSTEM INFRASTRUCTURE
SECTION 271100 COMMUNICATIONS EQUIPMENT CABINET AND ENVIRONMENT
MONITORING SYSTEM
SECTION 273100 AUDIO VISUAL SYSTEM
SECTION 274100 COMMUNICATION SYSTEMACTIVE INFRASTRUCTURE
SECTION 275115 SMATV system
DIVISION 28 – ELECTRONIC SAFETY AND SECURITY
SECTION 280000 INTEGRATED SECURITY SYSTEM
SECTION 281300 ACCESS CONTROL AND ALARM SYSTEM
SECTION 281643 PERIMETER AND EXTERNALSECURITY SYSTEMS
SECTION 282300 IP CCTV SYSTEM
SECTION 283100 FIRE DETECTION AND ALARM WITH EMERGENCY VOICE EVACUATION SYSTEM
INDEX
The Scope of works includes the supply, delivery to site, installation, testing and commissioning of the various
complete systems outlined briefly below, and as described elsewhere in the specification documents.
The contractor shall be responsible to visit the site to familiarize his scope of work, preparation of shop drawings
and obtaining approval from the various authorities prior to execution of work. The contractor shall also be
responsible for obtaining all materials and workmanship approval during execution and on completion of works
including the connection of permanent power supply and KWH meter. All costs and charges required by the
various authorities shall be included in the scope of work except the power connection charges which shall be
reimbursed by the Client to the Contractor immediately upon production of actual payment receipts by the
Contractor.
LV switchboards and all necessary interconnecting cabling and associated earthing systems.
Diesel Generator
UPS system
Sub main distribution cabling including all cable trays, brackets and cleats.
Final sub-circuit wiring including all necessary conduit, trays and trunking.
All electrical accessories including switches, power outlets, floor service boxes, hand dryers, Isolators…. etc.
Switches and all connections for internal and external lighting installation.
Installation of light fittings, lamps, switches and all connections for internal and external light installation.
CCTV System
Telecommunications System including Cable Trays, Trunking, Conduit I Wiring, Outlet Boxes, Accessories, Cabinets,
Ducts, Manhole, Cabling, etc. to Authority requirements.
The whole distribution network forming part of this installation shall be capable of carrying without permanent
distortion or deterioration both 3-phase and 1-phase short circuit fault currents that may be encountered at
The short circuit ratings of all MCB's and MCCB's shall be according to DEWA regulations.
The routing of all the cables, although some are shown on drawings, shall be the responsibility of the Contractor. The
Contractor shall therefore prepare his own routing layout drawing before commencement of any installation for the
Consultant's agreement. It shall be the responsibility of the Contractor to check at the stage of tender the runs of all cables
in relation to Civil works restrictions so that all materials, such as trays, ducts, conduits etc are included in his Tender.
The spacing between the cables shall be maintained at 150mm throughout the run. In cases where cables are shown to be
surface mounted and supply flush mounted distribution boards, the cables shall be routed through concealed pipes which
will terminate in a flush mounted adaptable metal box of appropriate size attached to a convenient side of each distribution
board.
Generally, PVC insulated cables, from the MCB boards shall be drawn into trunking or conduits installed in slabs or walls or
floors, as may be required to the various lighting points, switches and small power outlets forming part of the installation
as shown on drawings.
Where PVC-SWA-PVC cables are shown, these shall be routed through ducts, conduits, or trays or clipped direct to wall
surfaces or laid direct in ground, as may be required, up to the various power points or control panels and distribution
boards.
The Contractor shall ascertain from the Consultant the exact positions of all fittings including power points, socket outlets
and lighting points before commencing the actual works.
The Contractor shall include for any variation of lighting points up to a radius not exceeding 1000 mm from positions shown
or agreed if deemed necessary due to any physical feature in the finished ceiling and for any variation in positions of socket
outlets, lighting switches or similar fittings, up to a radius not exceeding 1000 mm from positions shown or agreed if
deemed necessary.
The whole of the installation shall be recessed or as required and the Contractor shall make all provisions necessary to
facilitate the connections of cables, wires, conduits from or onto distribution boards which will be flush mounted unless
otherwise stated in the following clauses or indicated on drawings.
The Contractor shall pay every particular attention to the method of fixing of switch boxes and socket outlet boxes so that
they will, when completed, be level and in an exact position relative to the finished plaster to permit the cover plates to
be fixed accurately.
Where the conduit work is specified to be concealed the Contractor shall take full responsibility for the alignment of all
such boxes and shall ascertain a definite datum line, from which all measurements can be taken and shall ascertain also
the thickness of walls, depths of finished plaster and final finishes of all wall surfaces.
The exact position of the various points could vary and the Contractor should not have a claim provided notice of the
change is given by the Consultant in advance and it is within the limits set out in clause 18.0.
2.7. CHANGES IN NUMBER OF POINTS
The number of lighting and power points could vary and the Contractor's price will be adjusted accordingly on bases of the
rates to be given in the Tender.
The Contractor shall be required to carry out the complete permanent earthing for the electrical installation of the whole
project as per the Specification and he shall include a price in his Tender.
The earth-leakage protection to all parts of the installation shall be afforded by means of excess-current circuit breakers as
well as residual current devices.
The earthing installation shall be provided with an earthing lead connected to an effective earth electrode or electrodes such
as copper strips or rods, which shall be buried in the ground. The earthing system shall be in accordance with I.E.E. and DEWA
regulations, and shall satisfy the tests specified in these regulations and it shall become approved by the DEWA as per their
regulations and requirements.
Neither building steel framework nor water pipes, separately or jointly, shall be used as the sole earth electrode of the
installation. From the main earthing terminal in the main switchboards and panels the Contractor shall be responsible to carry
out the complete earthing and bonding of the installation to give effective earth continuity as per DEWA Regulations.
Except otherwise stated on drawings and/or instructed by the Consultant/ client, the following mounting heights shall be
taken as a general guide to the mounting of the various items from the finished floor level. All distances are measured from
the centre line of each item:
Lighting Switches & Dimmer controls : 1250mm
: 400mm/100mm above bench/1300mm in plant rooms
Telephone : 400mm
Weatherproof socket outlets : 1250mm
Push-buttons : 1250mm
D.P. switches : 1250mm
Fire alarm Break-Glass : 1300mm
Bells : 2300mm
Wall mounted lighting fittings
Distribution Boards : 2000mm from top
Wall mounted Exit signs : 200mm directly above doors.
All equipment supplied by the Contractor shall be suppressed to avoid interference to radio and television reception.
Radio and television interference shall not exceed the limits specified in BS 800.
Lighting, power, mains voltage, socket outlets, together with other auxiliary services shall each be run in separate conduits
and no wiring associated with one service shall be installed in any conduit box or enclosure containing wires associated
with a different service.
All loads calculated for fluorescent lighting shall include losses associated with control gear and ballasts, etc.
The Contractor's design for lighting and power shall include the following requirements.
Where applicable, lighting levels shall be calculated in accordance with the recommendations laid down by the Chartered
Institution of Building Services Code for Interior Lighting.
The number and type of luminaries shall be determined from the manufacturer's photometric data and submitted to the
Consultant for approval in the form of lighting schedules. These shall clearly show the type, number, designed lighting level
and achieved lighting level for all individual areas as a minimum requirement.
2.14. For every electrical and mechanical system or equipment requiring interfacing with Fire Alarm System, the contractor will
have to provide a submittal with compliance certificate from the supplier/contractor of Fire Alarm System, confirming that the
equipment/ system has all hardware and accessories included for directly interfacing with the Fire Alarm System.
i) Where cables, bus-bars, cable tray, or conduits pass through non-fire rated floors, walls or roof, provide internal and
external sealing thereto for non-fire rated locations, sealant shall be approved by the Engineer.
ii) For fire rated locations, the fire stop shall meet the requirements of Authorities having jurisdiction and to be UL and BS
standards with regard to the type of assembly and fire separation.
iii) The Contractor shall fire seal all holes associated with the electrical equipment i.e. Cable L risers, bus-bars risers,
trunking/cable tray through walls etc.
3.1 Visit the site of the proposed works and obtain all information as to existing conditions and limitations and all proposed
works on adjacent sites and in adjacent areas which might affect the works on this site, whether by Private Individuals
or by Government Authorities or others.
3.3 Neither the Owner nor the Consultant will be responsible for any claim for extra work or expense resulting from the
failure of the Contractor to be fully aware of Site Conditions.
4.2 Pay fees I charges as levied by the Local Authorities for inspections, approvals, temporary services, connections,
etc. at no additional cost to contract unless noted otherwise.
4.3 Before commencing any work on site, submit the shop drawings (approved by the Consultant) to the
Authorities, as and where applicable, for checking and approval. Follow the progress of such drawings
to permit the timely approval of them by the Authorities. Comply with any changes requested by the
Authorities, but notify the Consultant immediately of any such change and obtain his approval.
5.1 The drawings for services works are design drawings, diagrammatic, and intended to convey the scope of
work and indicate general arrangement and approximate locations of apparatus, fixtures, pipe and duct runs,
etc. The drawings do not intend to indicate architectural or structural details.
5.2 These cannot be used as shop drawings. Contractor must develop own detailed shop drawings for work at
site.
5.3 Do not scale drawings. Obtain accurate dimensions to structure and architectural items from dr awings of
those trades. Confirm by site measurement. Verify location and elevation of all services (Water, Electrical,
Telephone, Sanitary, Storm Drainage, Gas, etc.) before proceeding with the work.
5.4 Make at no extra cost, any changes or additions to materials, and I or equipment necessary to
accommodate structural conditions (pipes or ducts around beams, columns, etc.)
5.5 Alter, at no additional cost, the location of materials and/ or equipment as directed, provided that the
changes are made before installation and do not necessitate additional material.
5.6 Install all ceiling mounted components (Diffusers, grilles, detectors, light fixtures, emergency lights, fire
detectors, loudspeakers, camera points, etc.) in accordance with the reflected ceiling drawings which are
to be prepared by the Contractor and coordinated with all trades. These must be submitted for approval
and be approved before any work commences on site.
5.7 Leave space clear and install all work to accommodate future materials and/or equipment as indicated
and/or supplied by other divisions of work of the contract. Install all pipe runs, conduit runs, cable trays,
etc., to maintain maximum headroom and clearances, and to conserve space in shafts and ceiling spaces
and under floors, and to provide adequate space for service and maintenance.
5.8 Confirm on the site the exact location of outlets and fixtures.
To reduce the necessity for cutting away and the like, certain holes and chases will be provided in the structure
by the Contractor to the Engineer's instructions.
The Contractor shall plan his work so that full advantage is taken of these provision's but it is the Contractor’s
sole responsibility to ensure that all holes and chases are in the required position and that any additional
ducts, holes and chases necessary for the execution of his work in the in-situ concrete walls, floor slabs,
columns and beams are executed in the early stage of construction of the building.
7.1 As the job progresses mark on one set of prints to accurately indicate the status of installed work. Have the
prints available for inspection at the site at all times. 30 days before commissioning, finalize the As Built
drawings and submit 2 sets as draft to the consultant for checking and approval. Upon approval, submit one
set of transparencies and three sets of prints to the consultant for onward transmission to the client.
7.2 Separate drawing shall be prepared for each level of conduit run.
7.3 Show on the record drawings the installed inverts of all services entering and leaving the building and the
property. Dimension underground services at key points of every run in relation to structure and building.
Record all elevations for underground services in relation to floor level of the building and give reference
datums to Municipal benchmarks.
8.1 Upon successful commissioning, submit one draft of Operation and Maintenance Manuals for review and
approval of Consultant.
A HVAC.
B Electrical
A Catalogs highlighting the Make, Model and other necessary details for all Material and Equipment
installed.
B List of Local Agents I Suppliers for all Materials and Equipment with Telephone, Fax and Email
address.
H Contractor has to provide detailed maintenance schedule covering the full D.L.P Period.
J Schedule has to be submitted during the T& C period for any review and comment.
L Provide Guarantees and Warranty certificates, Name, address and contact numbers of local
suppliers for all items included.
a) Catalogue number, characteristic, quantity and price of each item, and validity date.
b) Source used for the Contract and alternative sources of supply.
c) Details of required maintenance with suggested frequency of actions.
d) Details of each item of plant including name, address and contact numbers of the
manufacturer, type and model, serial number, duty and rating.
e) Indicate on the list items that should be stocked by the Owner due to a long delivery period.
8.3 Upon approval of the draft by the Consultant, submit 4 set of manuals to Consultants for onward submission
to the Owner.
9.1 Do not use any of the permanent service facilities during construction, unless specific written approval is
obtained from the Consultant and the Owner or where specifically allowed elsewhere in the Contract
Documents.
8.4 In the event that mains power is not available or is not of sufficient capacity for commissioning and testing,
supply, install and operate diesel generator(s) of the correct capacity.
8.5 Any generator must have full safety features and must be maintained regularly to ensure site power at all
times.
10.0 COOPERATION
10.2 Furnish all items to be built in by others, in time, complete with all pertinent information, commensurate
with the progress of the work.
10.3 Store materials neatly and out of the way and clean up all refuse caused by the work daily.
Before this Contractor undertakes work in any area he must prepare a list of deficiencies in that
area which affect his works, or which could possibly be construed as being caused by him if not
noted. In the event that such deficiency list is not prepared, then he shall be deemed responsible
for such deficiencies. Any list shall be brought to the attention of the Consultant forthwith.
12.0 SUPERVISION
12.1 The Subcontractor will maintain at site, as necessary for the performance of the Contract, qualified
personnel and supporting staff, with proven experience in erecting, testing, and adjusting projects of
comparable nature and complexity.
12.2 Before commencing work the Contractor will submit details of the proposed Engineers and Supervisors,
including copies of their Certificates. If in the Consultant's opinion the proposed Engineers or Supervisors
are not adequately qualified or are otherwise unacceptable, the onus is on the Contractor to submit
alternates until such approval is given.
12.3 Where the Contractor's staff becomes during the Contract deficient in performance, the Contractor is to
remedy the situation by immediate and appropriate replacement, to Consultant's approval.
12.4 Approval of the Contractor's Engineers or Staff shall in no way prevent the withdrawal of that approval at
any time during the Contract should the Consultant so desire. In the event of such disapproval, Contractor
will be required to rectify the position as stated above within 14 days.
12.5 In the event of any negligent or severely detrimental behavior the Consultant has the right to order the
removal from site of any Engineer, Supervisor, or worker on a "forthwith" basis.
13.0 CLEANING
13.1 Each day as the work proceeds and on completion, clean up and remove from the premises all rubbish,
surplus material, equipment, machinery, tools, scaffolds, and other items used in the performance of the
work. Clean out dirt and debris and leave the buildings broom clean with no stains and in a condition
acceptable to the Consultant.
13.2 Where electrical items form part of the visible finish in the rooms, protect from over-painting, etc. and
give all items a final cleaning before handing over of the project.
14.1 Any item of equipment requiring maintenance shall be located so as to be accessible for maintenance or
repair without removing adjacent structures, equipment, piping, ducts or other materials.
14.3 Provide the respective Division of work with panels, doors or frames, complete with all pertinent
information for installation.
14.4 Ensure that access doors are installed in a manner to match the building grids where applicable.
14.5 Prepare detail drawings showing location and type of all access doors in coordination with other trades
before proceeding with installation and hand these to the Contractor to obtain approval.
14.6 Size all access doors to provide adequate access and commensurate with the type of structure and
Architectural finish. Should it be necessary for persons to enter, provide a minimum opening of 600 x 450
mm.
14.8 Lay-in type ceiling tiles, if properly marked may serve as access panels.
14.9 The access panels shall be constructed and shall have finishing to match surrounding architectural
construction and finishes and shall be to engineer's approval or as specified elsewhere in the
contract documents.
15.1 Submit Method statement of installation for all systems in the building prior to proceed with any work.
15.2 Submit Method statement of Testing & Commissioning for all systems for engineer approval
15.5 Provide mock up for installation of all systems prior to proceed with any work at site.
15.6 Submit all MEP rooms layout with all equipment’s well-coordinated with different systems allocated in
the same room.
This layout has to be stamped by all approved specialist that have systems in the room (Generator room,
Electrical room, Pump room, Mechanical room, Plant, Security room, Control room, BMS room, UPS
room, Mechanical Lift room.
15.7 contractors are fully responsible to coordinate & follow up with the authorities to obtain their
approvals (shop drawing, material, and inspection).
15.8 Submit color coordinated MEP drawings with sections as required by Engineer.
15.10 Study all MEP services (with all its related dimensions, routing) other structural & architectural drawings
during tender stage and raise any kind of conflict of dispute immediately, if failed to do so, the
contractor will be fully responsible to propose or modify with no cost or time impact).
15.11 Has to study all drawings specification contract documents in accordance with all Authorities rules &
regulations during tender stage and raise any conflict immediately, otherwise Contractor will be fully
responsible to comply with no extra cost or time.
15.12 Detailed test report for all MEP services, stamped by the approved specialist.
15.14 Voltage drop calculation for cables, wires, and bus bar…. etc. should be submitted.
15.15 Provide all third parties test certificates, country of origins up to the satisfaction of the Engineer with no
cost.
15.17 Third party test report does not relief the contractor from conducting a re-test of the whole system with
the attendance of the engineer (this will be subject to the Engineer decision).
15.18 Any third party test has to be conducted with the attendance of the Engineer; otherwise Engineer has
the full right to reject the test report & request for re-testing with his attendance.
15.19 Items required third party test report are: (but not limited to below items)
a) Bus bar
b) BMS system
c) Lightning protection system
d) Swimming pool
e) cctv
f) Security systems
g) Home automation
h) Audio visual
All electrical equipment and components shall be selected and installed such as to operate satisfactorily
and safely under the following climatic conditions:
The electrical supply system for this project shall be low voltage (LV), three phase neutral and separate
protective conductor (TN-S) 415 Volt, 3 phase 4 wire 50HZ
The system of supply shall be at 400V 3Ph, 50HZ with a maximum short circuit capacity of 50 KA for 1
second at the main bus bar of the LV Switch Board.
230 V, 2 Phase 50HZ
The electrical system shall have the following system variations at the sub-station:
Voltage +/- 6% Frequency +/- 4%
The system of supply shall be with short circuit capacity as shown in the drawings.
The contractor shall be responsible for all negotiations with the DEWA to ensure that supplies are available
to meet the construction programme. It shall be the Contractor's responsibility to execute all civil
construction work connected with the HV Distribution Network as required by DEWA. All costs associated
with acquiring permanent incoming mains supply including all civil works shall be included in the contract
except for the power connection charges which shall be paid by the client.
The contractor shall be responsible for liaising with DEWA, Etisalat & Du ,GSM Department, TECOM , Civil
Defence Authority, Dubai Civil Aviation Authority, Dubai police and any other authorities after obtaining
the Consultant's approval, in order to Approve the shop Drawings, before ordering any equipment, and
commencing with the installation.
21.0 REGULATIONS
The installation shall be carried out in accordance with the current edition and supplements of the
following Regulations and Standards:
21.1 DEFINITIONS
c) The words "complete installation" in Clause 1.1 shall mean not only the major items of plant and
apparatus conveyed by the Specification, but all the incidental sundry components necessary
for the complete execution of the works and for the proper operation of the installation, with
their
d) labor charges, whether or not these sundry components are mentioned in detail in the tender
documents issued in connection with the contract.
The cable connected to phase "R" shall be in all cases colored Red, the cables connected to phase 'Y' shall
be colored Yellow, and the cables connected to phase
‘B’ shall be colored Blue. The neutral conductor shall in all cases be Black. Any Insulated earth wires
shall be colored Green or Green/Yellow. These colors shall be continued up to the actual terminals or
cable lugs.
The voltage drop between the incoming LV switchboard and the extremity of any circuit shall not exceed
4% of the nominal supply voltage.
The whole of the electrical installation work shall be so designed that there is an absolute minimum
of interference with telecommunications, and the reception of broadcasting to BS 800 or any other
relevant BS.
25.1 The Contractor shall arrange for the supply of, in advance of the delivery of the equipment, all necessary
foundation bolts, nuts, plates, sleeves and anchorage's as and when directed.
25.2 All cable trays, cable trunkings, light fittings and any other electrical components shall be installed and
supported using a standard product recommended by the manufacturer, where such support is not a
standard product range. The contractor shall only use galvanized material to engineer's approval as a
support.
26.1 The Works shall be executed to facilitate inspection, cleaning and repairs for use where continuity
of operation is the first consideration. All equipment supplied shall ensure satisfactory operation under
working conditions. All plant containing rotating parts shall be capable of operating at speeds up to the
maximum duty specified without vibration or excessive noise.
26.2 Corresponding parts throughout the Contract Works shall be made to gauge and shall be i n t e r c h a n g
e a b l e wherever possible . The Contractor m a y be required by the Engineer to prove interchangeability
ELECTRICAL SPECS Page 15 of 559 6757691
by actual interchanging of the various parts.
26.2 Suitable provision by means of eyebolts or other means are to be provided to facilitate handling of all items
that are too h e a v y or b u l k y for lifting and carrying by two men (70 kg).
27.1 Within 15 days of award of Contract, submit programed of works. Along with the programed submit
a schedule detailing proposed submission dates for all Material Submittals, Shop drawings and Builder's
work drawings. Allow 15 days review period by the Consultant for each submission.
27.2 Contractor must obtain, from the Consultant, approvals of all materials, equipment and drawings within
appropriate time to facilitate work at site, but, within 75 days latest, from the Contract award date. This
period includes any required resubmissions till final approval is obtained.
27.3 Prepare drawings in conjunction with all trades concerned, showing sleeves and openings for all passages
through structure and all insert sizes and locations.
27.4 Prepare composite construction drawings, fully dimensioned, with piping and equipment in tunnels,
shafts, mechanical equipment rooms and areas, and all other critical locations to avoid a conflict of
trades.
Shop drawings shall clearly indicate the materials and equipment being supplied, details of construction,
finish, accurate dimensions, capacities all performance. Drawings shall be certified correct and ‘For
Construction’ by the manufacturer before submission
27.5 Prepare all drawings to scale as agreed with the Consultant. Generally, the scale shall be 1:50 for layouts
and 1:20 for Details and Sections, etc. Forward these drawings, approved by all trades concerned to the
Consultant for his records. Provide copies in a number as specified elsewhere in the Contract but not less
than four sets.
27.6 Drawings production and presentation is a Contractual matter and any delay in making these submissions
will be considered a Contractual delay and may be subject to Contractual penalties in accordance with
Contract documents.
27.7 The Consultant will only consider shop drawings bearing the stamp of the Contractor and all Subcontractors
involved. Check for all pertinent information such as physical dimensions, make, performance, electrical
characteristics and indicate the intended use and location before submitting these drawings. Use reference
symbols or enumeration to correspond to the design drawings.
27.8 Assume responsibility for accuracy of equipment dimensions related to space available, accessibility
for maintenance and service, compliance with inspection authorities codes. Ensure that shop drawings
indicate working weights of all equipment.
27.9 The submission of samples, wherever required by Consultant, will be subject to the same procedure as that
of shop drawings. One set of such samples shall be required to be brought to site and kept there after
approval till substantial completion.
27.10 The Consultant will mark the drawings "Approved I Approved with comments I Revise and Resubmit I Not
Approved. Contractor shall resubmit accordingly.
ELECTRICAL SPECS Page 16 of 559 6757691
27.11 The Consultant is not responsible for any delays caused by the inadequacy of the Contractor's drawings or
his failure to obtain initial or subsequent approval. Any time taken by the Contractor to obtain approval
after the originally scheduled date will be considered as a delay to the contract caused by the
Contractor.
27.12 The Consultant's review shall not relieve the Contractor from responsibility for deviations from the
Contract documents, unless he has, in writing, called the Consultant's attention to such deviations at the
time of submission of drawings. The Consultant's approval shall not relieve the Contractor from the entire
responsibility. Any approval by the Consultant shall be on the understanding that any item submitted shall
be ordered with options and modifications to fully meet the specification. Any fabrication, erection, setting
out or other work done in advance of receipt of stamped drawings shall be done entirely at the Contractor's
risk and cost.
27.13 Furnish prints of the reviewed details to all other parties who may require them for proper coordination of
their work, and furnish all information necessary for the work as a whole.
27.14 Obtain Manufacturers' installation directions to aid in the proper execution of the work. Submit two copies
of such directions to the Consultant prior to installation, for use in Inspecting the work.
27.15 Unless specific written permission is given, do not begin fabrication or installation, until shop drawings are
approved.
27.16 The contractor shall be responsible to obtain the Consultant's approval on the detailed working drawings
prior to ordering any equipment and commencing the installation.
27.18 The contractor shall be responsible for preparing a dimensional shop drawing showing the exact location
and mounting height of the different components.
27.19 The contractor shall also be responsible for preparing enlarged scale details, sections and elevations
wherever requested by the Engineer.
27.20 If requested by the Engineer, the contractor shall forward coordinated shop drawings showing the exact
locations of all services.
27.21 In addition to the above, the Contractor shall forward schematic diagrams for all system. The schematic
diagram shall include all details requested by the Engineer.
27.22 It is a requirement of the specification that the finished appearance of the plant in public areas is of a high
architectural standard and all panels, covers, trim panels, finishes and the like shall be included to provide
this required appearance to the satisfaction of the Engineer.
27.23 The whole of the equipment supplied shall be of durable finish and suitable for installation in a modern
building.
27.24 The Contractor shall be responsible for ensuring that the components of each system are mutually
compatible and integrated to form fully efficient systems complying with the Drawings and specifications.
27.26 All articles and materials specified to conform to the Standards shall be clearly and indelibly marked and
stamped with the Standard number specified and other details required by the regulations, except where
marking is impracticable when the relevant advice I delivery notes shall include the Standard number with
which they are to comply.
27.27 All materials and workmanship shall be to the satisfaction of the Engineer, particular attention shall be paid
to a neat orderly well arranged installation, carried out in a methodical competent manner.
The contractor shall be responsible to replace all the unsatisfactory work to the engineer without any extra
cost and to the standard required by the consultant. This also applies to any item which is found to be
defective in service during the maintenance period or extended maintenance as appropriate.
27.28 Paper prints of each installation drawing shall be issued to the Consultant / Engineer For approval purposes.
27.29 The contract drawing shall not be considered to be the workshop drawings.
27.30 The contractor shall consult the workshop drawings of other services during the preparation of his drawings
and ensure the installations are physically coordinated.
The Tender drawings show the location in principle for the various services. The detailed position shall be
determined and coordinated by the Contractor and shown on the shop drawings.
27.31 The Contractor shall be responsible for correcting any discrepancies, errors or omissions in the drawings
and other particulars supplied by them, whether or not such drawings and particulars have been examined
by the Consultant / Engineer.
27.32 Shop Drawings shall include the typical installation of all accessories equipments etc.
27.33 All shop drawings shall have legend column with proper brief of the legend.
27.35 All drawing numbers shall be submitted for approval of Client / Consultant prior to drawings submission.
27.36 Shop drawing related to system, suppliers should be checked and stamped prior submission to Consultant
/ Client approval.
27.37 All MEP Co-ordination drawings shall be submitted with colored copy and before the installation stages.
27.38 The contract shall include for providing manufacturer design, drawings and catalogue submittal.
27.39 The submittal shall be submitted to the consultant / engineer as soon as possible after the work order has
been placed. No orders shall be placed / finalized with the manufacturer / suppliers, without the written
approvals from the consultant / engineer for the proposed submittals / items.
ELECTRICAL SPECS Page 18 of 559 6757691
27.40 Consultant / Engineer shall be at liberty to reject any material / items which are installed at site without
such written approvals. In such case, contractor shall replace the rejected.
27.41 Materials with an alternative material / items, which is acceptable to / approved by the consultant /
Engineer and no additional costs whatsoever will be payable as a result of such rejection of material.
27.42 At least 14 working days shall be allowed for review / approval of submittals.
27.43 If the submittal is returned with comments, the contractor / manufacturer shall amend the same to take
account of the comments and re-submit for approval. The procedure for re-submittal will be treated as an
initial submittal.
27.44 Responsibility for errors in the submittals of the proposed item, irrespective of whether or not the
submittals have been examined by the consultant / engineer shall remain with the contractor and no
additional costs whatsoever will be payable as a result of error.
27.45 Contractor shall be responsible for any time loss in obtaining the approval for the material submittal. NO
Claims will be allowed such as extension of contract period etc. Due to such time loss.
27.46 All submittals shall be submitted in 4 copies. One set of original catalogues shall be submitted along with
initial submittal.
27.47 All electrical equipment shall be designed for operating in a 50ºC ambient temperature with 100% relative
humidity. Copies of test certificates shall be provided prior to ordering equipment.
27.48 Fire alarm equipment shall be UL or BS and LPC approved. Third Party approval certificates shall be
provided.
27.49 Where more than one of any item is required, all shall be of the same type and manufacture.
28.0 SAMPLES
Whenever requested, the Contractor shall provide a sample properly labeled of all lighting fittings, switches,
fittings and other like accessories described in this specification or as specified by the Engineer.
Such samples shall be submitted to the Engineer for his approval at his offices or elsewhere as directed,
with all parts left loose, so that they may be taken apart for internal inspection by hand without the
necessity of using spanners, screw drivers or wrenches.
29.1 All plant and equipment shall be stored off the ground under weather-proof cover until ready for
incorporation in the works. All electrical apparatus shall be examined and cleaned before installation. All
open conduit ends shall be fitted with plastic caps or suitable protective covering to prevent the ingress of
foreign matter. All drums with cables shall be protected from direct sunlight.
29.2 Protect the building and structures from damage due to carrying out the work.
29.3 Protect all electrical works from damage. Keep all equipment dry and clean at all times.
ELECTRICAL SPECS Page 19 of 559 6757691
29.4 The contractor shall be responsible for and make good any damages caused directly or indirectly to any
walls, floors, wood work, brickwork, finishes, services, etc.
30.1 Where it is the usual practice of the manufacturer of items such as electric motors, switchgear, control
panels, and similar equipment, to apply a high standard of protective paint work in the shop
before dispatch, this will be acceptable provided any damage to paint work on the plant and
equipment which occurs is made good by the Contractor to the satisfaction of the Engineer. The
interiors o f control panels, switchboards and s w i t c h g e a r , finish paint (two coats work) shall
comply with the appropriate standard for enamel finish and the exteriors of such panels shall be of an
British Standard colour to give a minimum reflection value of 42%.
30.2 Instruments shall be finished dull black and control handles, push buttons and similar fittings shall be
chromium plated or otherwise specially finished to the approval of the Engineer.
30.3 All items of equipment installed above the interline suspended ceiling shall be painted with a matt black
finish.
31.1 identification labels of 'trifoliate' or other approved material engraved black on white both in Arabic and
English language unless otherwise agreed, with no less than5mm 'line' style letters shall be fixed on
or adjacent to all controls, switches and distribution gear by means of at least two brass screws.
Socket outlets of voltage other than 230 volt AC shall be similarly identified or engraved.
Identify and label all electrical, lighting, power, telephone/data and security equipment and wiring. Circuit
references shall be provided on all equipment including light fixtures, power sockets, fire alarm and security
devices and controllers, etc.
31.2 Nameplates for distribution boards shall indicate the panel designation and the mains voltage, phase and
location of feed.
31.3 Nameplates for disconnect switches, motor starters and contractors shall indicate the equipment being
controlled, the voltage and rating.
31.4 Nameplates shall be engraved black lamicoid with white letters, at least 19 mm high for switchboards,
switchgear, MMC’s, transformers and panel board branch circuits.
31.5 Nameplates shall be mechanically attached to the equipment with round head screws. Adhesive labels
shall not be accepted. All equipment on or in the panels, cabinets, switch gears, controllers, racks and
consoles shall be identified by lamicold nameplates with white letters on a black background.
31.6 Use labels for feeder conduits, power security, and telephone/data outlets to indicate their full circuit
number or identification.
31.8 Labels shall be located at each end of run at all junctions and pull boxes and in each termination point/block
from panels, controllers, devices, etc.
31.9 Use colored paint dabs on the inside of outlet boxes and paint interior side of the panel C covers as they
are installed. In ceiling spaces, provide color to outside of boxes. Paint color to match system colors as
defined in “Finishes”.
a) Red - Life Safety System
b) Pink - Intercom and Public Address System
c) Black - Annunciator and Buzzer System
d) Green - 230 V, 1 PH Circuits
e) Purple - Telephone/data Communication System (unless stated
f) otherwise by Civil Defence)
g) Blue - 230 V/ 400 V Circuits
h) Orange- Security Alarm System
31.10 Use plastic self-adhesive tape to identify incoming utility sources, feeders, sub-feeders and bus bars in each
switchboard.
31.11 Complete all panel-board and security directories with neat, type-written lists of circuit numbers and items
controlled. Directories shall be typed in Word or Excel, or similar, to the approval of the Engineer, in
addition to the copies included with the manuals and installed on site.
31.12 For direct buried cables and ducts runs under paved or grassed areas, identify location with concrete
markers, flush with grade on 30 m centers, and at changes in direction.
31.13 All controllers for fire alarm, security intercom, lighting completed with connection drawing and riser
diagrams.
31.14 The labels shall bear the identifications shown on the drawings, such as identification, designation,
functions and where necessary, phase and voltage.
31.15 Each distribution board shall be complete with a chart protected by transparent plastic and fixed securely
to the inside of the lid indicating details of each circuit controlled by the board. These details shall contain
points of utilization served, number and size of conductors and type of wiring.
31.17 A mimic diagram shall be provided on each main, sub main panel board and on each motor control centre.
32.1 The Engineer shall have at all reasonable times access to the Contractor's premises to inspect and examine
the materials and workmanship of the plant and equipment during its manufacture there, and if part of the
plant and equipment is being manufactured on other premises, the Contractor shall obtain for the engineer
permission to inspect as if the plant and equipment was manufactured on the Contractor's own premises.
Such inspection, examination or testing, if made, shall not relieve the Contractor from any obligation under
the Contract.
32.2 All work, materials and the like rejected shall be corrected or replaced as necessary at the Contractor's
expense to the satisfaction of the Engineer.
32.3 Where the plant and equipment is a composite unit of several individual places manufactured in
different places, it shall be assembled and tested as one complete working unit. All equipment will be
tested at the maker's works to the relevant standards where applicable.
32.4 The aforementioned works tests carried out before delivery to the Site shall not in any way relieve the
Contractor of completing satisfactory site tests after erection as specified.
32.5 The contractor shall give the Engineer reasonable notice, at least seven clear days in writing of the date
on and the place at which any plant or equipment will be ready for testing as provided in the contract and
the Engineer shall thereupon at his discretion notify the contractor of his intention either to release
such part of the plant and equipment upon receipt of the works tests certificates or of his intention to
inspect such part of the plant and equipment and shall then, on giving twenty-four hours notice in writing
to the Contractor, attend at the place so named within seven days of the date by which the contractor has
stated in his notice the said plant and equipment will be ready for testing. The Contractor shall forward to
the Engineer six duly certified copies of the test readings.
32.6 Whether at the premises of the Contractor or of any of his sub-contractors, the Contractor except
where otherwise specified shall provide, free of charge, such labour, materials, electricity, fuel, water,
stores, apparatus and instruments as may be reasonably demanded, to carryout efficiently such tests
of the plant and equipment, in accordance with the contract and shall give facilities to the Engineer to
accomplish such testing.
32.7 Works tests shall also be carried out such that due consideration is given to the Site conditions under which
the equipment is required to function. The test certifications shall give all details of such tests.
32.8 As and when any plant and equipment shall have passed the tests referred to in this clause the Engineer
shall issue to the Contractor a notification to that effect.
32.9 The Contractor shall not pack for delivery or transport to Site any part of the plant or equipment until he
has obtained from the Engineer his written approval to the release of such part for delivery after any
tests required by the Engineer in terms of this clause have been completed to his satisfaction
Upon completion of the works, it remains the responsibility of the Contractor to test the installation and obtain
approval by local authorities.
The Consultant will require test to be carried out during the installation progress for insulation resistance,
continuity of conduits and earth connections and the ability to withdraw any single cable. Such test will be
witnessed by the Consultant.
The whole of the installation shall be tested by the Contractor in accordance with Chapter 61 of the IEE
Regulations and local authorities demands and readings shall not be less than the minimum set out in those
regulations before the installation is certified as satisfactory, provided that insulation test for mineral insulation
non ferrous metal sheathed cables shall be required to show results of at least 50 mega Ohm. At least the
following tests will be required as guidance:
The Contractor shall serve notice on the Consultant not less than 7 days in advance of the date upon which the
Contractor will be ready to carry out the tests.
The accuracy of these tests is to be to the satisfaction of the Consultant whose decision will be final. All tests
shall be in accordance with the relevant regulations Code of Practice and byelaws current at the time. If so
required, the tests specified herein shall be carried out again at the expiration of the Defects Liability Period in
the presence of the Consultant.
Additional test for any other purpose shall be carried out and in any other way that the Consultant may
reasonably consider necessary.
The Contractor shall be responsible for and shall provide all test equipment and supply all necessary attendance
assistance materials and if so required shall demonstrate the accuracy of the instruments used by producing on
demand certificates of their accuracy. Earth continuity shall be checked by a full current earth loop impedance
tester. Insulation resistance test will be performed using a voltage of 1000 volts. The Contractor shall execute
a thorough inspection of the complete installation to ensure its safety and that all holes in trunking starters,
contractors has to Provide all receiving requirement, instruments, tools, power supply, water, chemicals to
conduct all type of testing & commissioning with no additional cost.
Submit valid calibration certificate for all used instruments for T & C.
Any equipment damaged in commissioning shall be replaced by new item by the Contractor at his own expense
and the plant, equipment or system concerned shall be retested and commissioned. No instruction or action of
the Engineer shall relieve the Contractor of this responsibility.
All testing and commissioning shall be carried out in accordance with relevant Standards and regulations as may
be stated or implied in this specification.
Temporary & suitable power supplies have to provide for testing & commissioning like (certified generator,
UPS, load bank….etc.).
Test reports have to be verified & stamped by specialist / third party / contractor.
Contractor will be fully responsibilities to protect all tested systems from any kind of damages or modification.
Equipment used for T&C has to be as per latest technology at the market & should be accepted by any as put
not limited to (fluke meter, noise level tester, monitors, SMATV Signal level tester ……etc.)
T&C program with format, has to be raised to get the energy approval prior to conduct the testing &
commissioning.
contractors has to make the major test for each DB in the building prior to fix any breaker, report has to
stamped & sign by contractor.
Qa/Qc from contractor has to check & approved all of above prior to getting the energy approval.
34.1 The ultimate condition for system acceptance is that the Owner and Consultant have inspected the system
and found it to be acceptable, and indicated this in writing.
34.3 Submit "as built" drawings and operation and maintenance manuals.
34.5 Submit original of all guarantees and warrantees of equipment and systems required as per contract.
34.6 Hand over all keys of panel boards and equipments, passwords for operation systems, control, etc.
35.1 Remedy all work in accordance with the General Conditions of Contract during the Maintenance period.
35.2 Attend immediately to any and all the defects occurring during the period defined above and repair in a
manner to prevent recurrence. This contractor is responsible for all work required by other trades necessary
to repair the works of this section, or necessary to repair damage caused by the failure of any part of this
section.
35.3 Instruct all Suppliers and Manufacturers that guarantees on equipment will commence when the completed
work is accepted and not from the date the equipment is put into operation. In the event that this condition
is omitted by the supplier, or if subsequent cost to the Owner is involved. Contractor shall be liable for such
costs.
36.0 GUARANTEES
36.1 The Contractor will guarantee all material and workmanship for at least 24 months after preliminary take
over by the Owner.
36.2 All guarantees from equipment suppliers will be vested in the Owner, regardless of whether the Contractor
who supplied the equipment is still associated with the project or not.
36.3 Guarantees will be full guarantees and will include all overhead, profit, incidental charges and sundries.
36.4 Where damage is caused to any other item by any failure of the item guaranteed, and then the guarantee
shall also include the costs incurred in rectifying that damage.
37.0 WARRANTY
Contractor has to consider min (2) years warranties from handing over date for each system, except some
systems which has more warranty period , the same will be shown in particular specification.
38.0 MAINTENANCE.
38.2 Regular maintenance shall be as necessary, but in any event not less frequently than monthly. Breakdown
calls shall be attended immediately.
38.3 Maintenance period shall be (1) year from the handing over date for all MEP Works.
The armor of all cables, cable trays, trunking, ducts etc., shall be prevented from coming into contact with
non-electrical services by minimum spacing of 150mm. Where this is impracticable they shall be bonded to
the exposed metal of the other service through a protective conductor.
a) Ducting
UPVC ducts, including split ducts shall be Class C to BS 3506. Asbestos cement ducts shall be Class 12, to
ISO R 160 made with sulphate resisting cement. All ducts shall be obtained from an approved proprietary
supplier. Ducts shall be laid and jointed in accordance with the general requirements for pipework, except
that snap-on collars shall be used. Longitudinal joints of split ducts shall be sealed to prevent the ingress
of grout during the placing of concrete surround.
The bottom of the trench shall be leveled and rammed. If the duct is on varying gradients, the bottom of
the trench shall rise or fall gradually, and the change in slope shall not be greater than that given by the
maximum permissible deflections at joints as specified by the duct manufacturer.
The bedding and surround for ducts shall be Zone 1 or 2 sand in accordance with Table 2 of BS 882, 1201:
part 2: 1973, unless concrete surround or other details are specified or indicated on the drawings.
The bedding material shall be tamped around the duct to a depth of 300mm above the crown for rigid ducts
or 150mm for flexible ducts, unless detailed otherwise. Filling above this level shall be approved excavated
material free from large stones or sharp objects, and shall be compacted in layers. In multiple duct runs the
spaces between the ducts shall be filled with zone 1 or 3 sand and compacted and specified depth shall be
achieved over the uppermost ducts. Surplus excavated material shall be disposed of.
The minimum cover between the road surface and the crown of the uppermost duct shall be as stated on the
Drawings, but in any case should not be less than 1.0m. If this cover cannot be achieved the ducts shall be
encased in concrete.
Cable ducts shall be laid to the lines and at the levels shown on the Drawings or as directed, and laid and
jointed in accordance with this specification and the recommendations of the manufacturer.
If ducts are to be laid to curves, or with small changes in direction the deflection at the joint of each duct
shall not be greater than the maximum permissible deflection
recommended by the manufacturer. Joint spacing may be reduced to a minimum of 600 mm to achieve
the required curves or changes in direction.
Cable ducts in multiple runs shall be laid at the centers shown on the Drawings and/or as directed by the
Consultant. The final jointing of ducts shall be made in the trench; the ducts shall be lowered and jointed
singly and not in groups and joints shall be staggered by approximately half the duct length in alternate lines.
g) Bellmouths
Electrical duct entries to draw pits, cable trenches and the like shall be provided with an approved bell
mouth.
Ducts may be cut as required for the work. Except where ducts enter a cable pit at an angle, cuts shall be
made at right angles, using a cutting guide. The inside edges of cuts shall be rounded off and dressed to
prevent damage to cables.
i) Proving of Ducts
The Contractor shall notify his intention to carry out proving tests on ducts. Cable ducts shall be cleaned on
completion by passing a mop or pig of appropriate size through twice in each direction. Any obstructions
found shall be removed and defects remedied. Ducts for a particular service shall be proved in accordance
with the requirements of that particular service authority.
j) Draw Ropes
Cable ducts exceeding 3 meters in length shall be provided with draw ropes of pigmented stranded
polypropylene of not less than 5.3 KN breaking load. The length of draw ropes shall be such that not less than
two meters of rope protrudes from each duct end. After the ends of ducts have been sealed the free ends of
the ropes shall be securely attached to stainless steel loops cast in to the underside of concrete slabs, as
detailed on the Drawings.
k) Sealing of Ducts
As soon as a duct or set of ducts has been proved and draw ropes installed, the ends and bell mouths shall be
stopped with approved split tapered hardwood plugs. Spare ducts shall then be sealed to a depth of 50 mm
with approved mastic sealant or by other approved method, and a coat of bitumastic paint shall be applied
over the seal. Remaining ducts shall be sealed similarly after installation of cables.
Immediately after sealing, both ends of ducts shall be marked with suitable stakes until permanent markers
are installed.
ELECTRICAL SPECS Page 27 of 559 6757691
l) Duct Markers
The Contractor shall provide and fix to the road surfacing, markers to indicate the line of each duct. Duct
markers shall be of aluminum of approved design, and shall clearly indicate the name of the service
authority. The method of fixing shall be as approved by the Consultant.
m) Cable Tiles
All un-ducted HV and LV cables laid or exposed during the contract shall be provided with protective cable
tiles.
Each tile shall be impressed with the words 'CAUTION ELECTRIC CABLE BELOW' in lettering 25mm high.
Cable tiles shall be laid at the depths indicated on the Drawings, or as instructed. Tiles shall overlap cables by
a minimum of 150mm on each side.
Before testing and commissioning, the Contractor shall ensure that all electrical equipment and
installations are thoroughly cleaned both internally and externally.
Site tests shall be carried out for approval and recorded on standard test certificates and shall include the
following:
a. Power-frequency voltage on 380V bus-bars 50HZ in accordance with BS 5486 and BS 5490.
b. Visual inspection of equipment and protective treatment including functional checks of operating
devices.
e. Post energization voltage checks between phases and between phase and neutral.
External Lighting
Mechanical Services
a. Overload relays supplying motor drives of 15HP and above shall be injection tested as follows:
120% relay- setting current with one phase removed trip time to comply with manufacturer's
specification.
b. Electric motor insulation resistance tests between windings and between windings and earth.
a. Insulation resistance test to earth and between phases on sections of the installation as completed
and also on the whole of the installation when completed in accordance with the I.E.E Regulations
Part 6, Appendix 14 and 15.
In addition to these tests the Contractor shall provide readings of potential drop at various points in
the installation and current balance across the phases on all mains.
The Contractor shall be responsible for the provision of all labour and instruments necessary for the
successful execution of these tests.
e. D.C pressure tests on all armored cables in accordance with the requirements of B.S. 6364 Appendix
'B'.
PART 1 - GENERAL
A. Drawings and general provisions of Contract, including General and Supplementary Conditions
and Division 1 Specification Sections, apply to this and the other sections of Division 23 & 26.
1.2.1 The scope of electrical work for the project will include but is not necessarily be limited to:
B. Standby Emergency Power Distribution capable of catering to 100 per cent of the emergency load and
consisting of:
1. Diesel engine driven generator(s).
2. Generator protection board (mounted on the generator(s)) housing the circuit breaker and other
protection devices,
3. Automatic transfer switches,
4. Totalizing Panel,
5. Load Management System.
6. Low voltage individual metering of generator electrical energy for tenants and general services
1.2.2 Unless otherwise specified, includes the supply, installation, testing and commissioning of the complete
electrical systems, equipment and materials shown on the Drawings and/or de- scribed in the Specification
together with all associated ancillary work, support work and builder's work in connection.
1.2.3 Incoming power supply and connection will be provided by the Local Power Authority at medium voltage
and stepped down to 400/230V to the location shown on the Drawings.
1.2.4 All mechanical vibration and noise isolation issues to be coordinated and approved by the acoustic
consultant.
A. This is a general specification that should be read in conjunction with the condition survey report that
specifies the status of the existing items, their condition, and maintenance requirements.
B. Carry out electrical work in accordance with the Drawings, Specification and Regulations, ensuring
compliance with design and performance requirements, to provide safe and protected systems with
equipment readily accessible for operation, maintenance and repair.
C. Installations are to be complete, ready for operation and fully integrated and coordinated with all other
work.
E. Provide accessories necessary to complete the installations, of the types specified or recommended for
the purpose by the manufacturer of the equipment or accessories.
1.3.2 EQUIPMENT SPACES AND ROOMS: check that dimensions, structure, ventilating and cooling arrangements
and other provisions in equipment spaces and rooms are suitable for installation, operation and maintenance
of proposed equipment. Note any discrepancies on the shopand construction drawings. The Contractor is
responsible of planning the erection of the electrical equipment such that it is not interfering with any other
trade in the building.
1.3.3 POWER SUPPLY: liaise with the Local Power Authority to confirm:
1. Characteristics of supply and system earthing
2. Location of incoming supply shown on the Drawings
3. Space requirements and associated builder's work for the Authority's installations, including in
transformer rooms.
4. Make necessary arrangements at the earliest opportunity to ensure connection as and when
required, and inform the Engineer in the event of any foreseen delay.
1.3.4 Systems used before taking over certificate for the benefit of the Contractor are to have all consumable
elements, such as lamps etc. and defective equipment replaced by new, within 7 days prior to the date of
taking over.
B. DISTRIBUTION SYSTEMS are to be supplied or derived from the voltage system previously described, as
shown on the Drawings, or as otherwise specified.
C. EQUIPMENT is to be designed for the system voltage and frequency previously described, unless otherwise
specified. Special provisions are to be made for equipment sensitive to power supply frequency and voltage
variations and for equipment operated at other voltages/frequencies or by direct current sources.
E. CLIMATIC CONDITIONS: equipment, including transformers, switchgear, cables, relays, lighting fixtures,
motors etc., is to be designed and de-rated for continuous and trouble free service under the following
climatic conditions:
1. Altitude: at sea level
2. Maximum ambient temperature: 50 C (in the shade)
3. Minimum ambient temperature: 10 C
4. Maximum relative humidity: 90 %
5. Atmospheric conditions: 1 bar
F. Where design and operating conditions, different from the above are required for particular equipment,
they are described in the specification of the equipment concerned.
G. REGULATIONS: carry out electrical work in accordance with the current issue of the IEC Regulations for
Electrical Installations, where not in contradiction with the local codes of practice and regulations, herein
referred to collectively as ‘The Regulations'.
H. CONFLICT should an instance occur in this specification or on the drawings in which material or construction
methods called for are less than minimum requirement of the Regulations, the Engineer shall be
immediately informed in writing. Consequent to Engineers approval, supply the materials and perform the
work as through called for to minimum code standards.
I. STANDARDS: unless otherwise specified, equipment and materials are to be manufactured and installed
in compliance with the relevant recommendations of the following:
1. IEC : The International Electro-Technical Commission
2. ISO : The International Standardization Organization
Or other equal and approved standards, herein referred to as 'The Standards'. Localstandards, where
enforced and relevant, are to have precedence over the Standards.
A. EQUIPMENT LOCATIONS shown on the Drawings indicate the approximate locations and general layout
of equipment. Exact and final locations and layouts together with dimensions, weights, mounting methods
and accessories, where relevant are to be shown on the shop and construction drawings. All protecting
device shall show: the short circuit current value for single and three phase current, the voltage drop, the
indirect protection function in case of a fault with respect the earthing system.
B. WIRING LAYOUTS shown on the Drawings are to be used as a guide only to defining basic positions,
circuiting, loading and switching arrangements. Actual layouts and details of routing of circuits are to be
shown on the shop and construction drawings.
C. WIRING LAYOUTS shown on the Drawings for work not included in the Electrical Work are shown for
convenience and reference only.
D. SYMBOLS: in order to provide sufficient detail and a minimum degree of clarity on the drawings, the symbols
used for the various electrical devices, particularly wall mounted devices, take up more space on the
drawings than the device does on the wall. Because of drafting limitations these locations must be
considered as being symbolic rather than exact physical locations of the devices.
E. The devices shall be installed with prime regard for convenience of operation and the best usage of the
wall space for this and other purposes rather than string the devices out along the wall so as to coincide
with the scaled locations of the symbols. In locating the outlets, follow the criteria provided on detail
drawings where provided, and co-ordinate with furniture. Submittal of detail drawings is required for this
purpose before execution. Do not scale from design drawings.
A. AVAILABILITY: confirm availability of equipment and materials proposed for use in the work prior to
submission for approval. If, after approval, equipment or materials cease to be available, submit
alternative items of equal quality and type for approval.
B. ACCEPTANCE BY AUTHORITY: confirm that proposed equipment and material characteristics where
required are compatible with the requirements of the Local Power Authority or other authorities having
jurisdiction and are acceptable to them. Inform the Engineer of any modifications necessary to comply
with the specifications.
D. APPROVED MANUFACTURERS (Only western European, Japanese and North American are approved):
listing of approved manufacturers does not necessarily constitute approval of their standard products as
equal to those specified. As certain that listed manufacturers are able to supply equipment and material
in conformity with the Specification.
E. FACTORY ASSEMBLY: equipment generally is to be supplied in complete factory assembled units ready for
installation on site. Disassembly necessary for transportation or other purposesis to be arranged to limit site
work to simple re-assembly and inter-wiring of control and power cabling.
F. STORAGE OF MATERIALS: equipment and materials are to be stored in an approved location, under cover,
free from humidity, dust, debris and rodents. Equipment sensitive to heat and humidity is to be kept in
climatically conditioned areas until installed and handed over.
G. DEFECTIVE EQUIPMENT: The Employer reserves the right to operate operable defective equipment during
the Defects Liability Period until it can be removed from service for repair or replacement.
H. WARRANTY: where required by the Specification, provide a warranty, signed by the manufacturer
(including his agreement to replace promptly, defective equipment or parts thereof, as instructed by the
Engineer) covering materials and workmanship for the period stated in the Specification, starting at taking
over certificate. The Contractor is to assign the benefits of such warranty to the Employer.
I. SPARE PARTS: not later than the date of taking over certificate, provide spare parts required by the
Specification, together with suitable means of identifying, storing and securing same.
J. TOOLS AND INSTRUMENTS: not later than the date of taking over certificate, provide sets of tools and
instruments required by the Specification, together with suitable means of identifying, storing and
securing same.
K. LABEL AND IDENTIFY all equipment, instruments, controls and electrical devices etc. to indicate duty service
or function, to the satisfaction of the Engineer. Labels are to be anodized aluminium discs with black
surface and white core with incised lettering in English or Arabic to the satisfaction of the Engineer.
Alternative methods of labeling may be submitted for
approval. Fix labels with non-corrodible screws to equipment, or to adjacent permanent surfaces or as
approved by the Engineer.
L. EQUIPMENT NAMEPLATES are to be non-corroding, robust metal, inscribed in English, and firmly fixed to
equipment at factory. Nameplates are to indicate name and address of manufacturer, model, serial
number, basic characteristics and ratings of equipment and areto include elementary diagrams etc., all
in accordance with the Standards.
M. FIREPROOFING: Where cables, cable trays or conduits pass through floors and fire rated walls, pack space
between wiring and sleeve full with materials and seal with approved caulking compound like Hilti, Spec
Seal, etc… Selected supplier to certify compliance of installation to standard.
1.7 SUBMITTALS
A. Approval of submittal: Approval of a submittal does not relieve the contractor from the specifications and
contractual obligations. Each submittal should show a schedule of compliance sheet, addressing each
point mentioned in the specifications and/or in the BOQ, these points should be numbered and each
number should be highlighted with the relative number on the original certified catalogue. Any deviation
or omission from the specifications shall be clearly stated in a compliance sheet.
D. Submittal Preparation: Place a permanent label or title block on each submittal (including shopdrawing) for
identification. Indicate the name of the entity that prepared each submittal on the label or title block.
1. Include the following information on the label for processing and recording actiontaken:
a. Project name.
b. Date.
c. Reference number for the submittal with revision number if the same submittal has been
submitted before.
d. Name and address of the Architect.
e. Name and address of the Contractor.
f. Name and address of the subcontractor.
g. Name and address of the supplier.
h. Name of the manufacturer.
i. Number and title of appropriate Specification Section.
j. Drawing number and detail references, as appropriate.
E. Product Data: Collect Product Data into a single submittal for each element of construction or system.
Product Data includes printed information, such as manufacturer's installation instructions, catalog cuts,
standard color charts, roughing-in diagrams and templates, standard wiring diagrams, and performance
curves.
1. Mark each copy to show applicable choices and options. Where printed Product Data includes
information on several products that are not required, mark copies to indicate the applicable
information. Include the following information:
a. Manufacturer's printed recommendations.
b. Type of usage and location.
c. Reference number in contract documents (Specifications, drawings)
d. Compliance with recognized testing agency standards.
e. Application of testing agency labels and seals.
f. Notation of dimensions verified by field measurement.
g. Notation of coordination requirements.
F. SAMPLES: Submit full-size, fully fabricated Samples cured and finished as specified and physically identical
with the material or product proposed. Samples include partial sections of manufactured or fabricated
components, cuts or containers of materials, color range sets, and swatches showing color, texture, and
pattern.
G. Operation and Maintenance Manuals: Include Operation and Maintenance manual for each equipment.
Identify each equipment and include the local supplier’s name and full address, the manufacturer’s manual,
in addition to recommended spare parts.
H. Organize the Operation and Maintenance Manuals by system and sub-system. Describe for the whole
system and each sub-system separately, the proper normal operation, shut down, access, routine
preventive maintenance and describe intervention needed in case of failure.
A. Submit newly prepared information drawn accurately to scale. Highlight, encircle, or otherwise indicate
deviations from the Contract Documents. Do not reproduce Contract Documents or copy standard
information as the basis of Shop Drawings. Standard information prepared without specific reference to
the Project will be rejected.
B. Submit Builder’s Work drawings showing Floor plans, elevations, and details to indicate penetrations in
floors, walls, and ceilings and their relationship to other penetrations and installations.
C. Shop drawings shall be prepared electronically editable on AutoCAD similar to the edition of the original
drawing and not less than 2012. Layers, sizes and all other drawing requirements shall be followed as per
instructions of the Architect/Engineer. These shall be made and presented to suit for the elaboration of
composite drawings.
D. Shop Drawings include fabrication and installation Drawings, setting diagrams, schedules, patterns,
templates and similar Drawings. Include information as required by individual sections, in addition to the
following information:
a. Dimensions, distances, invert levels, operating clearances, location of access required.
b. Identification of products and materials included by sheet and detail number.
E. Shop drawings are to be checked thoroughly and coordinated to avoid interference with structural
elements, finishing requirements and the work of other trades.
F. Shop drawings and redesign shall be prepared electronically editable on AutoCAD similar to the edition of the
original drawing and not less than 2012. Layers, sizes and all other drawing requirements shall be followed
as per instructions of the Architect/Engineer. These shall be made and presented to suit for the
elaboration of composite drawings. Shop drawings and redesign should be done even if changes on
Architectural drawings are important and even if redesign of some parts of the areas is requested.
G. Submit Final Electrical calculation for Discrimination, Definition and settings of circuit breaker and other
detailed calculations required.
A. Participate in site meetings to coordinate shop drawings between all construction trades.
B. Submit coordinated composite drawings showing interference of all trades on one sheet, including
composite sections and elevations.
C. Submit Composite drawings showing reflected ceiling plans to coordinate and integrate installation of air
outlets and inlets, light fixtures, communication system components, sprinklers, drainage pipes, water
supply and other ceiling-mounted items
A. As-Built Drawings: On completion of the works of each area, system or floor, submit four sets of prints of
each applicable drawing for the electrical installation, showing the exact position of all outlets, fixtures,
sockets, cable trays, panel boards, etc. with all appropriate labeling to the Architect/Engineer's
requirements. All as-built drawings must conform in all respects to the pattern of the Contract Drawings,
and to the approval of the Architect/Engineer.
B. As-Built drawings shall be submitted directly after approval of the installation, and prior to testing and
commissioning. A draft copy shall be submitted before closing shafts, ceiling or any obstructing element.
C. The words "As Built Drawing" shall be clearly indicated on all drawings adjacent to the title cover. As-built
drawings will be subject to Architect/Engineer approval. Contractor to submit
hard copies and also soft copies of all as built drawings on CD ROMS to the Architect/ Engineer after the
approval of the as built drawings.
A. Before Final Handing over submit a draft copy of a complete Operation and Maintenance manual that
include:
1. A documentation Directory
2. Emergency information
3. Operating manual
4. Maintenance Manual
5. Test reports
6. As built drawings
The final and approved version of the O&M manuals must be handed over before TOC.
B. Documentation directory: Submit an index of all O&M documents in a well-organized manner identified
to ease the access of information and reflecting the hierarchy of the project:System, sub-system,
Equipment, component.
C. Emergency information: a document that should be readily available for emergency situation that include,
for each system, information needed for type of emergency, with the notification activity and the
responsibility of the personnel.
D. Operating manual: A document that contains all information needed for day-to-day operation and
management of the building systems. Two parts required: one intended for the building manager focused
on the systems and one for the building operators focused on the technical information of the equipment,
with the normal operation, access and shut down of equipment.
E. Maintenance Manual: In addition to manufacturer supplied maintenance manuals, provide for each
equipment:
1. Description of equipment
2. Recommended maintenance procedures and their frequency.
3. Recommended list of spare parts with their number and reference.
4. Original purchase order number, supplier’s name, address and phone number.
5. Intervention needed in case of failure and Installation information.
F. Testing reports: Include test results from the testing and commissioning process.
A. GENERALLY: submit for approval, manufacturers' technical literature, shop and construction drawings and
other information required by the Specification, before ordering equipment or materials and before
executing any related work on site.
C. LIST OF PROPOSED MANUFACTURERS of all equipment and materials, including all items for which choice
of manufacturer is at the discretion of the Contractor, is to be submitted for approval.
D. TEST CERTIFICATES AND REPORTS: where required by the Specification, submitmanufacturer's type and
routine test certificates and reports for equipment and devices. Complete test results are to be submitted in
clearly identified and organized booklets, indicating item of equipment, make, model, type, date of tests,
type of tests, descriptions andprocedures.
E. LABORATORY TESTS: if manufacturer's test certificates are considered unsatisfactory, then independent
laboratory tests are to be carried out on equipment in accordance with the Specification and the
Standards, as required by the Engineer.
F. SPARE PARTS SCHEDULES: submit with the Tender itemized schedules of spare parts to be provided, as
required by the Specification, and state against each item the manufacturer's unit price including
packaging and delivery to site.
G. TOOLS AND INSTRUMENTS SCHEDULES: submit with the Tender itemized schedules of tools and
instruments to be provided, as required by the Specification, and state against each item the
manufacturer's unit price including packaging and delivery to site.
H. LABELLING SCHEDULE: submit for approval, prior to installation, a schedule of all equipment and devices
to be labeled and the suggested details, lettering, position and fixing methods of each label indicating its
application.
I. SAMPLES: submit samples of all equipment and materials for approval. Major items of equipment for
which samples cannot be submitted are to be demonstrated in existing installations or by manufacturer's
information, test certificates and reports.
2.1 REQUIREMENTS
A. CONSTRUCTION: electronic components of communication systems, security systems and special systems
and electronic components forming part of the power generation and distribution system are to be solid-
state integrated construction, unless otherwise approved.
C. ALTERNATIVE ELECTRONIC EQUIPMENT may be submitted for approval, provided such equipment meets
or exceeds the functional capabilities and/or performance parameters of
the equipment specified. Proposals for alternative equipment will be considered only ifaccompanied by
the following information:
1. List of operational characteristics and performance parameters.
2. List of differences in operation and performance between proposed and specified equipment.
3. List of changes required and resulting implications.
4. Drawings indicating changes required to system wiring.
5. Statement of advantages of proposed equipment over that specified.
D. PROTECTION: solid state equipment under normal conditions of operation is to withstand any surges which
might be produced by sudden mains or standby power switching operations. Protective devices are to be
provided to protect against surges, failure of output stages due to open circuit, short-circuit or impedance
mismatch. In the absence of IEC or BS standards comply with IEEE standard 472 (ANSI/IEEE C37.90 "Guide
for Surge Withstand Capability Tests". System/equipment which may be adversely affected by short
duration power blackouts shall be capable of riding through such a disturbance by having an internal
battery back-up to the memory / microprocessor, etc.
F. ELECTROMAGNETIC RELAYS and control/small power transformers are to be designed to withstand the
500 V AC test voltage between winding and winding or winding and core.
G. DUST COVERS, easily removable for inspection and servicing, are to be provided for all relays and sensitive
elements.
I. EXTERNAL INTERFERENCE: carry out field investigations and tests to determine possible interference from
outside sources. Design electronic equipment to ensure trouble-free operation.
J. SEGREGATION OF WIRING: design wiring so that low current circuits are segregated from power wiring, using
different conduits and wireways for the purpose. Composite wiring is acceptable for the same system in
accordance with the relevant codes. Cable insulation is to be same grade for all conductors in a common
enclosure.
K. POWER SUPPLY UNITS for low current systems which are fed from the LV supply are to be independently
fused on the live conductor and are to have front panel mains indicator light, on/off switch and standard
cartridge type fuse holder. Blown fuse indicator lamp is to be provided when fuse does not have an
indicator.
A. GENERALLY: carry out inspection and acceptance tests on site on each complete system, before final placement
into service, in accordance with the Regulations and Standards, as described in the Specification and
required by the Engineer.
B. TEST SCHEDULES AND PROCEDURES are to be submitted for approval and are to include details of testing
equipment to be provided.
C. WITNESSING: inspection and acceptance tests are to be carried out in the presence of the Engineer and,
when required, by an authorized representative of the Local Power Authority.
D. VISUAL INSPECTION: visually check proper installation, connections and nameplate data before testing.
E. INSULATION RESISTANCE: test the feeders and busducts, lighting and power circuits, motors and other
power equipment of low voltage installations with a megger of not less than 500 V
D.C for installations rated up to 500 V (R.M.S value of A.C supply) and 1000 V D.C for installations rated above
500 V up to 1000 V, and as required by the particular Section of the Specification.
F. INSULATION RESISTANCE: unless otherwise specified or approved, test the circuit insulation resistance
related to communications and security systems with a megger of not less than 500 V operating voltage,
with equipment disconnected.
H. OPERATIONAL TESTS: carry out operational tests on all equipment and complete systems to verify proper
performance in compliance with the Specification. Tests are to be carried out under normal operating
conditions for not less than 3 days, and as required by the Engineer.
I. SPECIFIC TESTS: carry out specific tests required by the Specification and any other tests required by the
Engineer to verify compliance of the installations with the Specification.
J. LOAD BALANCE: upon completion of the building and immediately prior to final inspection and take-over,
check load balance on all feeders and at distribution centers, panels, etc. Conduct tests by turning on all
possible loads in the building and checking the load current balance. If load unbalance exceeds 15%,
rearrange and reconnect circuits to balance the load after Engineer's approval.
K. VOLTAGE CHECKS: perform voltage checks throughout the building and if directed by the Engineer, adjust
the transformer tap settings where a transformer is provided on the supply end, or report to power
authority for adjustment necessary.
L. CURRENT CHECKS: In cooperation with the mechanical sub-contractor, take clip-on ammeter readings on
all phases of all mechanical equipment motors with motors operating under full load conditions. Test
readings shall be submitted to the Consultant.
3.2 RECORDS
A. GENERALLY: not later than the date of taking over certificate, provide the Engineer with fourcopies of all
approved as-installed drawings, test records, manufacturers' guarantees and warranties, operating and
maintenance manuals and other records required by the Specification.
B. PRESENTATION OF RECORDS is to be in A4 size plastic covered, loose-leaf ring binders or other approved
binders with hard covers, each indexed, divided and appropriately cover titled.Drawings larger than A4 size
are to be folded in the binders so that they may be unfolded without being detached.
C. AS-INSTALLED DRAWINGS are to contain the complete assembled information included onthe
construction drawings, prepared in the same manner, and up-dated to indicate the systems, labelling,
referencing, mounting methods, routing etc. as installed. Submit complete drawings for approval. Provide
the Engineer with one set of transparencies in addition to the four copiesrequired.
D. TESTING COMMISSIONING: Include test results from the testing and commissioning process. Tests for all
and each of the equipment and accessories should be done in presence of the manufacturer
representative, the commissioning to be done by a specialized team with the knowhow of similar jobs.
Schedules to be performed for each type of equipment and accessories showing that performances during
the test, meets the expected and specified one
E. TEST RECORDS are to include test certificates of type tests, routine tests, site tests, commissioning and
performance tests and all other tests on equipment and installations described in the Specification and
required by the Engineer. Information is to include test procedures and results, conditions under which
tests were carried out including set points, temperatures and the like, dates, location and attendance by
authorized representatives etc.
9. Manufacturers' lists of recommended spare parts for items subject to wear and deterioration,
giving expected running period and indicating specifically those items which may involve extended
deliveries.
G. OPERATING AND MAINTENANCE MANUALS: prepare two temporary copies with provisional record
drawings and preliminary performance data and make available at time of testing and commencement of
commissioning to enable the Employer's staff to familiarize themselves with the installations. Temporary
copies are to be in the same format as the final manuals with temporary insertions for items which cannot
be finalized until installations are commissioned and performance tested.
3.3 TRAINING
A. OPERATION AND MAINTENANCE TRAINING: before the date of taking over certificate, explain and
demonstrate to the Employer's maintenance staff the purpose, function and operation ofthe installations
including all items and procedures listed in the operating and maintenance manuals. Include for not less
than thirty days for this purpose.
B. All trainings should be video recorded by the contractor and issued to the employer on DVD.
3.4 MAINTENANCE
A. MAINTENANCE CONTRACTS: where required by the Specification, submit supplementary proposals for
annual maintenance contracts. The proposals are to:
1. Include for maintaining the installations in efficient working order including routineand emergency
service checks, adjustments, lubrication and the supply and re- placement of damaged parts etc.
2. Set out the terms of the offer, the work to be carried out, the guarantees of performance and the
price of the work or part thereof for the first twelve months after taking over certificate.
PART 1 - GENERAL
1.2 SUMMARY
A. This Section includes cables and related splices, terminations, and accessories for mediumvoltage electrical
distribution systems.
1.3 STANDARD
A. MV single and three core cables, armoured or unarmoured, conforming to IEC EN 60502-2.
B. Plain annealed electrolytic conductors, circular stranded conforming to the applicablerequirements of IEC EN
60502-2.
C. Conductor screening conforming to the applicable requirements of IEC EN 60502-2.
D. Cable insulating: conforming to the applicable requirements of IEC EN 60502-2.
E. Insulation screening: conforming to the applicable requirements of IEC EN 60502-2.
F. Armour: conforming to the applicable requirements of IEC EN 60502-2.
G. Sheath: conforming to the applicable requirements of IEC EN 60502-2.
1.4 SUBMITTALS
A. Product Data: Include electrical characteristics, dimensions, mounting position, mounting method,
supports, materials, firestops, and weatherstops for each cable.
B. Shop Drawings: Detail installation of MV cables including plans, elevations, sections, component details, and
attachments to other construction elements. Detail connections to switchboards and transformers. Detail
supports and connections to building.
C. Coordination Drawings: Include floor plans and sections to show MV cables layouts and relationships
between cables and adjacent trades. Show supporting systems locations and type of support.
D. Qualification Data: For firms and persons specified in "Quality Assurance" Article.
E. Field Test Reports: Indicate and interpret test results for compliance with performance requirements.
F. All documents required by Local Distribution Company in the format required by this party.
A. Installer Qualifications: An experienced installer who is an authorized representative of the medium voltage
cables, ISO 9002 certified for installation, commissioning and maintenance of units required for this Project.
B. Testing Agency Qualifications: Testing agency as defined by OSHA in 29 CFR 1910.7 or a membercompany of
the International Electrical Testing Association and that is acceptable to authorities having jurisdiction.
1. Testing Agency's Field Supervisor: Person currently certified by the International Electrical Testing
Association or the National Institute for Certification in Engineering Technologies to supervise testing
specified in Part 3.
C. Source Limitations: Obtain cables and accessories through one source from a single manufacturer.
D. Electrical Components, Devices, and Accessories: Listed and labeled as defined in IEC 60502-2, by a testing
agency acceptable to authorities having jurisdiction, and marked for intended use.
1.7 WARRANTY
A. General Warranty: The special warranty specified in this Article shall not deprive the Owner of other rights
the Owner may have under other provisions of the Contract Documents and shall be in addition to, and run
concurrent with, other warranties made by the Contractor under requirements of the Contract Documents.
B. Special Warranty: A written warranty, signed by Contractor and manufacturer, agreeing to replace any
component of the MV cabling network that do not meet requirements or that fail within the specified
warranty period.
C. Warranty Period: 10 years from date of taking over certificate for any component of the system.
1.8 APPROVED MANUFACTURERS: Obtain cables and related accessories from one of the listed below
manufacturers:
A. Ducab (UAE)
B. Saudi Cables (Saudi Arabia).
C. Liban Cables (Lebanon)Accessories:
D. Schneider Electric (France).
E. Siemens (Germany)
F. ABB (Europe).
PART 2 - PRODUCTS
2.1 CABLES
A. Conductor: Copper.
B. Conductor Stranding: Concentric lay, Class B.
C. Strand Filling: Conductor interstices are filled with impermeable compound.
D. Conductor Insulation: Crosslinked polyethylene.
1. Voltage Rating: Greater than or equal to the nominal voltage rating of the incoming utility service.
2. Insulation Thickness: 133 percent insulation level.
E. Insulation screen: extruded semi-conductor plus copper tape.
F. Shielding: helically applied over semiconducting insulation shield.
G. Armour: Two layers of flat steel tape (non magnetic tape shall be provided for the single core cables).
H. Cable Jacket: Sunlight-resistant PVC.
B. Terminations at Distribution Points: Modular type, consisting of terminators installed on cables and modular,
dead-front, terminal junctions for interconnecting cables.
C. Load-Break Cable Terminators: Elbow-type units with 200-A load make/break and continuous current rating;
coordinated with insulation diameter, conductor size, and material of cable being terminated. Include test
point on terminator body that is capacitance coupled.
D. Isolation of energized cable-elbow terminator.
E. Test-Point Fault Indicators: Applicable current-trip ratings and arranged for installation in test points of load-
break separable connectors, and complete with self-resetting indicators capable of being installed with shotgun
hot stick and tested with test tool.
F. Tool Set: Shotgun hot stick with energized terminal indicator, fault-indicator test tool, and carrying case.
PART 3 - EXECUTION
3.1 INSTALLATION
A. Install cables according to IEEE 576 in addition to the location EDL regulations.
B. Pull Conductors: Do not exceed manufacturer's recommended maximum pulling tensions and sidewall
pressure values.
1. Where necessary, use manufacturer-approved pulling compound or lubricant that will not deteriorate
conductor or insulation.
2. Use pulling means, including fish tape, cable, rope, and basket-weave cable grips that will not damage
cables and raceways. Do not use rope hitches for pulling attachment to cable.
C. Install exposed cables parallel and perpendicular to surfaces of exposed structural members and follow
surface contours where possible.
E. Install direct-buried cables on leveled and tamped bed of 75-mm (3-inch) thick, clean sand. Separate cables
crossing other cables or piping by a minimum of 100 mm (4 inches) of tamped earth. Install permanent
markers at ends of cable runs, changes in direction, and buried splices.
G. In manholes, handholes, pull boxes, junction boxes, and cable vaults, train cables around walls by the longest
route from entry to exit and support cables at intervals adequate to prevent sag.
H. Install cable splices at pull points and elsewhere as indicated; use standard kits.
I. Install terminations at ends of conductors and seal multi-conductor cable ends with standard kits.
K. Arc Proofing: Unless otherwise indicated, arc proof medium-voltage cable at locations not protected by
conduit, cable tray, direct burial, or termination materials. In addition to arc proofing tape manufacturer's
written instructions, apply arc proofing as follows:
1. Clean cable sheath.
2. Wrap metallic cable components with 250-micrometer pipe-wrapping tape.
3. Smooth surface contours with electrical insulation putty.
4. Apply arc-proofing tape in one half-lapped layer with coated side toward cable.
5. Band arc-proofing tape with 25-mm (1-inch) wide bands of half-lapped, adhesive, glasscloth tape 50
mm (2 inches) o.c.
L. Seal around cables passing through fire-rated elements according to Section "Through- Penetration Firestop
Systems."
N. Ground shields of shielded cable at terminations, splices, and separable insulated connectors. Ground metal
bodies of terminators, splices, cable and separable insulated-connector fittings, and hardware.
A. Engage a qualified testing and inspecting agency to perform the following field tests and inspections and
prepare test reports.
B. Perform the following field tests and inspections and prepare test reports:
1. Perform each visual and mechanical inspection and electrical test stated in IEC. Certify compliance
with test parameters.
2. After installing medium-voltage cables and before electrical circuitry has been energized, test for
compliance with requirements.
PART 1 - GENERAL
A. Drawings and general provisions of the Contract, including General and Supplementary Conditions and all
general Specification Sections, apply to this Section.
1.2 SUMMARY
A. This Section includes cables and related splices, terminations, and accessories for low voltage electrical
distribution systems.
1.3 STANDARD
A. LV single and three core cables, armored or unarmored, conforming to IEC EN 60502-1.
C. Fire resistant low smoke, flame retardant cables to IEC 331 & IEC 332-1.
1.4 SUBMITTALS
A. Product Data: Include electrical characteristics, dimensions, installation method, supports, materials,
firestops, and weatherstops for each cable.
B. Shop Drawings: Installation details of LV cables including plans, elevations, sections, component details,
and attachments to other construction elements. Detail connections to switchboards and transformers.
Detail supports and connections to building.
C. Qualification Data: For firms and persons specified in "Quality Assurance" Article.
A. Testing Agency Qualifications: An independent agency with the experience and capability to conduct the
cables testing.
B. Source Limitations: Obtain cables and accessories through one source from a single manufacturer.
C. Electrical Components, Devices, and Accessories: Listed and labeled as defined in IEC 60502-1, by a testing
agency acceptable to authorities having jurisdiction, and marked for intended use.
1.6 COORDINATION
A. Set sleeves in cast-in-place concrete, masonry walls, and other structural components as they are
constructed.
1.7 WARRANTY
A. General Warranty: The special warranty specified in this Article shall not deprive the Owner ofother rights
the Owner may have under other provisions of the Contract Documents and shall be in addition to, and
run concurrent with, other warranties made by the Contractor under requirements of the Contract
Documents.
B. Special Warranty: A written warranty, signed by Contractor and manufacturer, agreeing to replace any
component of the LV cabling network that do not meet requirements or that fail within the specified
warranty period.
C. Warranty Period: 10 years from date of taking over certificate for any component of the system.
PART 2 - PRODUCTS
A. This specification covers single core, PVC insulated wires, intended for internal wiring in dry locations,
concealed in conduits.
B. Conductors shall be of high conductivity annealed plain copper with concentric stranded conductors, to
IEC EN 60228.
C. Minimum conductor size used shall not be less than 2.5 mm2.
D. All wires for lighting and power systems pulled inside conduits shall be single core, insulated with PVC
compound, of grade not less than 300 / 500 volts, to IEC EN 60227.
2.2 MULTI CORE POWER CABLES Cu/PVC/PVC & Cu/XLPE/PVC TO IEC EN 60502-1
A. Power cables shall be used for supply of power to main distribution boards, secondary distribution boards,
pumps, HVAC equipment and all external lighting and equipment.
B. This specification covers single, two, three or four core cables, PVC or XLPE insulated and PVC sheathed,
rated at 600V/1000 V unarmored and armored type.
C. Conductor shall be plain, annealed electrolytic copper, circular or sectorial stranded, conforming to the
applicable requirements of IEC EN 60228.
D. The insulation shall be PVC or XLPE based (as indicated on drawings) thermoplastic material conforming
to the applicable requirements of IEC EN 60502-1.
E. The assembly shall consist of insulated conductors filled where necessary with non-hygroscopic material and
covered with an additional layer of extruded thermoplastic material or non- hygroscopic binding tape.
F. The sheath shall be PVC based thermoplastic material, conforming to the applicable requirements of IEC
EN 60502-1.
A. The flexible cords used for the connection of fixtures to circuit wiring shall have finely stranded copper
conductor with PVC insulation, type NYFAF, 500V grade.
B. Cords used for water heater connections shall be of high conductivity tinned copper wires, (4 mm2 unless
otherwise indicated) insulated with ethylene propylene rubber, three cores twisted together, filled and
sheathed with chloro sulphonated polyethylene (EPR CSP), 300/500 V rated, and shall withstand an operating
temperature of 85°C.
C. Cords used for pendant lighting points and between 220 V / 12 V transformers to lighting fixtures, shall be
circular three core (1.5 mm 2) silicon rubber insulated, glass fiber braided 300/500 V rated and shall
withstand an operating temperature of 170°C.
D. Cords used for extract fans and fan coil units shall be of plain annealed copper conductor (2.5 mm2 unless
otherwise indicated), PVC insulated, circular three cores twisted together, PVC overall sheeted 300 / 500
V rated and shall withstand an operating temperature of 70°C.
A. Control cables where used underground direct burial shall comprise stranded annealed copper conductor of
minimum 2.5 mm2 cross-section insulated with high dielectric polyvinyl chloride, nylon sheathed with a
tape binder applied over the assembly, overall PVC jacketed Control cables shall comply with IEC EN
60502-1.
B. Number of conductors shall be equal to the maximum number of functions plus 20% spare.
C. Cable shall be 600 /1000V insulated and sheathed grade unless control cables are in dedicated containment
systems and signal voltage is less than 48 Volts. In the latter case the cables shall be rated for a nominal
voltage that exceeds the signal voltage by 50%.
D. Junction boxes shall include all necessary terminal connector boards with proper labels.
E. Contractor shall make sure that the cross-sectional areas of the conductors are sufficient to cater for the
voltage drop due to the long runs involved.
F. Control cables where used in ducts underground or in conduits above ground shall comprise stranded
annealed copper conductor of minimum 1.5 mm 2 cross-section for cables in ducts and 0.75 mm2 for cables
in conduits insulated with high dielectric polyvinyl chloride, and PVC sheathed. Control cables shall comply
with IEC EN 60502-1.
A. Description
a. Fire resistant cable 600/1000 Volts rated, for use where fire resistance, flame retardance and low
smoke and corrosive gas emission properties are required.
b. For power limited cables and emergency wiring terminal circuits, fire rated cables shallbe 300/500
V rated.
c. It shall provide uninterrupted power supply and preserve circuit integrity in the event of fire.
d. “X” x CSA mm2, plain or stranded Copper, Mica/Glass tape, cross-linked insulation andLSOH sheath
overall; rated 600/1000V.
a. The cable shall meet the requirements of IEC331 and BS6387 for categories C, W and Z (950°C for
3 hours, water spray test and mechanical shock test).
b. Compliant and certified to the integrated fire, shock and water test BS 8434-2 for 120minutes for
cables smaller than 20mm overall diameter and BS 8491 for cables with larger external diameter.
d. When the complete cable is tested in accordance with BS7622 Pt 2 (IEC1034-2) it shall meet the
minimum light transmittance requirements as stated in BS7622 Pt 2 (IEC 1034-2).
e. When tested in accordance with BS6425 Pt 1 (IEC754-1), all non-metallic components shall give a
level of HCI not greater than 0.5%.
C. Flame Retardance
The cable shall meet the requirements of BS4066 Pt 1 (IEC332 -1) and comply with BS6387 categories “Flame
Retardant”.
D. Certification
The cable shall be certified by an approved authority to comply with the standards andrequirements listed
herein.
E. Construction Conductors
1.0 mm2 to 630mm2. Plain copper stranded circular conductor complying with BS6360 Class 2.
F. Insulation
Mica/Glass Fire Resistant tape, covered by an extruded cross-linked insulation, complying with BS7655type
GP8 or type GP6, operating temperature 90°C. The cross-linked insulationshall prevent thermo- plastic flow
and give high short circuit withstand ratings.
G. Core identification
A. Installation
Cables should be installed in accordance with the appropriate regulations including IEC 364, IEE Wiring
regulations or any other national regulations.
Range and Availability Single core 1.0 - 630mm2 2 core 1.0 - 300mm2 3 core 1.0 - 300mm2
4 core 1.0 - 300mm2
7, 12, 19, 27 & 37 core 1.0 - 2.5mm2
Temperature Limits
The cables shall be suitable for operation in the range of -25°C to +90°C.
B. Quality Assurance
The cables shall be manufactured under a strict Quality Management System that is certified to meet the
requirements of ISO 9001.
N.B.:
Unless otherwise mentioned on the drawings or in the specification, all equipment dedicated for life safety
such as staircases air pressurization fans, parking smoke management fans, fire pumps, fire fighting
systems, voice evacuation systems, fire alarm and detection system, emergency lighting and emergency
motors/pumps shall be wiring using fire rated cables.
PART 3 - EXECUTION
A. All wires shall be installed in accordance with the applicable provisions of the approved codes and as
indicated on the Drawings.
B. The number of wires and sizes of conduits indicated on the Drawings is a guide only and are not necessarily
the correct number and sizes necessary for actual equipment installed. The Contractor shall install as many
wires and conduits as required and necessary for a complete electrical system, and shall provide adequately
for the equipment actually to be installed.
C. Where more than one conductor is used per phase, each phase, neutral if any and ground wires shall be run in
each metallic or non-metallic conduit.
D. Conductors shall be continuous from outlet to outlet and no splices shall be made except within outlet or
junction boxes.
E. At every outlet and pull box, wires and cables passing through shall be left slack by an amount equivalent
to 20 cm of cable length to allow inspection and connection to be made therein.
F. No cable bend shall have a radius of less than eight times its diameter.
G. The Contractor shall not change any circuit number, especially from a phase to a different phase. If such
a change is necessary due to modification on site, the Contractor shall bring this matter to the attention
of the engineer.
H. All conductors to be contained within a single conduit shall be drawn in at the same time.
I. A wire pulling compound shall be applied to conductors being drawn through conduit. Pulling compound
shall be soap tone or other approved material.
J. Only cables forming part of a lift installation if any may be run in a lift shaft.
K. Wires and cables for feeders, sub-feeders, control, and branch circuit wiring shall be color coded as per
IEC regulations.
L. Wire and cable sizes shall be as indicated on the Drawings; however, in no case shall their sizebe smaller
than required by the approved Code.
M. Unless otherwise indicated, no conductor for lighting and power wires shall be smaller than
2.5 mm2.
N. All branch circuits for internal lighting and appliances shall be single conductor cables run inside conduits, unless
otherwise indicated.
O. Feeder and sub-feeders shall be multi-conductor cables run exposed on cable trays or in underground
ducts as shown on the Drawings.
P. Single cables unless otherwise specified and shown on drawings, could be fixed directly to walls or ceilings.
Where 2 or more cables are run in parallel, they shall be fixed on hot dip galvanized steel perforated trays or
other approved special cable supporting and protecting arrangement.
Q. Cables shall be fixed to supporting structures with approved hot dip galvanized cast steel clamps at
distances not exceeding 20 diameters.
A. Apply firestopping to electrical penetrations of fire-rated floor and wall assemblies to restore original fire-
resistance rating of assembly according to Division 07 Section "Penetration Firestopping."
B. Individual conductor or circuit identification shall be carried throughout, with circuit numbers or other
identification clearly installed on terminal boards and printed on directory cards in distribution cabinets
and panel boards.
C. In junction boxes, cabinets, and terminal boxes where the total number of control, indicating, and
metering wires is three or fewer and no terminal board is provided, each wire including all power wires,
shall be properly identified by means of a plastic, wire marker.
D. Wires including motor leads and other power wires too large for connection to the terminal boards shall
be identified by wire markers as specified above.
E. In manholes, hand holes, pull boxes, junction boxes and at both terminals each cable shall be properly
identified by a plastic tag located so as to be easily seen. Wires and cables shall be identified by cable
number indicated on the Drawings.
A. For the wiring of circuits consisting of wire sizes 35 mm2 and smaller such as for lighting, branch circuits etc…,
self-insulated pressure cage clamp type connectors shall be utilized for all splices or joints. Where flexible
cables (NYFAF) are used from ceiling outlet box to recessed lighting fixtures, 3M caps shall be utilized.
B. For the wiring of circuits consisting of wire sizes 50 mm2 and larger, connectors shall be of the bolted
pressure type, with a pre-insulated sleeve shall be used.
C. Connectors shall be manufactured from high conductivity electrolytic copper with soft tin- lead
plating (Sn60Pb40).
A. Cable glands shall be provided at the termination of all cables at the enclosure of a distribution
board or any other equipment.
B. Cable glands shall be indoor or outdoor type, ordinary or weatherproof according to the
location of the termination and the installation standard and to the approval of the Engineer.
A. Cables tests are to be carried out in accordance with the requirements of the Regulations and
Standards.
B. Engage a qualified testing and inspecting agency to perform the field tests and inspections and
prepare test reports.
C. Test Equipment: Provide megger testers of various ranges as applicable. Use 500 V megger on
installations with nominal voltage up to 500 V, and 1000 V megger on installations with nominal
voltage over 500 V up to 1000 V.
D. Insulation resistance for LV power and lighting installations is to be carried out in accordance
with IEE Regulations 73-5 through 713-8 and 713-04
E. Insulation resistance for control and signal cables is to be minimum 10000 Megohm-Km for PE
insulated cables and 100 Megohm-Km for PVC insulated cables, all measured core-core and
core-earth, in accordance with the Regulations.
F. Prior to energization of circuitry, check installed wires and cables with megohm meter to
determine insulation resistance levels to ensure requirements are fulfilled.
G. Prior to energization, test wires and cables for electrical continuity and for short circuit.
H. Subsequent to wire and cable hook-ups, energize circuitry and demonstrate functioning in
accordance with requirements. Where necessary, correct malfunctioning units, and then retest
to demonstrate compliance.
PART 1 - GENERAL
A. Drawings and general provisions of the Contract, including General and Supplementary Conditions and
Specification Sections, apply to this Section.
1.2 SUMMARY
A. This Section includes the following types of control and signal transmission media:
1. Coaxial cable.
2. Twisted-pair cable.
3. Multiconductor control cable.
B. Related Sections include the following:
1. Division 26 Section "Basic Electrical Materials and Methods" for building wire used for control or
signal circuits.
2. Division 26 Section "Wires and Cables" for building wire used for control or signal circuits.
3. Division 26 Section "Identification of Electrical Systems" for identification tags andlabelling.
1.3 DEFINITIONS
A. PTFE: Polytetrafluoroethylene.
1.4 SUBMITTALS
A. Product Data: For control/signal transmission media.
B. Product Certificates: Signed by manufacturers of transmission media certifying that the products
furnished comply with requirements and that they have been coordinated with and accepted by
manufacturer of connected equipment.
C. Samples of each of the following cable types for approval:
1. Coaxial cable (1 for each type).
2. Twisted pair cable (1 for each type).
3. Multiconductor cable (1 for each type).
D. Maintenance Data: For transmission media to include in the maintenance manuals specified.
1.6 COORDINATION
A. Coordinate with and obtain review of cable characteristics and certification for use with the connected
system equipment by the connected equipment manufacturers.
1.7 WARRANTY
A. General Warranty: The special warranty specified in this Article shall not deprive the Owner of other rights
the Owner may have under other provisions of the Contract Documents and shall be in addition to, and run
concurrent with, other warranties made by the Contractor under requirements of the Contract Documents.
B. Special Warranty: A written warranty, signed by Contractor and manufacturer, agreeing to replace any
component of the LV cabling network that do not meet requirements or that fail within the specified
warranty period.
C. Warranty Period: 10 years from date of taking over certificate for any component of the system.
PART 2 - PRODUCTS
2.1
PART 3 - PRODUCTS
B. Multiconductor Cable: Quantity of conductors indicated; 1mm tinned-copper conductors; color-coded, low-
loss PVC insulation; aluminum/Mylar shield; No. 22 AWG tinned-copper drain wire; PVC jacket.
C. Twisted Pair: Quantity of twisted pairs indicated; 22 AWG, 0.55mm tinned-copper conductors; color-coded,
PVC insulation; overall aluminum/polyester shield (shielding where applicable); 0.5mm tinned-copper
drain wire; PVC jacket.
PART 4 - EXECUTION
4.1 EXAMINATION
A. Examine raceways and other elements to receive cables for compliance with requirements for
installation tolerances and other conditions affecting performance of transmission media. Do
not proceed with installation until unsatisfactory conditions have been corrected.
4.2 INSTALLATION
D. Install exposed cables parallel and perpendicular to surfaces or exposed structural members,
and follow surface contours where possible.
E. Support cables according to Division 16 Section "Basic Electrical Materials and Methods."
H. Bond shields and drains conductors to ground at only one point in each circuit.
K. Identify cables according to Division 16 Section "Basic Electrical Materials and Methods."
A. Copper Cable Testing Procedures: Inspect for physical damage and test cable for continuity and shorts. Use
time-domain reflectometer with strip-chart recording capability and anomaly resolution to within 12
inches (300 mm) in runs up to 1000 feet (300 m) in length. Test cable segments for faulty connectors,
splices, terminations, and the integrity of the cable and its component parts.
B. Replace malfunctioning cables at Project site, where possible, and retest to demonstrate compliance.
DIVISION: ELECTRICAL
SECTION H: LIGHTNING PROTECTION & EARTHING SPECIFICATIONS
INDEX
1. 0 Lightning Protection
2.0 Earthing
3.0 General Notes
1.0 General
1.1.1 Provide all labour, materials, products, equipment and services to supply and install testing commissioning
the lightning protection system as indicated on the drawings and specified in these specifications.
1.2.1 Provide a lightning protection system in accordance with BS EN 62305, BS 6651:1999 (Amendment 2005)
and IEC 61024 to protect the building structures and personnel from the risk of lightning strike.
1.2.2 All electrical installations shall be carried out in accordance with the best International Standards and Codes
of Practice specifically with the current issue of the IEE Regulations (BS 7671) and the requirements of the
local supply authority.
1.2.3 The entire installation shall be installed and tested in accordance with the relevant British and International
Standards and any requirements of the local supply authority.
1.3 Coordination
1.3.1 Co-ordinate the installation with the Contractor for providing down conductors within structural columns,
provision of earth pits, provision of test points and connection to the external cladding.
1.3.2 Ensure all penetrations through the waterproof membrane at raft slab level are coordinated with the
Contractor. Submit details and method statement of same to the Engineer for review.
1.4 Responsibilities
1.4.1 Where necessary, engage a specialist to undertake the design, installation, testing and commissioning of the
lightning protection system. This shall include:
1.4.2 Vertical and horizontal tape conductors.
1.4.3 Connection of the system to the structural steelwork and reinforcing bars.
1.4.4 Testing the whole system including connections to the building cladding.
1.4.5 Provision of test points and reference electrodes.
1.4.6 Miscellaneous bonds to structural steel work, lift guide rails, grilles, spire structure, glazing mullions using
bi-metallic clamps and other exposed metallic conductive parts.
1.4.7 Connection of the substation earth bar network to the lightning protection system.
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1.4.8 The Contractor shall provide continuous steel work and reinforcement bars with structural columns that are
used for down conductors and earth electrodes.
1.4.9 Test the pile steel work/reinforcement to ensure its electrically continuous.
1.4.10 The contractor shall provide pile cap / raft slab connection points for bonding the lightning protection
system.
1.4.11 The contractor shall provide connection points for bonding onto the building external cladding for
connection to the lightning protection system.
1.6 Products
General
i. Include for the supply and installation of all necessary components to provide a complete lightning
protective system as detailed in the following Specification Sections in order that the building(s) may be
protected against the effects of a lightning discharge in accordance with British Standard BS.6651:1999
(Amendment 2005). All the connection components must also comply to BSEN50164-1.
ii. The installation shall comprise air networks connected to roof and down conductors and final termination
to earth electrodes, via structural re-bars and suitable test points in the following Specification Section.
iii. Each Component shall be suitable for the application and as specifically detailed in the following
Specifications Sections.
iv. Conductor tape saddles shall be fixed to the walls by roundhead 37.5mm x No. 8 brass wood screws and raw
plugs, the saddles being spaced at not less than 1.00m intervals.
v. Bi-metal connections shall be provided between aluminium and copper interfaces and elsewhere as
necessary to avoid electrolytic action.
building. When the structure is higher than 20m in height, down conductors should be spaced at 10m intervals
around the building. For very structures, the “Rolling Sphere Method” should be applied to determine the
requirement of additional vertical air termination networks at vulnerable points of the building.
- Each down conductor should be connected individual earth electrodes.
- Include for the supply and delivery inspection pits, these to be handed over to the Contractor for installation. An
inspection pit shall be supplied for each earth termination. Heavy duty covers shall be suitable to withstand
vehicular traffic shall be provided for pits located in the roadway and car park areas. The lid of each pit shall be
lockable and jam free construction and supplied with appropriate key.
- Where electrode points are located internally within building floor slabs they shall comprise a suitable earth rod
water seal installed in the base of a pocket formed in the slab, with the pocket and associated cover.
- The body of each earth pit shall as a minimum comprise shatterproof, lightweight, polymer material with a high
resistance to chemical damage from such substances as petrol, oil, diesel, bitumen etc. Each unit shall include high
ultra-violet stability, wide temperature application and earth bar facility (where necessary) to permit multiple
earth tape connections to be made. Where these are not suitable concrete pits shall be provided.
- Double flange double sealed earth pit shall be provided in case the earth pit inside building basement or ground
&single flange single sealed earth pit for other case as shown in the drawings.
1.10 Execution
- All metallic projections, ducts, vent pipes, gutters, radio and television aerials, fan housings, window cleaning
equipment ant tracks etc, on or above the main surface of the roof structure shall be bonded to and from part of
the air termination network.
- No joints in either the down conductor or roof conductor shall be allowed other than at air terminal, earth
electrodes and terminal or test block positions.
- Where it is found that the resistance to earth at any test point is in excess of 10 ohms, the length and number of
earth electrodes shall be increased to the instructions of the Engineer, in order to comply with the requirements
of the British Standard. The resistance of each metallic conducting path, including all joints, shall not exceed 6%
of the calculated resistance of the copper tape itself. In addition, the resistance from the earth electrode to the
nearest test clamp shall not exceed 0.2 ohms.
- Upon completion of the works, submit a certificate of installation to the Engineer for review and approval.
- The Operating and Maintenance manuals shall be complete with system records to BS 6651 that includes the
following items as minimum;
As installed drawings
Nature of soil
Earth Resistivity measurement.
Earth electrode resistance.
Details of earth electrode types and locations
2.0 EARTHING
2. 1 General
2.1.1 Contractor has to supply , install testing & commissioning full earthing Systems as specified here & as per
authority rules& regulation .
2.1.2 All electrical installations shall be carried out in accordance with the best International Standards and codes
of Practice specifically with the current issue of the IEE Regulations (BS 7671) and the requirements of the
local supply authority.
2.1.3 The entire installation shall be installed and tested in accordance with the relevant British and International
Standards and requirements of the local supply authority.
2.1.4 British Standards BS 7430 Code of Practice for Earthing.
2.1.5 British Standards 6651:1999 (Amendment 2005) Code of Practice for Protection of Structures against
Lighting.
2.2 Coordination
2.2.1 Coordinate the location of earthing and bonding positions with the Contractor with respect to position of
earth electrodes, bonding of mechanical plant and equipment, bonding of incoming primary services and
connection to lightning protection system.
2.2.2 Coordinate timely provision of earth pits and connections onto structural steel reinforcing with the
Contractor.
2.2.3 Coordinate with DEWA for the provision of earth electrodes for substation earthing.
2.2.4 Coordinate the installation of all electrodes that penetrate the raft slab waterproof membrane with the
Contractor, and agree appropriate water proofing detail. Use Double Flange Earth seal for this purpose.
Submit same to the Engineer for review.
2.3 Products
2.3.1 The Contractor shall supply, install and connect all equipment necessary for an efficient earthing system. All
copper earthing cable terminations shall be tinned. All cables shall be PVC sheathed and coloured
Green/Yellow.
2.3.2 In general any circuit protective conductor shall have a cross-section not less than half of the largest line
conductor which is designed to protect. No main bonding or equipotential link conductor shall be less than
6.0 sq. mm. The supplementary bonding conductors will be subject to a minimum cross sectional area of 2.5
sq. mm.
2.3.3 The Contractor shall allow for the bonding to earth of the appropriate pipe work and ductwork of all other
services as necessary.
2.3.4 The interconnecting cables shall be carried out with a minimum 6.0 sq. mm. Copper PVC colored
green/yellow insulated, earth wire and earthing clips to comply with BS 951. Earth leads shall comprise of
the above cable.
2.3.5 All electrical equipment and apparatus and accessories in the installation shall be bonded effectively to earth
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by means of a standard copper conductor with PVC insulation the size of which shall be either calculated in
accordance with regulations 543-2 or selected in accordance with regulation 543-3.
2.3.6 Electrodes shall be 20 mm diameter 1200 mm long solid copper rods of suitable combined length when
driven to such a depth that they penetrate the lowest summer ground water table by not less than 1 meter.
Combinations of rods shall be driven to achieve the required value of resistance. Rods shall be complete
with connecting ferrules, driving caps and substantial brass tape clamps as required. Each rod forming part
of the system shall be housed at ground level in an earth pit. The earth clamps shall be triangular type.
2.3.7 Where a main earth is specified this shall consist of a number of specified earth rods driven into the ground.
These rods shall be connected to each other and to the main earth test point using triangular clamps fixed
to the head of each rod and earth tape. The earth tape shall be buried 750 mm below ground level and rise
vertically along side each rod to enter the clamp. Each rod shall have a concrete cover over it set in flush
with final ground level unless the earth rod is installed through the bottom of a cable manhole or draw-in-
pit, in which case the cover shall be permanently marked "Main Electrical Earth”.
2.3.8 Main switchboards shall be effectively bonded to an earth point by means of 70 sq. mm copper tape. The
connection of the tape to the earth point shall be made in a position and manner agreed by the Consultant.
A bolted link in this earthing tape shall be provided to facilitate testing.
2.3.9 The entire electrical installation, together with the armouring or metallic sheathing of all cables, shall be
electrically continuous throughout forming a completely bonded earth system.
2.3.10 all apparatus or parts thereof shall be solidly connected to the cable bonding system in an approved manner
by copper conductors secured by substantial bonding clamps. All conduits shall be effectively earthed. Earth
tapes or wires shall be used. All cable glands shall be complete with a brass earthing ring.
2.3.11 The earth pole and each box of switches, socket outlets and the metallic parts of lighting fittings shall be
effectively earthed by means of cables.
2.3.12 The Contractor has to provide ground continuity between outlet box and outlet ground lug by means of a
braided wire between outlet box and outlet grounding terminal. It is required to connect the ground lug on
all outlets to an insulated ground conductor that is to be run in the raceway with the power wires.
2.3.13 Conduit boxes shall be drilled and tapped to a suitable size not for earth connections by means of a cadmium
plated terminal type washer.
2.3.14 The Contractor will be responsible to install all earth leakage protection equipment that may become
necessary, for complying with chapter 54 of the IEE Regulations.
2.3.15 The earthing of all metal clad fittings and accessories and the earth contact pins of all three-pin sockets
outlet shall be established by the circuit protective conductor, or by the conduit or metal cable sheath,
assisted where necessary by sheathed copper earth wires.
2.3.16 each of the electrodes when tested separately shall have a resistance to the mass of earth not exceeding 1.0
ohm.
2.3.17 The Contractor shall test the resistance of the grounding system before the ground wires are connected to
the ground bus. Add additional ground wires and ground rods if required.
2.3.18 A report of test shall be submitted to Engineer and a Certificate that the system as installed meets the criteria
specified herein.
2.3.19 Electronic system surge protection shall be used for the, Incoming Main Power Supply, SMATV system .
2.3.20 The ESP shall be connected in parallel with the supply. ESP should be installed within the LVMDB by the
panel assembler& for SMATV dishes .
2.3.21 HRC Fuses shall be provided in the connecting leads as required by the Specialist.
2.3.22 ESP to have neutral earth warning light, to detect if there is excessive voltage present between natural and
earth.
2.3.23 Protection shall be tested in accordance with the requirement of :
- BS6651 : 1999 ‘Protection of Structures against lightning’ (Appendix C).
- BS2914 :1972 ‘Specification for surge diverters for alternating current power circuits’.
- IEEE C62.41 – 1991 ‘Recommended practice on surge voltage in low voltage AC Power circuits.’
2.5 Execution
2.5.1 It shall be noted that wherever conductors pass through walls of floors etc., they shall do so via an insulated
sleeve provided and installed under this Contract.
2.5.2 It shall also be noted that all trunking or trays containing ELV, communication or data/ shall be electrically
continuous and bonded at one single point (at the signal source). Earthing arrangements shall not form
networks or loops along the trunking or tray such that induced circulating currents can flow.
2.5.3 All cable glands shall be complete with a proprietary earthing tag from which a bond shall be extended to
the panel earth bar.
2.5.4 The earthing system shall be installed in accordance with all sections of the specification.
2.5.5 Installation to comply with requirements of specification and DEWA.
2.5.6 Provide dedicated CPC for every final sub-circuit as defined under Section 16125.
2.5.7 Provide as separate CPC for every cable – minimum size 50% size of phase conductors.
2.5.8 All conductors to be banded indicating which items they serve.
PART 1 - GENERAL
1.1 ELECTRICAL WORK GENERALLY: is to be in accordance with the requirements of Section 260000 of the
Specification.
1.2 DESCRIPTION OF WORK: raceways including conduits, wireways and related installations and accessories
necessary to support and protect cables, feeders, branch circuit wiring and wiring of low current systems,
communications and signal cables.
1.3 REGULATIONS AND STANDARDS: conduits, wireways, cables trays and fittings are to be designed,
constructed and installed to give safe installation and reliable mechanical protection for wires and cables in
accordance with the Regulations. Standards of products areto be as specified. Local production is
prohibited.
1.4 TECHNICAL DATA: submit data for approval including, but not limited to, the following:
A. Manufacturer’s catalogues with specifications of raceways including conduits, trunking etc… and related
accessories.
1.5 SHOP AND CONSTRUCTION DRAWINGS: submit drawings for approval including, but not limited to,
the followings:
A. Exact routing of conduits, trunking etc. With indication of boxes, accessories and expansion joints, size of
conduits and boxes.
D. Typical installation details including connection of conduits to metal enclosure. Connections of flexible
conduits, vapour- tight installations in cold rooms, liquid tight flexible metallic outdoors etc. and earthing
connections.
1. FLEXIBLE METAL CONDUIT: steel, cold rolled and annealed, non-threaded type, formed from
continuous length of helically wound and interlocked strip steel, with fused zinc coating on inside
and outside.
2. RIGID METAL CONDUIT: Black enameled or hot dipped galvanized, L= 3m, screwed on both ends to
applicable US or European Standards.
3. RIGID METAL CONDUIT WITH PVC COATING: Black enameled or hot dipped galvanized with PVC
coating, L= 3m, screwed on both ends to applicable US or European Standards.
4. LIQUID-TIGHT FLEXIBLE METALLIC CONDUIT: is to have PVC jacket extruded over core.
5. FITTINGS GENERALLY: thread less, hinged clamp type, hot dipped galvanized or cadmium plated
malleable cast iron. Fittings used in corrosive atmospheres are to be specially treated.
6. STRAIGHT CONNECTORS: one-piece body, female type, hot dipped galvanized or cadmium plated
malleable cast iron. Fittings used in corrosive atmospheres are to be specially treated.
7. ANGLE CONNECTORS: of 45 or 90 degree and terminal connectors are to be as specified for straight
connectors, except that body is to be two-piece with removable upper section.
1. MATERIAL: rigid un-plasticized, could form a bend with PVC accessories, polyvinyl chloride with
high impact and high temperature resistance, flame retardant, non- hygroscopic and non- porous,
compressive strength 750 N, to CEE 26, EN 50086, DIN 49026 or other equal and approved
standards conforming to IEC 423.
1. MATERIAL: flame retardant, heat resistant, non-hygroscopic PVC, high resistance to impact, plain
non corrugated construction.
A. USE: unless otherwise specifically indicated all light and power circuits, communications, signal and low
current systems wiring are to be drawn inside conduits or wireways up to the various electric power
consuming equipment as shown on the Drawings. Separate conduit and wireways installations are to be
used for LV cables/wires normal lighting and power circuits, emergency lighting and power circuits and
communication, signal and other low current systems wiring.
B. BOXES: junction, pull and splice boxes of ample capacity (with 30% spare at least) are to be provided as
indicated or required. Boxes are to remain permanently accessible. Minimum outlet, junction or pull box
depth to be 50mm clear. Boxes installed outdoors, unless fully embedded shall be metallic and painted to
prevent corrosion.
C. TOOLS AND ACCESSORIES: for forming and installing conduit and wireway systems are to be purpose made
for the particular application and used in accordance with manufacturer’s instructions.
E. SIZES: Unless otherwise specified conduits and wireways sizes, not shown on the Drawings, are to be selected
in accordance with the tables on design drawings and in relation to the number and size of conductors.
Minimum size of conduit for all applications is to be 20 mm diameter, unless otherwise shown on the
Drawings.
F. MECHANICAL CONTINUITY: conduits and wireways are to be effectively joined together (special cement) and
connected to electrical boxes, fittings and cabinets (glands) to provide firm mechanical assembly. Earthing
jumpers are to be installed on steel conduits where required to ensure effective electrical continuity
irrespective of whether a protective earth conductor is required or not.
A. RIGID MEDIUM GAUGE PVC CONDUIT: unless otherwise specified or mentioned on drawings or contradictory
to local codes; is to be used generally in underground, embedded in concrete slabs, in duct banks
installation for lighting, power and light current circuits.
B. FLEXIBLE MEDIUM GAUGE PVC CONDUIT: is to be used for lighting, power and light current circuits in
under tiles and walls installation unless otherwise specified or mentioned on the drawings. Those conduits
shall also be used in outdoor locations of projects in close proximity of the sea (within 1 Kilometer)
C. RIGID LIGHT DUTY (EMT) STEEL CONDUIT: is to be used in technical plant rooms (generator room, electrical
rooms, low current rooms, mechanical plant rooms, fuel rooms…etc) and unless embedded under 5cm of
concrete, for security systems (access control, CCTV) wiring including structured cabling connections and
all exposed locations in parking spaces below 225cm.
D. RIGID INTERMEDIATE METAL CONDUIT (IMT): is to be used for all above ground (unburied) outdoor
installations, for all systems; unless embedded under 5cm of concrete. All outdoor metallic conduits shall
be painted to prevent corrosion.
E. RIGID INTERMEDIATE METAL CONDUIT (IMT) WITH PVC COATING: is to be used in locations in close
proximity of the sea (within 1 Kilometer), for all above ground (unburied) outdoor installations, for all
systems; unless embedded under 5cm of concrete. All outdoor metallic conduits shall be with PVC coating.
1. Option 1: Conduits and specified in article 3.2E with Cu/PVC/PVC 0.6/1kV cables inside.
2. Option 2: Heavy Gauge PVC conduits as specified in article 3.2A but with compressionstrength > 1250
N in addition to armored Cu/PVC/SWA/PVC 0.6/1 kV cables inside.
G. FLEXIBLE STEEL CONDUIT: is to be used for connection to motors, vibrating and non rigidly fixed equipment and
fixtures installed in false ceiling.
H. FLEXIBLE LIQUID-TIGHT STEEL CONDUIT: is to be used, in rooms subject to ingress and at the outdoor
spaces, for connection vibrating and non-rigidly fixed equipment, lighting fixtures and where requested by
IEC-364.
I. EXPOSURE TO DAMAGE: conduit considered being subject to undue risk of damage by shock or corrosion is to
be brought to the attention of the Engineer.
K. CLEARANCES: install conduits at least 100 mm clear of and preferably above pipes of other non- electrical
services.
L. SLEEVES: obtain approval for positioning sleeves where conduits pass through reinforced concrete.
Additional openings may be allowed in finished slabs but are to be drilled and not broken. Fix sleeves
rigidly to maintain position and alignment during construction work.
M. EXPANSION FITTINGS: provide in each conduit run over 30 mm in length and at crossing of expansion joint
in structure.
N. WATERPROOF CONSTRUCTION: conduits are not to cross waterproof construction unless permitted by the
Engineer. Specially designed and approved fittings are to be used.
O. MAKE GOOD all holes for conduits passing through walls, floors and ceilings with cement orsimilar fire-
resisting material to full thickness.
P. BENDS: conduit runs between outlet, fitting and fitting or outlet and fitting are not to contain more than
the equivalent of 2 quarter bends (180 degree total).
Q. BENDING is to be made without damaging conduit or tubing and without reducing internal diameter.
Methods of field bending are to be approved.
S. CONDUITS ENTERING COLD STORES are to be made vapor tight, so that vapor from outsidecannot enter
conduit.
T. DRAINING: arrange conduits so that condensed moisture can drain to screwed plug at lowest point.
U. BEFORE WIRING, conduits are to be swabbed through. Do not draw cables into any section of system until
conduit and draw boxes are fixed in position.
V. CAPPING: conduits are to be properly capped until wiring conductors are drawn in.
W. CONDUITS AND FITTINGS INSTALLED OUTDOORS are to be watertight and highly resistant to corrosion.
Use appropriate fittings, threaded and hubbed boxes, gaskets with screw on coversand the like.
Y. LENGTH AND RADIUS OF FLEXIBLE CONDUIT used for motors and vibrating equipment is to permit bending
of feeder cables without damage to conductor or insulation.
Z. FLEXIBLE CONDUIT FOR SLIDE RAIL MOUNTED MOTOR is to have sufficient slack to allow for movement
of motor over entire slide rail length.
AA. PULLING WIRE: install 3 mm galvanized stranded steel wire or equivalent strength cord with wooden blocks
fastened at ends, in empty service conduits (power, low current and signal).
BB. STANDARD ELBOWS are to be used for conduit sizes equal or greater than 20mm.
CC. TAGS: fit to conduits entering or leaving floors, walls or ceilings for identification of conduit and circuits. Tags
are also to be placed at suitable intervals throughout the systems. Tags shall be approved by the engineer
and have their durability at least equal to those used for power feeders.
A. COUPLING OF CONDUIT and/ or termination into spouted fittings is to be made watertight and
permanent using special cement.
B. TERMINATION: connect conduits terminating in switchgear, panel boards, trunking, adaptable boxes or
non-spouted enclosures etc, with smooth bore male PVC bushes and sockets.
C. ENDS OF CONDUIT end conduit fittings are to be cleaned and jointed using PVC cement recommended
by manufacturer.
B. SUPPORTS: use approved clamps, hangers or clips fastened by machine screws to expansion
sleeves in inserts or to lead anchors.
C. SPACING OF CLAMPS OR CLIPS for supporting steel conduits is not to be greater than:
Conduit Size Maximum Spacing of Supports
mm (inches) meters
20 (3/4) 1.0 m
25 (1) 1.0 m
32-38 (1-1/4-1-1/2) 1.25 m
D. SPACING OF CLAMPS OR CLIPS for supporting PVC conduits is not to be greater than.
E. BENDS AND FITTINGS: firmly fasten conduit at each side of bends and within 900 mm of each outlet box,
junction box, cabinet or fitting.
F. OUTLETS: do not run more than one conduit to any surface wall outlet. Install junction box onhome run
near to ceiling level and tap-off vertical conduit to outlet box below.
A. Components are to include wireway base, clip-on covers, couplings, end plates, wall flanges, panel to
trunking rubber grommets, elbows, tees, adaptor plates and necessary hangers, supports and accessories.
B. Steel Trunking: To BS 4678 Part 1, galvanized sheet steel, minimum 1.5 mm thick, protected internally and
externally with corrosion resistant finish such as zinc or cadmium with top coat of enamel.
C. PVC Trunking: to BS 4678 Part 4, high impact, heavy duty, self-extinguishing, rigid PVC with grooved double
locking action of the clip-on cover. Design is to be approved by the Engineer before ordering materials.
Trunking is to be capable of receiving functional slot-in hangers and demountable separators to segregate
wiring systems as needed.
D. Sizes: As required to accommodate number of conductors permitted by the Regulations and/oras shown on
the Drawings.
A. Type: hot-dip galvanized sheet steel trunking and cover to BS4678 Part 1 for trunking and BS729 & BSEN550
– 1461 for galvanizing. For outdoor locations, cable trunking is to be painted to prevent corrosion.
B. Construction: Trunking is to have outwardly turned flanges to receive cover, and internal sleeve coupling
between sections, permitting cutting of trunking on site.
C. Gaskets: Neoprene bonded cork gaskets are to be fitted throughout, between any two attached surfaces.
D. Screws: Removable flanged covers are to be secured with galvanized steel holding screws.
E. Thickness is to meet or exceed the following table with supports calculations as per IEC 61537(to be fully
detailed and submitted for approval taking into account seismic constraints):
PART 1 - GENERAL
A. Drawings and general provisions of the Contract, including General and Supplementary Conditions and
Division 01 Specification Sections, apply to this Section.
1.2 SUMMARY
A. This Section includes mild steel cable trays and ladders with related accessories.
B. Cable trays and ladders systems are defined to include, but not limited to trays straight sections, covers
for cable trays (if required), bends, tees, elbows, drop-outs, supports and accessories.
C. Related specifications sections to include, but not limited to, the followings:
1. Division 7: Section “Through-Penetration Fire stop Systems” for fire stopping materials and
installation at penetrations through walls, ceilings and other fire rated elements.
2. Division 26: Section “Basic Electrical Requirements”: for trays supports not specified inthis section.
3. Division 26: Section “Raceways, Boxes and fittings”: Conduits, fittings and boxes for raceway
systems.
4. Division 26: Section “Wires, Cables and related accessories”: Cables and conductors.
5. Division 26: Section 260526 – Earthing System
6. Division 26: Section 260553 – Identification of Electrical Systems
1.3 SUBMITTALS
A. Product Data: submit manufacturer documents including, but not limited to, data on trays material types,
finishes, fittings, technical characteristics, test certificates, etc...
C. Coordination Drawings: Floor plans and sections, drawn to scale. Include scaled cable trays and ladders layout
and relationships between components and adjacent structural, electrical, and mechanical elements. Show the
following:
1. Vertical and horizontal offsets and transitions.
2. Clearances for access above and to side of cable trays.
3. Vertical elevation of cable trays above the floor or bottom of ceiling structure.
1.4 COORDINATION
A. Coordinate layout and installation of cable trays and suspension system with other construction that
penetrates ceilings or is supported by them, including light fixtures, low current and telecommunication
raceways, HVAC equipment, fire suppression system, and partition assemblies.
B. The drawings indicate the general routing of the cable tray systems. Data presented on drawings are as
accurate as preliminary planning can determine until final equipment selection is made. Field verification is
required.
C. Specifications and drawings are for assistance and guidance, but exact routing, locations, distance, and
levels will be governed by actual field conditions. Contractor must make field surveys as part of his work
prior to submitting system layout drawings.
D. Coordinate layout and installation of cable trays and suspension system with other construction that
penetrates ceilings or is supported by them, including light fixtures, low current and telecommunication
raceways, HVAC equipment, fire suppression system, and partition assemblies.
E. The drawings indicate the general routing of the cable tray systems. Data presented on drawings are as
accurate as preliminary planning can determine until final equipment selection is made. Field verification is
required.
F. Specifications and drawings are for assistance and guidance, but exact routing, locations, distance, and
levels will be governed by actual field conditions. Contractor must make field surveys as part of his work
prior to submitting system layout drawings.
A. Source Limitations: Obtain cable tray components through one source from a single manufacturer.
B. Electrical Components, Devices, and Accessories: Listed and labeled as defined in IEC EN 61537, by a testing
agency acceptable to authorities having jurisdiction, and marked for intended use.
C. Comply with:
1. IEC 61537 standard for installation, load testing, classification specifications, marking and
documentation;
2. IEC 61084 parts 1 & 2: standard channels and duct systems for electrical installations.
3. DIN 4102-12 standard for fire testing certification;
4. Electro-Magnetic Compatibility (EMC) recommendations;
5. EN ISO 1461 standard for cable trays hot dip galvanized after fabrication;
6. ISO 9001 certification for Quality Control / Quality Assurance (QA / QC);
D. Certificate of compliance from an independent testing and labelling agency for the standards listed above.
Agency shall be Western European (TUV or approved equal) or North American (UL)
A. Cable trays shall be stored indoors to prevent water or other foreign materials from staining oradhering to
cable tray.
B. Cable trays shall be loosely stacked, elevated off the ground, and ventilated to preventstaining during
storage.
PART 2 - PRODUCTS
3. Perforated type, made of carbon steel sheet grade DC01 Am as per EN 10130 and EN 10131
standards, having a U-profile section with (360°) safety shaped rolled flanges
and hot-dip galvanized after fabrication (perforation and bending) as per abovementioned EN ISO
1461 standard.
4.
5. Zinc coating thickness shall be according to above mentioned EN ISO 1461 standard specifications. Cable
trays shall be of appropriate design and thickness to provide a highmechanical strength enabling to
withstand a total weight of (main, secondary or terminal) cables of up to 90 kg/m according to the
distance between supports. The perforation must allow continuous aeration of the cables laid on,
providing a minimum opened area of 15% as per IEC 61537 class designation “C” (perforated type)
or of 30% as per IEC 61537 class designation “D” (basket type). Flange height shall not be less than48
mm unless otherwise indicated and shall be not less than 72mm where cables exceed 45mm as
overall diameter.
6.
7. Cable trays mounted outdoor shall be provided with a polyester coating (as per ASTM B633) above
the hot dip galvanized finish, to cope with the immediate proximity of thesea.
8. Sizes and Configurations: Refer to the design drawings for specific requirements for types,
materials, sizes, and configurations. However, when cables are running on cable trays with covers,
the contractor is to provide the latter with height greater than the overall external diameter of
the cables; as part of the tender and without extra cost.
A. APPLICATION
1. Suitable for indoor installation to support, store, and manage low current and electrical cables, either
overhead, under raised floor or mounted vertically on a wall.
A. Fittings: Tees, crosses, risers, elbows, and other fittings as indicated, of same brand, materials and finishes
as cable tray.
B. Covers: Solid type of same brand, materials and finishes as cable tray.
D. Cable tray supports and connectors, including bonding jumpers, as recommended by cable tray
manufacturer.
A. Lettering: 40-mm high, black letters on yellow background with legend "WARNING! NOT TOBE USED AS
WALKWAY, LADDER, OR SUPPORT FOR LADDERS OR PERSONNEL."
B. Materials and fastening are specified in Division 16 Section "Identification for Electrical Systems."
PART 3 - EXECUTION
3.1 EXAMINATION
A. Examine conditions at the job site where electrical work is to be performed to insure proper arrangement
and fit of the work. Start of work implies acceptance of job site conditions.
3.2 PREPARATION
A. Examine the Contract Drawings and specification in order to insure the completeness of the work required
under this Section.
B. Verify measurements and dimensions at the job site and cooperate in the coordination and scheduling of
the work of this Section with the work related trades, so as not to delay job progress.
C. Provide templates as required to related trade for location of support and anchorage items.
A. Comply with recommendations in IEC EN 61537. Install as a complete system, including all necessary
fasteners, hold-down clips, splice-plate support systems, barrier strips, hinged horizontal and vertical
splice plates, elbows, reducers, tees, and crosses. Take into account seismic constraints in sizing and
spacing of supports.
B. Cable trays shall be installed in a way enabling easy withdraw, installation and attachment of cables.
Coordination shall be ensured to prevent that other networks, such as ducts or pipes, make difficult the
access to the cable tray.
C. Pressurized water and waste water pipes shall be installed under the cable trays. Exceptional crossing with
pipes over the trays could be tolerated. Moreover, cable trays shall not be installed parallel below conduits
which may cause condensation, unless if special arrangements have been made to protect the cables from
condensation. Cable trays shall be installed at a sufficient distance from heating pipes, hot air ducts, and
smoke exhaust pipes, to prevent the cables from being heated to a detrimental temperature.
10. Manufacture center-hung support, designed for 60 percent versus 40 percent eccentric loading
condition, with a safety factor of
F. Make connections to equipment with flanged fittings fastened to tray and to equipment. Support cable
tray and ladder independent of fittings. Do not carry weight of trays on equipment enclosure.
G. Install expansion connectors where tray crosses building expansion joint and in cable tray and ladder runs
that exceed dimensions recommended in IEC EN 61537. Space connectors and set gaps according to
applicable standard.
J. Cable trays are not to span any space unsupported. Do not support cable trays from ductwork.
K. Earth continuity shall be ensured all over the layout of the cable trays by 16mm² earth continuity
connectors. The cable trays shall be grounded at the panel board termination. When a stripped copper earth
cable is supported by the cable tray, it shall be suspended to the cable tray edge with special hooks to
prevent from galvanic couples between steel and copper.
L. Seal penetrations through fire and smoke barriers according to Division 07 Section "Penetration Firestopping."
M. Sleeves for Future Cables: Install capped sleeves for future cables through firestop-sealed cable tray
penetrations of fire and smoke barriers.
N. Workspace: Install cable trays with enough space to permit access for installing cables.
O. When cable trays cross walls or partitions, covers must be provided to protect the cables.
P. When cable trays cross slabs, a cover up to the height of 2 meters above the finished floor level shall be
provided.
Q. After installation of cable trays is completed, install warning signs in visible locations on or near cable trays.
R. 30cm distance to be kept between two superposed cables trays in general cases and minimum 20cm for
crossing cases.
S. A distance of 30cm to be kept between LV & LC cable trays, and a distance of 150cm to be kept between MV
& LV cable trays.
A. Install cables only when cable tray and ladder installation has been completed and inspected.
B. Fasten cables installed on perforated trays and ladders with hot dip galvanized cast steel clamps for cables
sections equal or higher than 35mm 2 and with cable ties for the lowest sections. Tighten clamps only
enough to secure the cable, without indenting the cable jacket. Install cable ties with a tool that includes
an automatic pressure-limiting device.
C. On vertical runs, fasten cables to tray every 500 mm. Install intermediate supports when cable weight
exceeds the load-carrying capacity of the tray rungs.
E. Electrical and low current cables shall be installed on separate cable trays to avoid interference.
G. Unless otherwise indicated, cable trays shall be sized for a single layer for main, secondary andterminal
cables, with 30% of spare capacity at the completion of the works.
H. According to fire protection standards, cables supplying safety loads shall be laid on separate cable trays,
routed as far as possible from the normal cable trays.
3.5 CONNECTIONS
B. Install an insulated equipment grounding conductor with cable tray and ladder, in addition to those
required by IEC 364.
A. After installing cable trays and after electrical circuitry has been energized, survey for compliance with
requirements. Perform the following field quality-control survey:
1. Visually inspect cable insulation for damage. Correct sharp corners, protuberances in cable tray
and ladder, vibration, and thermal expansion and contraction conditions, which may cause or have
caused damage.
2. Verify that the number, size, and voltage of cables in tray do not exceed that permitted by IEC 364.
3. Verify that there is no intrusion of such items as pipe, hangers, or other equipment that could
damage cables.
4. Remove deposits of dust, industrial process materials, trash of any description, and any blockage of
tray ventilation.
5. Visually inspect each tray joint and each ground connection for mechanical continuity. Check bolted
connections between sections for corrosion. Clean and retorque in suspect areas.
6. Check for missing or damaged bolts, bolt heads, or nuts. When found, replace with specified
hardware.
7. Perform visual and mechanical checks for adequacy of cable tray and ladder grounding; verify that all
takeoff raceways are bonded to tray.
3.7 PROTECTION
PART 1 - GENERAL
1.1 SUMMARY
1.2 COORDINATION
A. Coordinate identification names, abbreviations, colors, and other features with requirements in the
Contract Documents, Shop Drawings, manufacturer's wiring diagrams, and the Operation and Maintenance
Manual, and with those required by codes and standards. Use consistent designations throughout Project.
B. Coordinate installation of identifying devices with completion of covering and painting of surfaces where
devices are to be applied.
C. Coordinate installation of identifying devices with location of access panels and doors.
D. Install identifying devices before installing acoustical ceilings and similar concealment.
PART 2 - PRODUCTS
A. Comply with ANSI A13.1 2007 for minimum size of letters for legend and for minimum length of color field
for each raceway and cable size.
C. Self-Adhesive Vinyl Labels: Preprinted, flexible label laminated with a clear, weather- and chemical-resistant
coating and matching wraparound adhesive tape for securing ends oflegend label.
D. Snap-Around Labels: Slit, pretensioned, flexible, preprinted, color-coded acrylic sleeves, with diameter
sized to suit diameter of raceway or cable it identifies and to stay in place by gripping action.
F. Self-Adhesive Vinyl Tape: Colored, heavy duty, waterproof, fade resistant; 50 mm (2 inches) wide;
compounded for outdoor use.
A. Color-Coding Conductor Tape: Colored, self-adhesive vinyl tape not less than 0.08 mm thick by 25 to 50
mm wide.
B. Marker Tapes: Vinyl or vinyl-cloth, self-adhesive wraparound type, with circuit identification legend
machine printed by thermal transfer or equivalent process.
C. Aluminum Wraparound Marker Labels: Cut from 0.35-mm thick aluminum sheet, with stamped, embossed,
or scribed legend, and fitted with tabs and matching slots for permanently securing around wire or cable
jacket or around groups of conductors.
D. Metal Tags: Brass or aluminum, 50 by 50 by 1.3 mm with stamped legend, punched for use with self-locking
nylon tie fastener.
E. Write-On Tags: Polyester tag, 0.38 mm thick, with corrosion-resistant grommet and polyester or nylon tie
for attachment to conductor or cable.
1. Marker for Tags: Permanent, waterproof, black ink marker recommended by tag manufacturer.
C. Warning label and sign shall include, but are not limited to, the following legends:
1. Multiple Power Source Warning: "DANGER - ELECTRICAL SHOCK HAZARD EQUIPMENT HAS
MULTIPLE POWER SOURCES."
2. Workspace Clearance Warning: "WARNING - AREA IN FRONT OF ELECTRICAL EQUIPMENT MUST BE
KEPT CLEAR FOR 915 MM."
A. Engraved, laminated acrylic or melamine plastic, minimum 1.6 mm thick for signs up to. 129sq. cm and
3.2 mm thick for larger sizes.
1. Engraved legend with [black letters on white face]
2. Punched or drilled for mechanical fasteners.
3. Framed with mitered acrylic molding and arranged for attachment at applicable equipment.
A. Adhesive Film Label: Machine printed, in black, by thermal transfer or equivalent process. Minimum
letter height shall be 10 mm.
B. Adhesive Film Label with Clear Protective Overlay: Machine printed, in black, by thermal transfer or
equivalent process. Minimum letter height shall be 10 mm. Overlay shall provide a weatherproof and
ultraviolet-resistant seal for label.
C. Self-Adhesive, Engraved, Laminated Acrylic or Melamine Label: Adhesive backed, with white letters on a
dark-gray background. Minimum letter height shall be 10 mm.
D. Engraved, Laminated Acrylic or Melamine Label: Punched or drilled for screw mounting. White letters on a
dark-gray background. Minimum letter height shall be 10 mm.
E. Stenciled Legend: In nonfading, waterproof, black ink or paint. Minimum letter height shall be25 mm.
A. Cable Ties: Fungus-inert, self-extinguishing, 1-piece, self-locking, Type 6/6 nylon cable ties.
1. Minimum Width: 5 mm.
2. Tensile Strength: 22.6 kg, minimum.
3. Temperature Range: Minus 40 to plus 85 deg C.
4. Color: Black, except where used for color-coding.
B. Paint: Paint materials and application requirements are specified in Division 9 painting Sections.
1. Exterior Concrete, Stucco, and Masonry (Other Than Concrete Unit Masonry):
a. Semigloss Acrylic-Enamel Finish: Two finish coats over a primer.
1) Primer: Exterior concrete and masonry primer.
2) Finish Coats: Exterior semigloss acrylic enamel.
2. Exterior Concrete Unit Masonry:
a. Semigloss Acrylic-Enamel Finish: Two finish coats over a block filler.
1) Block Filler: Concrete unit masonry block filler.
2) Finish Coats: Exterior semigloss acrylic enamel.
3. Exterior Ferrous Metal:
a. Semigloss Alkyd-Enamel Finish: Two finish coats over a primer.
1) Primer: Exterior ferrous-metal primer.
2) Finish Coats: Exterior semigloss alkyd enamel.
C. Fasteners for Labels and Signs: Self-tapping, stainless-steel screws or stainless-steel machinescrews with
nuts and flat and lock washers.
PART 3 - EXECUTION
3.1 APPLICATION
A. Raceways and Duct Banks More Than 600 V Concealed within Buildings: 100-mm wide black stripes on
250-mm centers over orange background that extends full length of raceway or duct and is 300 mm wide.
Stencil legend "DANGER CONCEALED HIGH VOLTAGE WIRING" with 75- mm high black letters on 500-mm
centers. Stop stripes at legends. Apply to the following finished surfaces:
1. Floor surface directly above conduits running beneath and within 300 mm of a floor that is in contact
with earth or is framed above unexcavated space.
2. Wall surfaces directly external to raceways concealed within wall.
3. Accessible surfaces of concrete envelope around raceways in vertical shafts, exposed in the
building, or concealed above suspended ceilings.
B. Accessible Raceways and Metal-Clad Cables More Than 600 V: Identify with "DANGER HIGH VOLTAGE" in
black letters at least 50 mm high, with snap-around labels. Repeat legend at 3-m maximum intervals.
C. Accessible Raceways and Metal-Clad Cables, 600 V or Less, for Service, Feeder, and Branch Circuits More
Than 30 A: Identify with orange snap-around label.
D. Accessible Raceways and Cables of Auxiliary Systems: Identify the following systems withcolor-coded,
[self-adhesive vinyl tape applied in bands],[snap-around, color-coding bands]:
1. Fire Alarm System: Red.
2. Fire-Suppression Supervisory and Control System: Red and yellow.
3. Combined Fire Alarm and Security System: Red and blue.
4. Security System: Blue and yellow.
5. Mechanical and Electrical Supervisory System: Green and blue.
6. Telecommunication System: Green and yellow.
7. Control Wiring: Green and red.
E. Power-Circuit Conductor Identification: For primary and secondary conductors 50mm 2 and larger in vaults,
pull and junction boxes, manholes, and handholes use metal tags. Identify source and circuit number of
each set of conductors. For single conductor cables, identify phase in addition to the above.
F. Branch-Circuit Conductor Identification: Where there are conductors for more than three branch circuits
in same junction or pull box, use metal tags. Identify each ungrounded conductor according to source and
circuit number.
G. Conductors to Be Extended in the Future: Attach write-on tags to conductors and list source and circuit
number.
H. Auxiliary Electrical Systems Conductor Identification: Identify field-installed alarm, control,signal, sound,
intercommunications, voice, and data connections.
1. Identify conductors, cables, and terminals in enclosures and at junctions, terminals, and pull
points. Identify by system and circuit designation.
2. Use system of marker tape designations that is uniform and consistent with system used by
manufacturer for factory-installed connections.
3. Coordinate identification with Project Drawings, manufacturer's wiring diagrams, and Operation
and Maintenance Manual.
I. Locations of Underground Lines: Identify with underground-line warning tape for power, lighting,
communication, and control wiring and optical fiber cable. Install underground-line warning tape for both
direct-buried cables and cables in raceway.
J. Warning Labels for Indoor Cabinets, Boxes, and Enclosures for Power and Lighting: Comply with 29 CFR
1910.145 and apply self-adhesive warning labels. Identify system voltage with black letters on an orange
background. Apply to exterior of door, cover, or other access.
1. Equipment with Multiple Power or Control Sources: Apply to door or cover of equipment including,
but not limited to, the following:
a. Power transfer switches.
b. Controls with external control power connections.
2. Equipment Requiring Workspace Clearance According to NFPA 70: Unless otherwise indicated, apply to
door or cover of equipment but not on flush panel boards and similar equipment in finished spaces.
K. Instruction Signs:
1. Operating Instructions: Install instruction signs to facilitate proper operation and maintenance of
electrical systems and items to which they connect. Install instruction signs with approved legend
where instructions are needed for system or equipment operation.
2. Emergency Operating Instructions: Install instruction signs with white legend on a red background
with minimum 10-mm high letters for emergency instructions atequipment used for power transfer
and load shedding.
L. Equipment Identification Labels: On each unit of equipment, install unique designation label that is
consistent with wiring diagrams, schedules, and Operation and Maintenance Manual. Apply labels to
disconnect switches and protection equipment, central or master units, control panels, control stations,
terminal cabinets, and racks of each system. Systems include power, lighting, control, communication,
signal, monitoring, and alarm systems unless equipment is provided with its own identification.
1. Labeling Instructions:
a. Indoor Equipment: Engraved, laminated acrylic or melamine label. Unless otherwise
indicated, provide a single line of text with 13-mm high letters on 38- mm high label; where
2 lines of text are required, use labels 50 mm high.
b. Outdoor Equipment: Engraved, laminated acrylic or melamine label.
c. Elevated Components: Increase sizes of labels and letters to those appropriate for viewing
from the floor.
2. Equipment to Be Labeled:
a. Panelboards, electrical cabinets, and enclosures.
b. Access doors and panels for concealed electrical items.
c. Electrical switchgear and switchboards.
d. Transformers.
e. Electrical substations.
f. Emergency system boxes and enclosures.
g. Motor-control centers.
h. Disconnect switches.
i. Enclosed circuit breakers.
j. Motor starters.
k. Push-button stations.
l. Power transfer equipment.
m. Contactors.
n. Remote-controlled switches, dimmer modules, and control devices.
o. Battery inverter units.
p. Battery racks.
q. Power-generating units.
r. Voice and data cable terminal equipment.
s. Master clock and program equipment.
t. Intercommunication and call system master and staff stations.
u. Television/audio components, racks, and controls.
v. Fire-alarm control panel and annunciators.
w. Security and intrusion-detection control stations, control panels, terminal cabinets, and
racks.
x. Monitoring and control equipment.
y. Uninterruptible power supply equipment.
z. Terminals, racks, and patch panels for voice and data communication and for signal and
control functions.
3.2 INSTALLATION
B. Location: Install identification materials and devices at locations for most convenient viewing without
interference with operation and maintenance of equipment.
C. Apply identification devices to surfaces that require finish after completing finish work.
D. Self-Adhesive Identification Products: Clean surfaces before application, using materials and methods
recommended by manufacturer of identification device.
E. Attach nonadhesive signs and plastic labels with screws and auxiliary hardware appropriate tothe location
and substrate.
F. System Identification Color Banding for Raceways and Cables: Each color band shall completely encircle cable
or conduit. Place adjacent bands of two-color markings in contact, side by side. Locate bands at changes
in direction, at penetrations of walls and floors, at 50- foot (15-m) maximum intervals in straight runs, and
at 25-foot (7.6-m) maximum intervals in congested areas.
G. Color-Coding for Phase Identification, 600 V and Less: Use the colors listed below forungrounded service,
feeder, and branch-circuit conductors.
1. Color shall be factory applied.
2. Colors for 220/380-V Circuits:
a. Phase A: Brown.
b. Phase B: Black.
c. Phase C: Orange.
d. Neutral: Light Blue.
e. Ground (PE): Green-Yellow.
3. Alternative colors for 220/380-V Circuits:
a. Phase A: Red.
b. Phase B: Yellow.
c. Phase C: Blue.
d. Neutral: Grey.
e. Ground (PE): Green-Yellow
4. Field-Applied, Color-Coding Conductor Tape: Apply in half-lapped turns for a minimum distance of
150 mm from terminal points and in boxes where splices or taps are made. Apply last two turns of
tape with no tension to prevent possible unwinding. Locate bands to avoid obscuring factory cable
markings.
H. Metal Tags: Secure tight to surface of conductor or cable at a location with high visibility and accessibility.
I. Underground-Line Warning Tape: During backfilling of trenches install continuous underground-line warning
tape directly above line at 150 to 200 mm below finished grade. Use multiple tapes where width of multiple
lines installed in a common trench or concrete envelope exceeds 400 mm (16 inches) overall.
J. Painted Identification: Prepare surface and apply paint according to Division 9 painting Sections.
PART 1 - GENERAL
1.2 SUMMARY
A. This Section includes time switches, photoelectric relays, occupancy sensors, and multipole lighting relays
and contactors.
1.3 SUBMITTALS
A. Product Data: Include dimensions and data on features, components, and ratings for lighting control
devices.
B. Samples: Occupancy sensors for color selection and evaluation of technical features.
C. Field Test Reports: Indicate and interpret test results for compliance with performance re- quirements.
D. Maintenance Data: For lighting control devices to include in maintenance manuals.
1.5 COORDINATION
A. Coordinate features of devices specified in this Section with systems and components speci- fied in other
Sections to form an integrated system of compatible components. Match com- ponents and
interconnections for optimum performance of specified functions.
1.7 WARRANTY
A. General Warranty: The special warranty specified in this Article shall not deprive the Owner of other rights
the Owner may have under other provisions of the Contract Documents and shall be in addition to, and
run concurrent with, other warranties made by the Contractor un- der requirements of the Contract
Documents.
B. Special Warranty: A written warranty, signed by Contractor and manufacturer, agreeing to replace any
lighting control device or component that do not meet requirements or that fail within the specified
warranty period.
1. Warranty Period: 1 year from date of taking over certificate for any component of the system.
1.8 MANUFACTURERS
A. Available Manufacturers: Subject to compliance with requirements, manufacturers offering products that
may be incorporated into the Work include, but are not limited to, the follow- ing:
B. Retain above for nonproprietary or below for semiproprietary Specification. Refer to Divi- sion1 Section
"Materials and Equipment."
C. Manufacturers: Subject to compliance with requirements, provide products by one of the manufacturer
listed in Annex A
PART 2 - PRODUCTS
A. Description: Solid-state programmable units with alphanumeric display complying with IEC or BS standards.
1. Digital dial.
2. Two contacts (one NO and the other NC), rated 30 A at 220-V ac, unless otherwise in- dicated.
3. Two pilot-duty contacts (one NO and the other NC), rated 2 A at 220-V ac, unless oth- erwise
indicated.
4. Seven-day program uniquely programmable for each weekday and holidays.
5. Skip-day mode.
6. Battery backup for 100 hours.
2. Manual Override Switch: Turns lights OFF or ON manually regardless of elapsed timedelay.
3. Ambient-Light-Level Control: Adjustable for setting a level of ambient illumination above which
sensor will not turn lights on when occupancy is sensed.
4. Isolated Relay Contact: Operates on detection of occupancy or vacancy, as indicated, to activate an
independent function.
2. The programmable control relays shall be able to be implemented for special control systems in
conservatories or greenhouses, for control signal processing.
3. The programmable control relays shall be equipped with an expansion interface that allows at least
30 ready to use basic and special functions for creating programs.
4. Each programmable control relay shall include two expansion interfaces for connecting additional
modules.
5. The programmable control relays shall be available in different main and expansion modules that
offer structures and precise adaptation to the specific tasks.
6. Every basic main programmable control relays unit shall be able to be expanded with expansion
modules of the same voltage class. Mechanical encoding (pin in the hous- ing) shall prevent
interconnection of devices of different voltage classes.
A Technical Data
A.1 General Technical Data
Criterion Complies with Values
Main Programmable Control Relay:
Installation on a 35 mm profile rail 4 module widths
or wall mounting
Information on safety
Measurement of clearance IEC 60664, Fulfilled
and creepage distance IEC 61131-2,
EN 50178 UL 508, CSA
C22.2 No.142 VDE 0631
Power supply
Input voltage 115/240 V AC/DC 115/240 V AC/DC
Permissible range 85 ... 253 V AC 85 ... 253 V AC
Permissible mains frequency ... 63 Hz 47 ... 63 Hz
47
Power consumption
115 V AC 10 ... 30 mA 10 ... 30 mA
240 V AC 10 ... 20 mA 10 ... 20 mA
Voltage failure buffering
115 V AC/DC typ. 10 ms typ. 10 ms
240 V AC/DC typ. 20 ms typ. 20 ms
Power loss at
115 V AC 1.1 .... 3.5 W 1.1 .... 3.5 W
240 V AC 2.4 .... 4.8 W 2.4 .... 4.8 W
Buffering the clock at 25 °C typ. 80h
Accuracy of the real–time max. ±5 s / Tag
clock
Digital inputs
Number 8 4
Electrical isolation No No
Input voltage L1
Signal 0 < 40 V AC < 40 V AC
Signal 1 > 79 V AC > 79 V AC
Signal 0 < 30 V AC < 30 V AC
Signal 1 > 79 V AC > 79 V AC
Input current at
Signal 0 < 0.03 mA < 0.03 mA
Signal 1 > 0.08 mA > 0.08 mA
Delay time at
0 to 1 typ. 50 ms typ. 50 ms
1 to 0 typ. 50 ms typ. 50 ms
Line length (unshielded) 100 m 100 m
Digital outputs
Number 4 4
Output type Relay outputs Relay outputs
Electrical isolation Yes Yes
In groups of 1 1
Activation of digital input Yes Yes
Continuous current Ith Max. 10 A per relay max. 10 A per relay and max. 20 Aacross
all 4 relays
Incandescent lamp load(25,000 switching cycles) at:
230/240 V 1000 W 1000 W
115/120 V 500 W 500 W
Fluorescent tubes withchoke 10 x 58 W (at 230/240 V 10 x 58 W (at 230/240 V AC)
(25,000 switching cycles) AC)
Derating none; across the total none; across the total temperaturerange
temperature range
Parallel switching of outputsNot permitted Not permitted
to increase power
Protection of output relay (if max. 16 A, max. 16 A,
desired) characteristic B16 characteristic B16
Switching rate
Mechanical 10 Hz 10 Hz
Ohmic load/lamp load 2 Hz 2 Hz
Inductive load 0.5 Hz 0.5 Hz
PART 3 - EXECUTION
3.1 INSTALLATION
A. Install equipment level and plumb according to manufacturer's written instructions.
B. Mount lighting control devices according to manufacturer's written instructions and require- ments of
"Basic Electrical Requirements."
C. Mounting heights indicated are to bottom of unit for suspended devices and to center of unit for wall-
mounting devices.
3.3 IDENTIFICATION
A. Identify components, power and control wiring according to Division 16 Section "Basic Electri- cal Materials
and Methods."
B. Identify components, power and control wiring according to Division 16 Section "Electrical Identification."
A. Schedule visual and mechanical inspections and electrical tests with at least seven days' ad-vance notice.
B. Inspect control components for defects and physical damage, testing laboratory labeling, andnameplate
compliance with the Contract Documents.
C. Check tightness of electrical connections with torque wrench calibrated within previous sixmonths. Use
manufacturers recommended torque values.
D. Verify settings of photoelectric devices with photometer calibrated within previous sixmonths.
E. Electrical Tests: Use particular caution when testing devices containing solid-state components. Perform
the following according to manufacturer's written instructions:
1. Continuity tests of circuits.
2. Operational Tests: Set and operate devices to demonstrate their functions and capabilities in a
methodical sequence that cues and reproduces actual operating functions.
a. Include testing of devices under conditions that simulate actual operational conditions.
Record control settings, operations, cues, and functional observations.
F. Correct deficiencies, make necessary adjustments, and retest. Verify that specified requirements are met.
G. Test Labeling: After satisfactory completion of tests and inspections, apply a label to testedcomponents
indicating test results, date, and responsible agency and representative.
H. Reports: Written reports of tests and observations. Record defective materials and workmanship and
unsatisfactory test results. Record repairs and adjustments.
3.2 CLEANING
A. Cleaning: Clean equipment and devices internally and externally using methods and materials recommended
by manufacturers, and repair damaged finishes.
3.3 DEMONSTRATION
PART 1 - GENERAL
A. Drawings and general provisions of the Contract, including Conditions of Contract and Division 1
Specification Sections, apply to this Section.
1.2 SUMMARY
A. This Section includes distribution and power transformers with medium-voltage primaries.
B. Related Sections include the following:
1. Division 26 Section "Basic Electrical Materials and Methods".
2. Division 26 Section "Secondary Unit Substations" for transformers integral to substations.
3. Division 26 Section "Busways" for busway connections between transformers and secondary distribution
equipment.
4. Division 26 Section "Medium-Voltage Cables" for cable terminations at transformers.
5. Necessary interfaces for connection to BMS system, including interface elements such as relays,
transducers, wiring, etc. as detailed in Division 15 Specifications, BMS schedules and /or shown on the
Drawings.
1.3 SUBMITTALS
A. Product Data: Include full technical data on features, components, ratings, and performance for each type
of transformer specified. Include dimensioned plans, sections, and elevation views. Show minimum
clearances and installed devices and features. Submit Manufacturers' catalogues.
B. Wiring Diagrams: Detail wiring and identify terminals for tap changing and connecting field installed wiring.
C. Product Certificates: Signed by manufacturers of transformers certifying that the products furnished comply
with requirements.
D. Type Test Certificates: Submit to verify compliance of main equipment with the relevant IEC Standards.
E. Routine Tests: Each transformer unit is to undergo routine tests at the manufacturer's works in accordance
with the relevant standards. Submit routine test reports, prior to shipping equipment, indicating ambient test
conditions and guaranteed rating of equipment under site conditions.
F. Shop and Construction Drawings: Submit drawings for approval including, but not limited to, thefollowing:
1. Plans and elevations, with dimensions and weights.
2. Arrangement of equipment and general layouts.
3. One-line diagram of power system.
4. Foundation details, grouting holes and installation details.
H. Field Test Reports: Indicate and interpret test results for compliance with performance
requirements.
B. Standards: Equipment and component parts are to comply with the following Standards:
1.Common clauses for HV switchgear and control gear standards: IEC 60094.
2.Power transformers: IEC 60076, 60354, 60726.
3.Insulating oil: IEC 60296.
1.5 WARRANTY
A. General Warranty: The special warranty specified in this Article shall not deprive the Owner
of other rights the Owner may have under other provisions of the Contract Documents and
shall be in addition to, and run concurrent with, other warranties made by the
Subcontractor under requirements of the Contract Documents.
C. Revise warranty to period required and verify availability. Period below is maximum
included with manufacturer's published data for the default-battery type
D. Warranty Period: 2 years from date of taking over certificate for any component of the
system.
A. Temporary Heating: For indoor, dry-type transformers, apply temporary heat according to
manufacturer's written instructions within the enclosure of each ventilated-type unit
throughout periods during which equipment is not energized and is not in a space that is
continuously under normal control of temperature and humidity.
1.7 COORDINATION
A. Coordinate layout and installation of transformers with other construction.
B. Coordinate size and location of concrete or mounting bases. Concrete, reinforcement, and
formwork requirements are specified in Division 3 Section "Cast-in-Place Concrete."
PART 2 – PRODUCTS
2.1 MANUFACTURERS
A. TYPE:
1.3-phase MV/LV transformer, indoor type, two winding, low loss, solvent less cast epoxy
resin, windings, with minimum class F insulation for LV and MV windings, rated for continuous
operation under worst site ambient conditions at full load, and complying with IEC 60726.
Winding temperature rise is not to exceed 80 deg. C over an ambient temperature of 40deg.C
for class F insulation.
B. STANDARDS:
1. These transformers shall be conform to the following standards
a. BS EN 60076:1997
b. BS 171: 1978
c. BS 7806: 1995
d. IEC 76-1 to 76-5
e. IEC 726: 1982 edition + modification No. 1 dated February 1986
f. CENELEC Harmonization Documents:
HD 464 S1: 1988 + / A3: 1992 for dry-type power transformers
HD 538-1 S1 : 1992 for three-phase dry-type distribution transformers 60Hz, from 100 to 2500
kVA with highest voltage for equipment not exceeding 24 kV.
g. IEC 905: 1987 - Loading guide for dry-type power transformers.
2. These transformers shall be manufactured in accordance with a quality system inconformity with
ISO 9001 certified by an accredited independent organization.
C. DESCRIPTION
1. Magnetic Core
a. The core shall be made from laminations of grain oriented silicone steel, insulated with mineral oxide
and shall be protected against corrosion with a coat of varnish.
2. LV Windings
a. The LV windings shall be made from copper sheets in order to reduce the axial stresses under short
circuit. The low voltage copper winding shall have a class F interlayer insulation by encapsulation
with synthetic alkyd resin.
b. The process shall guarantee an excellent resistance to aggressive industrial atmospheres and
excellent dielectric properties.
3. HV Windings
a. The HV windings shall be independent of the LV windings and shall be wound from insulated copper
wire.
b. The high voltage winding shall be vacuum cast in a class F system. The combination of the winding
and casting processes detailed herein shall provide very high dielectric properties with a very low
partial discharge level.
4. HV Casting System
a. The HV windings shall be vacuum cast in a class F fireproof epoxy resin casting system composed of:
Bisphenol based epoxy resin with a suitable viscosity such that excellent impregnation of
windings is provided;
An anhydride hardener with a flexiblishing additive. The anhydride hardener shall provide very
good thermal and mechanical properties. The flexiblishing additive shall provide the casting
system with the elasticity necessary to prevent cracking during the casting operation.
Flame-retardant filler. The active powdered filler shall be composed of silica and trihydrated
alumina; thoroughly mixed with the resin and the hardener. The flame retardant filler shall
guarantee the MV/LV transformers’ intrinsic fire performance by producing three fire preventing
effects which occur in the case of the calcination of the casting system (when the transformer is
exposed to flames):
o refracting shield of alumina,
o barrier of water vapor,
o temperature held below the fire point
b. The result of the combination of the fire preventing effects is an immediate self extinguishing of the
dry type cast resin cast transformer. In addition to its dielectric and self extinguishing qualities, the
casting system shall provide environmental protection against industrial atmospheres.
5. HV Connections
a. Generally, the HV connections shall be from above, on the top of the connection bars. Each bar shall
be drilled with an adequate hole ready for the connection of cable lugs on terminal plates. The HV
connection bars shall be rigid copper bars protected by heat shrinkable tubing.
b. To accommodate for the bottom entry of the HV cable (in the present project) a 3 pole air insulated
cable box with pilot holed gland plate suitable for the reception of the specified cable shall be
provided.
6. LV Connections
a. Generally, the LV connections shall be made from above onto bars located at the top of the coils on
the opposite side to the HV connections. Connection of the LV neutral shall be directly made to the
LV terminals between the LV phase bars.
b. To accommodate to the bus-bars (busduct) connections on the LV side of the transformer (in the
present project) a 4 pole air insulated open throat bus-bar chamber suitable for horizontal or vertical
incoming bus-bars shall be provided.
7. HV Tappings
a. The tappings which act on the highest voltage, adapting the transformer to the real supply voltage
value, shall be off-circuit bolted links. The bolted links shall be attached to the HV coils.
D. EQUIPMENT
1. The MV/LV resin cast transformers shall be equipped with:
a. Flat bi-directional rollers.
b. Lifting lugs
c. haulage holes on the under-base
d. Cooling fans and fans control panel suitable for avoiding the derating of the nominal power (kVA
rating) of the transformer due to the ambient temperature (up to 50 °C). The cooling system shall
have a separate power supply.
e. 2 earthing terminals
f. rating plate on the front face of the HV side
g. "Danger Electricity" warning label (T 10 warning)
h. routine and other tests required in the specifications certificates
i. instruction manual for installation, commissioning and maintenance
E. THERMAL PROTECTION
1. The transformers shall be equipped with a thermal protection device which includes:
a. 2 sets of 3 PTC sensors, one sensor for "Alarm 1", one for "Alarm 2" per phase, installed in the LV coils
of the transformer. These shall be placed in a capillary tube to enable their easy replacement if ever
necessary.
b. An electronic converter with two independent monitoring circuits equipped with a changeover
switch, one for "Alarm 1" the other for "Alarm 2". The position of the relays shall be indicated by
different colored indicator lights. A third indicator light shall indicate the presence of voltage. The
three indicator lights shall be on the front of the converter. The electronic converter shall be installed
away from the transformer, in a suitable location within the transformer room (or the LV main
protection panel of the transformer). The relays for Alarm 1, Alarm 2 and Voltage presence shall
provide a monitoring connection to the BMS system by means of dry contacts wired to digital inputs.
c. A terminal board with plug-in connectors for connection of the PTC sensors to the electronic
converter.
2. The PTC sensors shall be non-adjustable and set for:
a. Alarm signal at 140ºC,
b. Trip signal at 150ºC.
F. METAL ENCLOSURE
1. The MV/LV transformers should be able to be equipped with an integral ventilated sheet steel
enclosure for indoor installation having an ingress protection rating of IP 31 (except the base which
may be IP 215) and incorporating:
a. An anti-corrosion protection.
b. Lifting lugs enabling the transformer and enclosure assembly to be handled.
c. A bolted access panel on the enclosure front to allow access to the HV connections and to the
tappings. This will be fitted with handles, it will have one "Danger Electricity" warning label, a rating
plate and braid for earthing.
d. 2 un-drilled gland plates on the enclosure roof, one on the HV side, one on the LV side.
G. OPTIONAL ITEMS
1. Bottom Entry LV Connections: a 4 pole air insulated cable box with pilot holed gland plate suitable for
the reception of bottom feed single core cables.
2. Mechanical castell interlock fitted to the removable bolted access panel.
3. Dial type winding temperature indicator with maximum pointer without contacts (withtwo sets of
contacts).
4. Digital winding (phase by phase) temperature indicator with contacts (separate power supply source
required).
H. ELECTRICAL TESTS
1. The tests shall be conducted as defined in the Harmonization Document HD 464 S1:1988,the IEC 726
and IEC 76-1 to 76-5 standards.
2. Routine Tests
a. The routine tests shall be carried out on all transformers after manufacture, enablingan official
test certificate to be produced for each one:
measurement of windings resistance
measurement of the transformation ratio and vector group
measurement of impedance voltage and load loss
measurement of no load loss and no load current
applied voltage dielectric test
induced voltage dielectric test
measurement of partial discharges
b. For the measurement of the partial discharges, the acceptance criterion shall be: Partial discharges
less than or equal to 10 pC at 1.10Um. If Um > 1.25 Un (Un = rated voltage, Um = system highest
voltage), then 10 pC are guaranteed at 1.375 Un.
3. Required Type Tests
a. Temperature rise test carried out in accordance with the stimulated loading method as defined by
IEC 726.
b. Noise level measurements in accordance with IEC 551
4. Optional Type Tests or Special Tests
a. The engineer shall be able to request the following additional tests from the supplier asan option:
lightning impulse test
short circuit test
extinguishing of the fire must occur within 60 minutes following the start of the special test in
accordance with appendix Z.C.3 of CENELEC HD 464 S1; materials must be free from halogens; emission
of toxic substances and thick smoke must be reduced to a minimum).
5. The manufacturer shall provide test reports from an accredited laboratory on a transformer of the
same design as those tendered, proving each transformer is compliant to Classes C2, E2 and F1
simultaneously (i.e. the same tested transformer shall successfully undergo all the tests). The tests shall
be conducted in accordance with appendix ZC of CENELEC HD 464 S1:1988/A3:1992.
J. J. ELECTRICAL CHARACTERISTIC
1. Three Phase MV/LV Cast Resin Distribution Transformers : 1600 KVA
2. Rated primary voltage :11KV
3. Rated insulation level:12KV
4. Frequency: 50 Hz
5. Maximum ambient temperature : 40°C
6. Secondary voltage: 400V between phases, 230 V phase to neutral
7. HV tapping range (off-circuit): ± 2.5 %
8. Vector group: Dyn 11 (delta, star neutral brought out)
PART 3 – EXECUTION
3.1 INSTALLATION
A. Locations and Layout: Exact locations and physical layout of equipment and components may
be varied as required to suit manufacturer's design and as approved, provided the required
functions and operations are accomplished; follow the identification of the units indicated on
Drawings exactly to ease checking and building maintenance procedures.
B. Equipment Bases: Ensure that concrete bases and foundations provided for installation of
equipment are constructed in accordance with approved shop and construction drawings and
equipment manufacturers' drawings and that holes for fixing bolts and provisions for passage
of cables etc. are provided as required.
C. Cable Trenches: Ensure that trench construction and covers provided for installation of
power and control cables are in accordance with approved shop and construction drawings.
D. Built-In Items: Ensure that equipment supports, fixings and the like, and sleeves for passage
of feeders and cables which are to be built into concrete foundations, bases, cable trenches
or building structure are provided as and when required and that they are properlyinstalled.
Equipment: Install on concrete bases etc., and assemble completely plumb and level, before
E. grouting in holding-down bolts.
Supports and Terminations: Install all incoming and outgoing cable supports, cable ends and
F. termination fittings required for MV, LV and control cables.
Relays: Set in accordance with manufacturer's instructions and the Local Power Authorities
G. requirements.
Earthing: Ensure that earthing installation is as described in Division 16 Section "Grounding
H. and Bonding" of the Specification and/or as shown on the Drawings.
Temporary Lifting Provisions: Remove temporary lifting eyes, channels, brackets, and
I. temporary blocking of moving parts from switchgear units and components.
3.2 IDENTIFICATION
A. Identify transformers and install warning signs according to Division 26 Section "Basic
Electrical Materials and Methods."
3.3 CONNECTIONS
A. Tighten bus joint, connector, and terminal bolts according to manufacturer's published
torque-tightening values. If manufacturer's torque values are not indicated, use those
specified in applicable Standards.
A. Equipment: Inspect equipment upon delivery to site and report any damage to Engineer.
B. Components: Check component ratings, types, sizes and wiring connections, including current
and voltage transformers, fuses, switches, instruments and relays.
C. Manufacturer's instructions are to be followed under all circumstances. Carry out andrecord
measurement and tests recommended by the manufacturer.
D. Test Objectives: To ensure transformer is operational within industry and manufacturer's
tolerances, is installed according to the Contract Documents, and is suitable for energizing.
E. E. Test Labeling: On satisfactory completion of tests for each transformer, attach a dated
and signed "Satisfactory Test" label to tested component.
F. Schedule tests and provide notification at least 7 days in advance of test commencement.
G. Report: Submit a written report of observations and tests. Report defective materials and installation.
H. Tests: Include the following minimum inspections and tests according to manufacturer's written
instructions.
1. Inspect accessible components for cleanliness, mechanical and electrical integrity, and damage or
deterioration. Verify that temporary shipping bracing has been removed. Include internal inspection
through access panels and covers for dry-type transformers.
2. Inspect bolted electrical connections for tightness according to manufacturer's published torque
values.
3. Insulation Resistance: Perform meg-ohmmeter tests of primary and secondary winding to winding and
winding to ground.
4. Duration of Each Test: 10 minutes.
5. Temperature Correction: Correct results for test temperature deviation from 20 deg C standard.
6. Turns Ratio: Measure between windings at each tap setting. Measured ratios deviating more than 0.5
percent from calculated or measured ratio for an adjacent coil is not acceptable.
7. Winding Resistance: Measure for windings at nominal tap setting. Measured resistance, deviating
more than 1 percent, from that of adjacent windings, is not acceptable.
8. Liquid-Filled Transformer, Insulation Power-Factor Test: Determine overall dielectric loss and power
factor for windings' insulation. Limit test voltage to line-to ground voltage of windings being tested.
I. Test Failures: Compare test results with specified performance or manufacturer's data. Correct
deficiencies identified by tests and retest. Verify that transformers meet specified requirements.
3.5 GROUNDING
A. Comply with Division 16 Section "Grounding and Bonding" for materials and installation requirements.
3.6 CLEANING
A. On completion of installation, inspect components. Remove paint splatters and other spots, dirt, and
debris. Repair scratches and mars on finish to match original finish. Clean components internally using
methods and materials recommended by manufacturer.
3.7 ADJUSTING
A. After installing and cleaning, touch up scratches and mars on finish to match original finish.
B. Adjust transformer taps to provide optimum voltage conditions at utilization equipment throughout
normal operating cycle of facility. Record primary and secondary voltages and tap settings and submit
with test results.
3.8 DEMONSTRATION
A. Train Employer's maintenance personnel to adjust, operate, and maintain the system installation.
Refer to Division 1
PART 1 - GENERAL
A. The following sections (Part 1, 2 and 3) provide the minimum requirement. Contractor to adopt localauthorities’
specs and recommendations wherever more stringent.
B. DESCRIPTION OF WORK: Medium voltage switchgear fully air insulated, metal enclosed medium voltageswitchboard
with SF6 switch disconnectors and circuit breakers.
C. STANDARDS: The switchgear shall meet the recommendations given in the latest editions of the followingstandards:
1. IEC 60694 : common clauses for HV switchgear and standards.
2. IEC 60298 : HV AC metal-enclosed switchgear.
3. IEC 60420 : HV AC switch-fuse combinations.
4. IEC 60255 : Electrical relays.
5. IEC 60271-100 : HV AC circuit breakers.
6. IEC 60271-102 : AC disconnectors and earthing switches.
7. IEC 60044-1 : current transformer.
8. IEC 60044-2 : voltage transformer.
9. IEC 60801 : monitoring and control.
10. IEC 60529 : degrees of protection provided by enclosures.
11. Local Electrical Authorities Requirements.
D. EQUIPMENT DATA: submit for approval detailed description of MV switchboard and major components supported by
manufacturer’s catalogues, indicating compliance with the Standards, equipment characteristics, details of
construction, operating data, dimensions and weights etc. Give details of miscellaneous items including incoming and
outgoing feeder terminal arrangement, connections at busbars, isolating, earthing, interlocks, control devices, digital
indicating and metering instruments etc.
E. TEST AND CERTIFICATES: submit complete certified manufacturer’s type and routine test records, in accordance with
the Standards.
F. SHOP AND CONSTRUCTION DRAWINGS: submit drawings for approval including, but not limited to, thefollowing:
1. Plans and elevation with indication of built- on equipment, exact dimensions and weights.
2. Arrangement of boards inside rooms allocated, indicating spaces and clearances.
3. Arrangement of equipment inside board.
4. One- line diagram of power system showing current ratings of switchgear and types and locations ofprotective
gear.
5. Schematic and elementary diagrams of control circuits.
6. Foundation details, grouting holes, installation details.
7. Arrangement of incoming and outgoing feeders, terminal fittings, instruments, busbar connections etc…
G. TECHNICAL LITERATURE: submit the following for approval prior to placing orders for equipment
manufacture:
1. Schedule of circuit breakers and fuses application, indicating type, range, features and characteristics, short-
circuit ratings, time- current curves etc…
2. Method of setting of protective devices for overload, short- circuit and earth- fault current ascoordinated
with upstream and downstream systems based on specific coordination curves of protective devices
used and specific calculated prospective short- circuit currents at various points.
3. Test methods on site and references.
A. Subject to compliance with the specifications and drawings, obtain MV switchgear equipment, from thefollowing:
1. Schneider Electric, France
2. Moeller, Germany
3. Siemens, Germany
4. ABB, Germany / Italy
A. The medium voltage switchgear is a fully metal enclosed, air insulated busbars system with SF6 switchdisconnectors
and circuit breakers.
B. All live parts of the system are fully enclosed in switchgear. The equipment to be supplied shallconsist of
aligned cubicles satisfying the following criteria: open-ended design, easy to install, safe and easy to
operate, featuring compact design and low maintenance.
The system shall have an earthed metal housing, with an IP3X degree of protection, according to IEC 298,
and falls in the category “metal enclosed switchgear” as described in IEC 298.
Each cubicle shall be designed with five compartments housed in a single enclosure: switchgear
compartment, busbar compartment, connection compartment, operating mechanism compartment and
LV compartment.
The system shall therefore comply with all requirements placed, in this connection, in IEC 466. The surface
color of the sheet steel shall be in the RAL color range. The electro-galvanized sheet metal and metal fittings
shall be painted to provide protection against corrosion. The epoxybased paint shall have a thickness of at
least 50 microns and shall be applied to both sidesof all sheet metal.
C. The switchboard shall be suitable for mounting above cable trenches, crawl spaces or base structures.
Each cubicle shall carry a suitably dimensioned engraved identification label clearly indicating the
functions and electrical characteristics of the cubicle.
The switchgear and the switchboards shall be designed in such a way that the positions of the various
switchgear devices shall be visible by the operator from the front of the switchboard. Itshall also be possible
to operate the switchgear from the front of the switchboard.
The civil works specifications shall be unique for all cubicles making up the MV switchboard. The cubicle
widths shall be multiples of a fixed value not exceeding 400 mm. In particular, the civil works for the circuit
breaker cubicles shall be identical to the civil works for the switch cubicles.
The manufacturer shall provide an installation drawing to serve as a guide for the civil works. In accordance
with applicable standards, the switchboards shall be designed to prevent access to all live parts when in
operation as well as during maintenance work.
1.4 CHARACTERISTICS
A. Insulation qualities shall guarantee protection against atmospheric and climatic conditions.
B. The insulation material shall be durable, vibration and shockproof, and suitable for tropical use.
C. The SF6 switch disconnectors and circuit breakers shall be maintenance free.
D. All metal parts employed shall be either in galvanized steel, or powder coated.
F. The switchgear shall be fully enclosed, whereby all current-carrying parts are air insulated, foreach phase,
and the entire system is placed in a metal housing.
H. All isolating/ earthing switch panels and circuit breaker panels shall be fitted, as standard, with LED voltage
presence indicators, on the cable side.
J. In the isolated position, there shall be an earthed barrier between the cable and the busbarsystem.
L. The fused load-break switch shall be equipped with automatic mechanical tripping in case a fuseblows.
M. The installation shall be capable to receive future extensions on both ends by addition of newmodular
panels.
PART 2 – MATERIAL
A. The switches shall use low pressure SF6 gas for current interruption and shall require no maintenance.
The switch enclosure shall be mounted horizontally within the cubicle and the position of the main and
earthing contacts shall be clearly visible from the front of the cubicle. The position indicator shall be placed
directly on the contact-operating shaft. The switch enclosures shall be made of cast epoxy resin. The
switches shall be of the high operating frequency type in accordance with paragraph 3.104 of IEC 265-1
recommendations. They shallhave three positions (closed, open and earthed) and shall be fully assembled
and tested beforeleaving the factory. The relative pressure of the SF6 gas inside the enclosure shall not
exceed
0.5 bars (500 hPa). The pole unit enclosures shall be of the “sealed pressure system” type as defined by
IEC 298 recommendations issued 1990-12 (appendix G, paragraphs 2.3 and 3.3), witha service life of at least
30 years. No refilling of the gas shall be required over this period. Switchpole units requiring maintenance
or gas refilling will not be accepted. The mechanical endurance of the switch operating mechanisms shall
ensure at least 1000 operations.
A. The electrical connection between 2 panels shall be provided by 3 identical busbar units, which are butt-
jointed by means of tie rods. Each busbar unit shall consist of a copper conductor, which is air insulated
with PVC insulation cover. Extensions of bus bars shall be very simple. Thebusbar compartment shall be
located at the top of the cubicle. It shall include three parallel- mounted bars without phase separating
means. Connections shall be made to the top pads of the switch or disconnector enclosures. Access to the
busbars shall only be possible after removing a single access panel carrying a symbol warning of the danger
of electrical shock. No other busbar access system will be accepted.
2.3 FUSES
A. All necessary MV fuses shall be supplied by the manufacturer according to his recommendationsfor chosen
transformers. 40% spare fuses shall also be provided by the manufacturer.
A. The MV cable connection pads shall be designed to accept simplified terminations for dry-typecables or to
accept paper-insulated cables impregnated with a non-draining material. No phaseseparating means will
be accepted. The compartment shall be capable of withstanding internal arc testing. Access to the
connection compartment shall only be possible after closing the earthing switch. No other access mode
will be accepted
B. The cable connection pads shall be suitable for following cable section range:
1. up to 2x240 or 1x500 sqmm for 400-630 A incomer and feeder cables.
2. 240 sqmm for transformer protection cubicles with fuses.
A. Two sets of three phase test plugs shall be provided in Low Voltage control compartment for secondary
injection testing.
A. The primary coils of the current transformers shall be cast in cast resin. Cores, fitted with secondary
windings, shall be fitted around the primary coils. The current transformers shall have the same short time
withstand current and rated voltage as the switchgear.
They shall be made of cast epoxy resin and shall be labeled individually. The manufacturer shallbe in a
position to provide type-test reports certified by an approved laboratory affiliated with international
organizations for compliance with IEC 185.
A. The voltage transformers shall be made of cast epoxy resin and shall be labeled individually. Depending
on the needs, they shall be of the phase-to-phase or phase-to-earth type. The manufacturer shall be in a
position to provide type-test reports certified by an approved laboratory affiliated with international
organizations for compliance with IEC 186.
A. The secondary wiring shall be a black insulated flexible V.D. wire, 1mm2, except for the voltageand current
transformer circuits, for which 2.5mm2 wire shall be used. Auxiliary equipment shall satisfy section 5.4 of
IEC 298 and section 5.4 of IEC 694 recommendations.
The LV cables shall be of the self-extinguishing type with a 1000 V insulation level.
These shall be marked at each end for easy verification during maintenance or servicing work.
A. All the relays, instruments and meters shall be incorporated in the LV compartment located atthe top of
the cubicle.
The relays shall be of the “integrated unit” type, meeting all protection and automatic controlneeds.
They shall comply with IEC 801.4 recommendations concerning electromagnetic compatibility.
2.10 EARTHING THE CABLES OF THE LOAD-BREAK SWITCH AND CIRCUIT BREAKER PANEL
A. The safe earthing of the connected cable shall be performed via the SF6 load-break switch. Everypanel shall
have an integrated isolating/ earthing switch, which shall make the earth connection. By closing the load-
break switch the connected cable shall be earthed, short circuit proof. In thisearthed condition, the panel
should be locked, to prevent opening.
B. Cable earthing shall be carried out by an earthing switch with a short-circuit making capacity, inaccordance
with IEC 129 recommendations. It shall be possible to operate the earthing switch when the switch or
disconnector is open.
A padlocking system shall be provided to lock the earthing switch in either open or closed position. The
position of the earthing switch shall be clearly visible from the front of the cubicle. Mechanical interlocking
systems shall be provided to prevent incorrect operations such as the closing of the earthing switch with
the switch or disconnector in closed position. The use of keyed or electric locks to actuate the above
mentioned interlocking system shall not be accepted.
A. Each fused load-break switch panel shall fitted with an integrated isolating/ earthing switch, which shall
ensure an earthed barrier between the busbars and the fuse-holders when the fusesare removed. The entry
panel to the fuse-holder can only be opened when the load-break switch shall be switched off, and the
isolating/ earthing switch shall form an earthed barrier between the busbars and the fuse-holders.
A. The complete 11KV switchgear unit be arranged for front operation and indication.
B. The gas system shall be maintenance free against gas leakages for life time. The relative pressure of the
SF6 gas inside the enclosure shall not exceed 0.5 bars (500 hPa). The pole unit enclosures shall be of the
“sealed pressure system” type as defined by IEC 298 recommendations issued 1990-12 (appendix G,
paragraphs 2.3 and 3.3), with a service life of at least 30 years. No refilling of the gas shall be required over
this period. Switch pole units requiring maintenance or gas refilling will not be accepted.
A. 11 KVSWITCHGEAR
1. General
a. Rated voltage : 17.5 kV
b. Impulse withstand voltage 1,2/50μs : 95 kV Peak Insulation
: 110 kV Peak Isolation
d. Rated frequency : 50 Hz
2. Busbar System
a. Rated normal current : 1250 A
b. Rated short-time withstand current : 20 kA for 3 seconds
c. Rated peak withstand current : 40 kA
3. Circuit Breaker
a. Rated normal current : 630 A
b. Rated breaking current : 20 kA
c. Rated short-circuit making current : 60 kA
d. Rated short-time withstand current : 20 kA for 3 seconds
D. Red and green indicating lights (LED) shall show the open and close position of the breakers, and amber
lights (LED) shall indicate automatic trip of the breakers.
E. The Above is the minimum requirement. Contractor to adopt local authorities specs and
recommendations.
A. The instruments shall be of flush mounted design, dust and moisture proof and shall be equipped with a
digital metering system of 0.5% accuracy class for the client management metering. All indicating
instruments shall basically withstand a continuous overload of 20%.
B. The instruments shall be square type 9.5 x 9.5cm.
A. Each MV cubicle shall be equipped with one multifunction microprocessor based digitalprotection and
control unit.
A. Current thresholds :
1. phase fault
a. from 0.3 to 24 In (1) (2)
b. from 0.3 to 2.4 In (3)
2. earth fault
a. if measured by summing secondary outputs from 3 phase current transformers :1. from 0.05 to 10 In
(2)
2. from 0.05 to 1 In (3)
b. if measured by zero-sequence toroid :
1. from 0.1 Amp to 300 Amp (2)
2. from 0.1 Amp to 30 Amp (3)
Current and time thresholds adjustments for each protection function settings shall be done by local
connection of a pocket terminal with password protection. For each protection function it shall be
possible to remotely select, over the serial communication link, from the remote controlsystem, the
desired settings among a choice of up to 4 presetted adjustments, corresponding to different network
operation modes.
The protection and control unit must be able to perform protection with logical selectivity takinginto
account and sending or receiving blocking orders on corresponding digital input / outputs.
A. Protection and control units shall perform metering functions with minimum following characteristics in
terms of range and accuracy.
3.4 PROGRAMMABILITY
A. Protection and control units shall be programmable like a Programmable Logical Controller (PLC) in order
to perform any automatic control functions required for MV network availability.In order to suit more or
less complex situations, protection and control units shall be available with a flexible number of digital
inputs / outputs.
3.5 SAFETY
B. Dielectric
1. Industrial frequency IEC 255-4 2 kV - 1 min
C. Climatic
1. operation IEC 68-2 - 5° C to 55° C
2. Storage IEC 68-2 - 25° C to 70° C
3. Humid heat IEC 68-2 95 % at 40° C
D. Mechanical
1. Protection index IEC 529 IP51 on front panel
2. Vibrations IEC 255-21-1 Class 1
3. Shock IEC 255-21-2 Class 1
4. Fire NFC 20455 incandescent wire
E. Electromagnetic
1. Radiation IEC 255-22-3 Class x 30 V/m
2. Electrostatic discharge IEC 255-22-2 Class III
F. Electrical
1. 1.2/50 μs impulse IEC 255-4 5 kV
2. 1 MHz damped oscillatory wave IEC 255-22-1 Class III
3. 5 ns rapid transient IEC 255-22-4 Class IV
4. Energetic transient IEC 801-5
A. The protection and control unit must be easy to install or replace. Quick installation shall be
performed by rectangular cut-out on the front panel of the cubicle and simple quick 2-screw
fastenings.
All wire connections shall be made via screw-locked terminal block connectors.
Protection and control unit shall enable quick connection / disconnection even when energized.
It will be possible to quickly replace the program cartridge with another one without dismantling
the protection and control unit.
It shall be possible to disconnect quickly the communication interface by simple unplugging
operation without interrupting the data exchange between the remote control system and the
other units connected on the same communication network.
A. The protection and control units shall have a serial asynchronous communication interface
dedicated for data exchange with remote control and monitoring system. The physical medium
will provide a high level of noise immunity, by differential transmission mode such as RS 485.
Transmission rate shall be selectable from 1200 to 38400 bauds. Communication protocol shall
be an open master-slave protocol, compatible with MODBUS, with safe procedures:
1. Each date frame sent by the master to the slave shall be followed by a slave answer or
acknowledgement, except in case of broadcast when the master send the samesynchronized message
to all the slaves.
2. In case the master does not receive any awaited answer from the slave concerned, it shall automatically
retry a few times. After a certain numbers of unsuccessful attemps and elapseof a time-out an error
diagnosis shall be established by the master.
3. All data frames shall be transmitted with built-in polynominal error detection code such asCRC 16. In
case of error detection, the data frame shall be automatically repeated.
A. Depending on switchboard, type-test certificates shall be required for the equipment, including the
switches and the circuit breakers.
1. Impulse dielectric tests,
2. Power frequency dielectric tests,
3. Temperature-rise tests,
4. Short-time withstand current tests,
5. Mechanical operating tests,
6. Verification of the degree of protection,
7. Verification of electromagnetic compatibilty.
B. In addition, for the switches and circuit breakers, the rated making and breaking capacities shall be
substantiated by a test report.
C. For the earthing switch, the making capacity, the short-time withstand current and thecorresponding
peak value shall be substantiated by a test report.
The routine tests carried out by the manufacturer shall be substantiated by a test report signed by the
manufacturer's quality control department.
The report shall cover the following aspects:
1. Conformity with drawings and diagrams,
2. Power frequency tests,
3. Manual operating mechanism tests,
4. Functional tests of lv auxiliaries and relays.
4.2 QUALITY
A. The supplier shall provide proof of application of a quality procedure complying with standards.This means:
1. use of a quality manual approved and signed by a management representative,
2. regular updating of this manual so that it reflects the most recent applicable quality controlprocedures,
3. ISO 9002 certification.
4.3 INSTALLATION
A. A concrete pad shall be constructed of Class A concrete, suitable reinforced, and shall be of a size to suit
the equipment being installed. All dimensions indicated on the drawings are approximate only. The pad
for the transformers shall be so constructed that the conduit entersdirectly into the high and low terminal
boxes so as not to be embedded in the concrete pad. The pad for the switchgear shall be as recommended
by the switchgear manufacturer.
B. All underground trenches for high tension cables in the transformer rooms shall be provided and installed
by the Contractor as required by the Power Company for the primary service.
C. All medium voltage cables entering or leaving the main switchgear shall be terminated in stresscones. The
stress cones shall be made by a qualified electrician well versed in the proper formingof such a termination.
The stress cone shall be made up with the materials and instructions as recommended by the cable
manufacturer.
A. The manufacturer shall furnish all the equipment and accessories specified herein, including allaccessories
and details not specifically mentioned or fully detailed but which he deems necessary or which are
reasonably required to make a complete and well intergrated unit withinthe scope of this specifications.
B. The manufacturer shall furnish one complete set of any special tools, wrenches, or equipment that may
be required for assembling or disassembling the transformers.
D. Drawings. This shall include plans, elevations, complete one line diagram, detailed panel wiringdiagrams,
interconnection diagram and elementary diagrams. In order that the Engineer may prepare wiring plans
and contract for wiring to be completed before the equipment is received,the drawing must be received at
an early date. The Contractor shall start preparing drawings on receipt of order. He shall state the time
required for delivery of prints and this will be considered in making the award.
A. The contractor shall provide training to client maintenance staff. The training shall be providedby certified
trainers. Based on the training sessions, the attendees from the client maintenancestaff shall be given a
certificate for the proper operation and maintenance of the system from the manufacturer of the Medium
Voltage Switchgear.
A. Obtain an undertaking by the equipment manufacturer and his authorized local representativeto provide
an annual maintenance contract, available after taking over certificate of the work, covering routine
service and emergency service by trained employees, and to ensure supply of necessary standard spare
parts.
4. The supplier should respond to an emergency call within 4 hours and should replace anydefective part
within 24 hours. An emergency is defined as that which involves total or partial loss of a system that
may lead to a total loss of the service provided.
5. Other than emergency calls, service calls shall have a response time of next working day as a maximum.
The maintenance contractor shall work continuously until the problem is resolved and the system is back
to normal operation.
6. The maintenance contract shall include the cost (material and labor) of replacement of consumables
not included in the general warranty conditions through scheduled preventive maintenance visits
performed by the supplier according to manufacturer’s recommendation.
7. The maintenance contractor shall provide the needed stamps on LAU’s copy of the contract.
PART 1 - GENERAL
A. Drawings and general provisions of the Contract, including General and Supplementary Conditions and
Division 01 Specification Sections, apply to this Section.
B. Where Paragraphs of this Section conflict with similar paragraphs of the General and Supplementary
Conditions and Division 1, requirements of this Section shall prevail.
A. Provide all labor, materials and equipment to furnish and install all of the items specified herein, indicated
on the drawings and as necessary for the proper and complete performance of work and conformance with
all applicable code requirements.
B. Section includes:
1. MDBs: Main Distribution Boards feeding the normal electrical loads;
2. EMDBs: Emergency Main Distribution Boards feeding the emergency and essential electrical loads;
3. SMDBs: Sub Main Distribution Boards feeding the normal electrical loads;
4. ESMDBs: Emergency Sub Main Distribution Boards feeding the emergency and essential electrical loads;
5. ATS: Automatic Transfer Switch.
1.3 REFERENCES
1.4 SUBMITTALS
A. EQUIPMENT DATA: submit for approval detailed description of main distribution boards and major components
supported by manufacturer’s catalogues, indicating compliance with the Standards, equipment characteristics, details
of construction, operating data, dimensions and weights etc. Give details of miscellaneous items including
incoming and outgoing feeder terminal arrangement, connections at busbars, isolating, earthing,
interlocks, control devices, digital indicating and metering instruments etc.
B. TEST AND CERTIFICATES: submit complete certified manufacturer’s type and routine test records, in
accordance with the Standards.
D. TECHNICAL LITERATURE: submit the following for approval prior to placing orders for equipment
manufacture:
1. Schedule of circuit breakers application, indicating type, range, features and characteristics, short-circuit
ratings, time- current curves etc.
2. Method of setting of protective devices for overload, short- circuit and earth- fault current as
coordinated with upstream and downstream systems based on specific coordination curves of
protective devices used and specific calculated prospective short circuit currents at various points.
3. Test methods on site and references.
1. Main and Sub-main distribution boards drawn to scale in the electrical/technical rooms.
2. Available working clearances around the Main and Sub-main distribution boards.
3. Interconnection between the Main and Sub-main distribution boards and electrical feeders.
4. Relationships between Main and Sub-main distribution boards and adjacent structural and
mechanical elements. Show support locations, type of support, and weight on each support.
G. Field Test Reports: Indicate and interpret test results for compliance with performance requirements.
H. Operation and Maintenance Data: For Main and Sub-main distribution boards and componentsto include
in emergency, operation, and maintenance manuals. In addition to items specified inDivision 01 Section
"Operation and Maintenance Data," include the following:
1. Manufacturer's written instructions for testing and adjusting overcurrent protective devices.
2. Time-current curves, including selectable ranges for each type of overcurrent protective device that
allows adjustments
I. Main and Sub-main distribution boards Schedules: For installation in Main and Sub-main distribution
boards. Submit final versions after load balancing.
A. Manufacturer Qualifications: Maintain a service center capable of providing training, parts, andemergency
maintenance and repairs.
B. Source Limitations: Obtain similar Main and Sub-main distribution boards devices through onesource from
a single manufacturer.
C. Comply with IEC EN 61 439 & IEC 364 for construction form as indicated on drawings. Additionally, comply
with local regulations.
D. Product Selection for Restricted Space: Drawings indicate maximum dimensions for Main and Sub main
distribution boards, including clearances between Main and Sub-main distribution boards and adjacent
surfaces and items, and are based on types and models indicated.
A. Deliver in shipping splits of lengths that can be moved past obstructions in delivery path asindicated.
B. Contractor to store, protect, and handle Main and Sub-main distribution boards in accordance with
recommended practices listed in manufacturer’s Installation and Maintenance Manuals.
C. The contractor shall store in a clean, dry space. Maintain factory protection or cover with heavycanvas or
plastic to keep out dirt, water, construction debris, and traffic. Provide temporary heaters as required to
prevent condensation.
D. Handle Main and Sub-main distribution boards according to, "Instructions for the Handling, Installation,
Operation, and Maintenance of Main and Sub Main Distribution boards." Use factory-installed lifting
provisions.
E. Field Measurements
1. Contractor to make all necessary field measurements to verify that equipment shall fit in allocated space
in full compliance with minimum required clearances required by the manufacturer and/or specified in
IEC and local regulations.
2. Coordinate installation with other trades and notify the Architect in writing of any interferences or
conflicts.
A. Provide manufacturer’s recommended spare parts for emergency replacement and/or one year’s
maintenance including, but not limited to, the followings:
1. One set of fixed and moving contact for every type of replaceable (consumable) contact set.
2. One operating motor and/ or coil for each type of electrically operated circuit breaker orcontactor.
3. Two sets of each type of indicating lights, fuses, LEDs etc.
1.8 WARRANTY
1. General Warranty: The special warranty specified in this Article shall not deprive the Ownerof other
rights the Owner may have under other provisions of the Contract Documents andshall be in addition
to, and run concurrent with, other warranties made by the Contractor under requirements of the
Contract Documents.
2. Special Warranty: A written warranty, signed by Contractor and manufacturer, agreeing to replace any
component of the system / panel board assemblies that do not meet requirements or that fail within
the specified warranty period.
3. Warranty Period: 2 years from date of taking over certificate for any component of the system.
A. Provide tools and instruments required for normal routine inspection and maintenance and testing of
circuit breakers and protective devices as appropriate for type of switchgear supplied.
A. Subject to compliance with the specifications and drawings, obtain sub-main and main distribution boards
equipment, from a panel board builder with an up-to-date TTA license from the panel board manufacturer.
The panel board builder’s TTA license shall be at least 5 years old and the panel board builder shall have
previously executed at least 10 projects that include TTA panels that the consultant deems successful.
A. Generally the sub-main and main distribution boards are to be dead- front type, metal enclosed, multi-
cubicle, floor mounted, free standing, 600 V class of service switchboards, with fixed or draw- out
Switchgear, manually or manually and electrically operated, as shown on the Drawings, with matching
vertical sections to from a continuous integral and rigid structure. The requested construction forms as
per IEC EN 61439-1 & 2 are «Form 4 TYPE 2» for MDBs & «Form 2 TYPE 2»for SMDBs, without taking into
account that the outer case of a device i.e. an MCCB is an acceptable segregation means and providing a
separate compartment for external conductors.
2.2 CONSTRUCTIONS
A. Rigidly framed and bolted, with electro-galvanized sheet steel enclosures, minimum thickness 1.5 mm,
phosphatized, primed with rust inhibiting primer and finished with thermal polymerized polyester epoxy
powder coating, color to approval. Switchgear is to be vermin, dust and rodent proof, unless otherwise
indicated in BOQ or drawings IP55 (wet areas) and IP43 (dry areas) protection to IEC EN 60529 for indoor
installations, with adequate lifting means and base- framesand capable of being moved into position and
directly bolted to floor without additional sills. Shock protection shall be IK10.
B. Panel Builder to submit thermal study to justify the panel’s cooling method. Enclosure to have suitable
temperature control apparatus (anti-condensation heaters, heat sinks, fans, air conditioning …etc) as
required to keep internal temperature below 40°C when ambient temperature outside the panel is 35°C.
C. Where the panel is outdoor mounted and subject to direct sunlight, the panel ingress of protection shall
be IP65 to IEC EN 60529 and special measures shall be provided to limit the temperature inside the
compartments to 45°C.
D. Switchboard(s) are to be of the front accessible wall aligned, with fixed main circuit breaker sections (type
and rating as shown in schedules) and fixed group mounted outgoing MCCB and ACB distribution
section(s), busbars section(s), and feeders’ section.
E. All switchboard(s) compartments shall have glazed doors except for busbars & cable compartments. If
each functional unit is arranged in a separate compartment, a solid door shall be provided for each
compartment where the disconnecting element’s toggle shall be extended to outside the compartment.
F. Switchboard’s Doors shall not be wider than 60cm. If closet door(s)’ width is larger than 60cm then 2 doors
arrangement shall be provided instead such that no door width exceeds 60cm.
G. FIXED MAIN CIRCUIT BREAKER SECTION: is to individually accommodate main circuit breaker, main cable
entry with terminal fitting assembly and metering compartment. Where required an additional cable pull
section is to be provided, depending on actual configuration shown on the Drawings. Where placed against
a wall, accessibility is to be possible from front and sides or onlyfrom front of section.
H. FRONT ACCESSIBLE FIXED, FEEDER MCCB or ACB DISTRIBUTION SECTIONS – FEEDERS SECTIONS –BUSBARS
SECTION: are to rear align with main section(s) and be of uniform depth, with all devicesremovable from the
front and mounted on a panel board type base. Construction is to allow all connections and maintenance
to be made without rear access. Cables are to be accommodated in extra wide vertical section(s). Sides,
top and rear are to be covered with removable screw- on plates having formed edges all around. Front
plates are to be sectionalized and removable, covered by times, and secured by self-tapping screws. If
Plexiglas (or any other material) is used
for segregation, it has to be fire retardant. Busbars are to be accommodated in separatehorizontal and
vertical sections. The electrical link from the main busbars to each distribution MCCB or ACB could be by
rigid or flexible insulated busbars (the electrical link within the same functional unit have to be done by
rigid busbars, flexible busbars and cables are not allowed) unless the MCCB or ACB’s frame size is greater
than 600 Amperes, in this case, the electrical link shall be rigid busbars.
I. Fastenings between structural members are to be bolted.
J. Extension of structure and busbars is to be possible at either end of switchboard.
K. The functional units and busbars shall be arranged inside the panels in which manner to permit to the
incoming and outgoing busducts and cables to enter enclosure as indicated on the Drawings and connect
at respective terminals without inconvenience to installation or maintenance.
L. Suitable arrangements and equipment are to be provided for extracting, lifting and unloading functional
units from enclosures as appropriate for type of switchgear.
M. SPARE AND SPACE POSITIONS are defined as follows:
1. Spare position: fully equipped enclosure with switchgear.
2. Space position: fully equipped enclosure ready to receive switchgear with all necessaryaccessories.
2.3 BUSBARS
A. The Busbars Shall be rigid, fully rated and have the same rating of main circuit breaker frame sizeplus 30%,
and braced for a symmetrical RMS short- circuit duty equal to or higher than main circuit breaker
interrupting duty, for minimum of one second unless otherwise specified or shown on the Drawings.
B. Busbars are to be copper of sufficient size to limit temperature rise to allowable insulation or equipment
temperature ratings, and to maximum 30°C above average ambient temperature of 45°C outside
enclosure.
C. Connections and buswork are to be bolted with copper alloy hardware and are to be accessible for
inspection and maintenance. Moreover the connections from busbars to switchgears are to be rated to
carry full continuous current rating of switchgears frames and are to be insulated.
D. The Neutral Busbar shall have the same rating of phase Busbars and shall be continuous through all
sections. Neutral bus is to be insulated and separate from earth bus and connected to it with removable
links.
E. The Earth Bus is to extend to the full length of the board and shall be firmly fixed to each section in
accordance with the Regulations and standards. The Earth Bus shall be complete with two mainearthing lugs
(one at each end), and required number of feeder protective earth connectors.
A. MCCBs GENERALLY are to be thermal- magnetic type for ratings below 400 A frame size, unless otherwise
shown on the Drawings. MCCBs 400 A and larger are to be electronic solid- state trip type. All circuit
breakers are to be 4 poles. Where indicated on drawings, the MCCBs and ACBs shall be with external toroid
and adjustable earth leakage relay (adjustable time delay and
sensitivity). When used for source change-over, MCCBs, ACBs, moulded case switchdisconnectors or air
switch disconnectors shall be 4 poles.
B. MCCB CONSTRUCTION: totally enclosed, moulded case, constructed from high quality, high temperature
resistant, tropicalized, moulded insulating materials, for normal operation at 70°C within enclosures, to
approved standards, provided with quick-break, trip- free switching mechanism manually operated by
front toggle type handle and automatically tripped under over-current and short circuits conditions. Multi-
pole breakers are to have common integral trip bar for simultaneous operation of all poles. Contacts are to
be non-construction. Cables terminals areto be solderless anti-turn box lug or clamp type with set screws
suitable for copper or aluminumcables.
C. THERMAL MAGNETIC CIRCUIT BREAKERS: are to include, on each pole, a bimetallic inverse time delay over-
current trip element for small overloads and instantaneous magnetic over-current trip elements for
operation under short- circuit conditions. Circuit breakers 250 A frame size or where shown on drawings,
shall have adjustable short time trips (Im).
D. THERMAL OVERCURRENT TRIPS: are to be compensated to allow for ambient temperature higherat breaker
than at protected circuit or device. Compensation is to be applicable between 25 and 50°C. In case of
adjustable thermal settings, range of adjustment is not to exceed maximum trip rating shown on the
Drawings.
E. ELECTRONIC TRIP CIRCUIT BREAKERS: unless otherwise specified on drawings, electronic trip circuit
breakers are to have solid state trip units with long time delay setting range at least between 0.4 and 1.0
times maximum trip rating, adjustable short time delay (range 2 to 10 times maximum trip rating) with
adjustable clearing time and instantaneous protection adjustable from 2 to 11 times continuous rating
(fixed at 11 times continuous rating for circuit breakers 250A frame and lower). Solid state trip units are
to be insensitive to changes in ambient temperature between -20 and + 55°C. Earth fault protection
(where indicated on drawings and/or specifications) is to be built into trip unit, and is to be adjustable
between 0.2 and 0.6 normal phase current pick- up. Maximum adjustable time delay of 0.4 seconds, and
is to be suitable for connection to external current sensor. Push- to- trip button is to be provided on cover
for testing the trip unit. Electronic trip units for frame size 400 Amps are to have current (I1, I2, I3, IN, Iearth
fault, Iearth leakage) measurement and display while electronic trip units for frame sizes 630 Amps and
larger are to have power (current measurement, V, kW, kVA, kVAR, Wh, pF, Vpeak, Apeak)
measurement and display.
F. TRIPPED POSITION: when tripped automatically by over-current condition, operating mechanismof circuit
breaker is to assume an intermediate position clearly indicated by the handle between on and off positions.
G. INTERCHANGEABLE TRIPS: Circuit breakers 100 A to 630 A frame sizes are to have interchangeablethermal
and electronic trip units.
H. SEALING: non- interchangeable trip circuit breakers are to have sealed covers. Circuit breakers with
interchangeable trips are to have trip unit covers sealed to prevent tampering.
I. CIRCUIT BREAKER RATINGS: are to be non-current limiting, fully rated (100%) with continuous duty at site
conditions, and with frame size and interrupting capacity to IEC 947- 2, sequence II (rated service short-
circuit) breaking capacity, and maximum trip rating as shown on theDrawings. Interrupting capacities at
specified voltage and frequency are to meet IEC 947- 2 test sequence I, II and III for circuit breakers of
utilization category A for circuit breakers with frame size 630 A and less.
Interrupting capacities at specified voltage and frequency are to meet IEC 947-2 test sequence I,II, III and
IV for circuit breakers of utilization category B (with intended short time withstand capability) for circuit
breakers with frame size 800 A and larger including air circuit breakers (ACB)
J. ACCESSORIES: circuit breaker design is to allow addition of electrical operator, control and interlocking
functions, under- voltage release, shunt- trip coils, alarm and auxiliary switches, padlocking devices, key-
lock devices and the like. Such accessories are to be provided where shown on the Drawings.
A. GENERAL:
a. The ACBs shall comply with IEC 947-2.
b. The ACBs are to be electronic solid- state trip type. All circuit breakers are to be 4 poles (protected)
unless otherwise shown on drawings.
c. The breaking capacity performance certificates shall be available for category B to the above mentioned
standards. The test shall be carried out with a breaking performance during operation (Ics) and
admissible short time withstand (Icw) equal to the ultimate breaking capacity (Icu).
d. The ACBs must be able to be supplied both from the top and bottom terminals without reduction in
performance and without jeopardizing their functionality.
e. All ACBs shall be fully tropicalized (T2) as standard.
f. The ACBs shall comply with the isolating function requirements of IEC 947-2 section 7.1.2.
g. The ACBs shall have a rated service voltage of 690V AC (50/60Hz) and a rated voltage of 1000V.
h. The ACBs shall have a rated impulse withstand voltage of 12KV.
B. CONSTRUCTION:
a. The air circuit breakers shall be designed to be maintained;
b. They shall be available in fixed or drawout models and in three or four poles versions. On four poles
version, from 800 up to 4000Amps, the neutral pole shall have the same current rating as the other
poles and half of the current rating from 5000 to 6300Amps.
c. The main contacts of the air circuit breakers shall be encased in a reinforced polyester casing and offer
double insulation from the operators on the breaker front face. The circuit breaker also shall offer total
insulation of the control part with respect to the power part.
d. The operating mechanism shall be of the opening-closing-opening (O.C.O.) stored energy springtype with
a closing time of less than or equal to 80ms.
e. The springs are charged manually by operating the front lever or using a motor operator. In thecase of
motor charged spring, the maximum time to charge the springs shall not exceed four seconds, it shall
also be possible to charge the springs manually.
f. Contacts shall be designed to be maintenance free in normal usage.
g. On the front level, the circuit breakers must indicate the exact position of the main contacts and the
condition of springs (charged/discharged) by means of precise and reliable signals without
measurements or specific tools.
h. Arc chutes shall be common on the whole range and removable on site to allow inspection of arc chutes
and main contacts.
i. Draw-out mechanism:
• General:
Three positions of the moving part shall be possible:
o Connected position – all auxiliary and main circuits engaged.
o Test position – all auxiliary circuits engaged, all main circuits
o disconnected.
o Isolated position – all circuits disconnected.
• Safety requirements:
A door interlock shall be provided so that it shall not be possible to open the door until the air circuit
breaker moving part is in the disconnected position.
Insulated safety shutters shall be provided over the incoming and outgoing main circuits andover the
auxiliary circuits. An interlocking shall be provided to prevent insertion of a circuit breaker having a
rating higher than the current rating of the fixed part, into that fixed part. The racking handle shall
be stowed on the air circuit breaker in such a manner as to beaccessible without defeating the
door interlocking.
The safety perimeter shall be reduced to zero for the drawout version above and to the sides of the
ACB.
The overcurrent relay shall have a wide adjustment range to allow flexibility of setting on site.The trip
unit shall measure the true RMS value of any waveform of current.
The control unit shall be equipped with a push to reset mechanical indicator. For antipumpingfunction
the control unit may communicate with other equipment on a communication BUS.
b. Characteristics:
• Long time protection (LT):
o Adjustable from 0.4 to 1.0 of the sensor rating (In);
o Time delay adjustable.
• Short time protection (ST):
o Adjustable from 1.5 to 10 times the long time protection setting (Ir);
o Time delay adjustable;
o Time inverse characteristic (I2t) may be switched in order to improve
o discrimination.
• Instantaneous (INST)
o Adjustable from 2 times up to:
o At least 15 times the rated current for sensor ratings up to 2000 Amps;
o At least 10 times the rated current for sensor ratings above 2000 Amps.
c. Control functions:
In order to optimize the operation, maintenance and monitoring of the breaker in complete safety, the
following standard control items shall be supplied as an integral part of the controlunit:
• Local overcurrent LED indication with 2 levels – LED steady or flashing – on the front face andone volt
free output contact shall indicate as a pre trip alarm;
• Two NO and two NC output contacts plus one CO fault trip contact (SDE) shall be available;
• Thermal memory: The control unit shall optimize the protection of the equipment or the circuit
conductors in the event of repeated overloads or faults by using thermal integration to memorize
temperature rises;
• Safety: internal overheating of the control unit shall be signaled.
e. Options:
Without increasing the volume it shall be possible to combine the following functions into the air circuit
breaker control unit:
• Load monitoring and control: Two adjustable settings with output contacts shall be available. These
settings to be related to the long time protection setting;
• Zone selective interlocking for the short time and earth fault protection;
• Earth fault protection;
• Remote indication of one particular fault as selected by a switch on front face;
• Fault trip indication – indicating the element (long time, short time/instantaneous, earth fault
protection if supplied) that has caused the circuit to trip, indicated locally by a led;
• Communication:
The data or action needed for the control and indication functions shall be available on a BUSvia a
specific modular system, ie:
o Circuit breaker state;
o Control unit settings;
o Cause of circuit breaker trip;
o Circuit breaker operation.
D. CIRCUIT BREAKER RATINGS: are to be non-current limiting, fully rated (100%) with continuous duty at site
conditions, and with frame size and interrupting capacity to IEC 947- 2, sequence II (rated service short-
circuit) breaking capacity, and maximum trip rating as shown on theDrawings.
Interrupting capacities at specified voltage and frequency are to meet IEC 947-2 test sequence I,II, III and
IV for circuit breakers of utilization category B (with intended short time withstand capability) for air circuit
breakers (ACB).
E. ACCESSORIES:
a. Electrical accessories:
All electrical accessories including the motor spring charging mechanism shall be field adaptable
without adjustment or the necessity for any tool (except a screwdriver). They shall
It shall be possible to connect all auxiliary wiring from the face of the air circuit breaker; this wiring shall
be taken through a set of disconnecting contacts, so that all auxiliary wiring is automatically
disconnected in the isolated position.
b. Mechanical indicators
Mechanical indication on the front of the air circuit breaker shall be provided to indicate the following:
A. GENERALLY: Power meters shall combine the following functions in a single unit:
1. True RMS measurements up to the 31st harmonic for voltage, current, frequency, power
2. and power factor.
3. Measurement of power quality, i.e. the level of harmonic distortion (THD) in voltage and
4. current.
5. Metering of active and reactive energy.
6. Indication and control via two output relays that can be assigned to power or power
7. factor to trip alarms or initiate load shedding.
1. Transmittal of all the measurements indicated below to the BAS system and a software
8. suite from the power meter manufacturer (to be supplied); over RS-485 Modbus with
9. one RS-485 to Ethernet TCP/IP interface to be provided for all power meters in the
10. project.
B. MEASUREMENTS
1. Phase to neutral voltages (V1N, V2N, V3N): 115 to 500 VAC, ± 1% accuracy.
2. Phase to phase voltages (U12, U23, U31): 115 to 500 VAV, ± 1% accuracy.
3. Currents (I1, I2, I3 and IN): 15 to 2500 A, ± 1% accuracy.
4. Maximum Current.
5. Frequency: 45 to 65 HZ, ± 0,02% accuracy.
6. Power factor: ± 1,5% accuracy.
7. Active Power: ± 1,5 accuracy.
8. Reactive Power: ± 1,5% accuracy.
9. Apparent Power: ± 1,5% accuracy.
10. Active energy consumed.
11. Reactive energy consumed.
12. Apparent energy consumed.
13. Reset of meters (including maximeter).
C. Mechanical Characteristics:
1. Degree of protection IP 40.
2. Vibrations FC test: 2 to 13,2 HZ-1 mm and 13,2 to 100 HZ-0,7 g.
3. Operating temperature: -20 to +55 °C.
2.7 WIRING
A. ARRANGEMENT: wiring is to be modularly and neatly arranged on master terminal boards with suitable
numbering strips and appropriate cartridge type fuses where required. Terminal boards shall be WAGO or
approved equal.
B. CONNECTIONS: are to be made at front of terminal boards and with no live metal exposed.
C. METAL CASES: of instruments, control switches, relays etc. Are to be connected, by bare copper
conductors’ not less than 2.5 mm2 section, to nearest earthing bar.
D. CONTROL WIRING: copper. PVC insulated, 85 °C rated, 600 V grade, and PVC sheathed for multicore cables
running from the control terminal blocks to outside the panel. Finely stranded copper conductor, silicon
rubber insulated cables are to be used inside the panel.
E. FERRULES: wires are to be fitted with numbered ferrules of approved type at each termination.
2.8 MISCELLANEOUS
A. SCHEMATIC AND WIRING DIAGRAM: is to be provided suitably located within each cubicle
A. TYPE: wall or floor mounted, compartmentalized Form 3B (unless otherwise indicated on drawings) as per IEC
EN 61439-1 & 2, galvanized sheet steel cubicle of equal construction to control cubicle, comprising contactors
with manual by-pass switches or withdrawable air circuit breakers (as specified on drawings) and controls
necessary for automatic transfer of power supply from normal source to standby source, voltage sensing
control relay and time delay relays to signal generators start and stop, auxiliary switches and indicating lights
etc. as necessary for the required operation ofthe system.
B. The busbars shall be rigid and fully sized. The electrical link from the main busbars to each switchgearor control
gear could be by rigid or flexible insulated busbars unless the switchgear or control gear’s frame size is greater
than 600 Amperes. In this case, the electrical link shall be rigid busbars (the electrical link within the same
functional unit have to be done by rigid busbars, flexible busbars and cables are not allowed).
C. All compartments shall have glazed doors except for busbars & cable compartments. If each functional unit
is arranged in a separate compartment or where the disconnecting element’s toggleshall be extended to
outside the compartment than a solid door shall be provided for each compartment. If Plexiglas (or any other
material) is used for segregation, it has to be fire retardant.
D. OPERATION: when voltage and/or frequency of any phase drops below an adjustable setting (85- 100%) of
normal supply for an adjustable period of 1- 300 seconds, power failure relay is to actuate engine starting
control, whilst normal mains contactor or breaker is to open. After an adjustable period of 0- 10 seconds from
sensing stabilized rated voltage and frequency of the generator(s) at the ATS, Voltage pick- up adjustable from
85% to 100% nominal; frequency pickup adjustable from 90% to 100% nominal, the emergency contactor or
breaker is to close. Upon restoration of normal mains supply to above the preset limits, adjustable between
90% and 100% of rated voltage and/ orfrequency the emergency contactor or breaker is to open and after a
presentable pause 0.5 to 30 seconds minimum, normal mains contactor or breaker is to close; time delay is to
be effective in both directions.
E. ENGINE SHUTDOWN: is to be initiated of the load to normal source (Refer to generator set controls upon shut-
down).
F. MECHANICAL AND ELECTRICAL INTERLOCKS: are to prevent contactors/ circuit breakers from being closed
simultaneously at any time. Transfer mechanism is to be powered from the source to which the load is being
transferred.
“With load”: the generating set is to carry the load during testing or exercising periods.
“Without load”: generating set is to start but not assume the load.
H. PILOT LIGHTS (LEDS): are to indicate which contactor / circuit breaker is closed.
J. CONTACTORS (in case of air circuit breakers or air switch disconnectors, refer to relevant sections): are to
comply with IEC 947, and UL standard 1008, and be 3- phase, 4- pole, magnetic type, 600 V rating, capable of
interrupting at least ten times rated current inductive or noninductive loads undernormal service conditions
and are to have replaceable main arcing contacts and arc quenching devices. Contactors are to withstand,
without welding or burning of contacts, an inrush current of 20times normal rating for 4 seconds upon closing
and are to be capable of closing on the heaviest short-circuit of the system and withstand the short circuit for
period required by upstream short circuit protective device to operate. Three N.O. and three N.C. Spare
contacts are to be provided on each contractor.
K. WIRING: moisture and heat resistant, silicon rubber insulated, stranded copper conductors, modularly and
neatly arranged on master terminal blocks, with suitable numbering strips and appropriate cartridge type
fuses where required. Flexible wiring is to be used on all hinged/ draw- out components.
L. CONNECTIONS: are to be made at a front terminal block with no live metal exposed. Power cables are to
terminate on fixed insulated copper connectors suitably sized to receive specified cables. Cables glands and
gland plates are to be provided.
M. METAL CASES: of instruments, control switches, relays etc. are to be connected by flexible protective
conductors, of not less than 2.5 mm2 sections, to nearest earthing bar or terminal.
N. EARTHING: earthing bar is to be provided for connection of protective earthing conductors, using set- screw
or bolted anti-turn pressure terminations.
O. FERRULES: wire ends are to be fitted with numbered ferrules of approved type at each termination.
4.1 EXAMINATION
A. Examine areas and surfaces to receive SMDBs & MDBs for compliance with requirements, installation
tolerances, and other conditions affecting performance.
1. Inspect equipment upon delivery to site and report any damage to the Engineer.
2. Inspect and check switchgear for completeness, component ratings, types, sizes, and wiring
connections. Check phasing of busbars, contacts and clearances.
3. Ensure that concrete bases and foundations provided for installation of equipment areconstructed in
accordance with approved shop and equipment manufacturers’ drawings and the holes needed for
fixing bolts and provisions for passage of cables etc… are provided as required.
4. Ensure that trench construction and covers provided for installation of power and control cables are in
accordance with approved shop and construction drawings.
5. Ensure that equipment supports, fixings and the like, and sleeves for passage of feeders and cables
which are to be built into concrete foundations, bases, cable trenches or building structure are
provided as and when required and that they are properly installed.
4.2 INSTALLATION
A. Proceed with installation only after unsatisfactory conditions have been corrected.
B. Install MDBs and SMDBs according to accepted and manufacturer's written instructions.
C. Install panel boards on concrete bases etc…, and assemble completely plumb and level, before grouting
in holding- down bolts.
D. Install all incoming and outgoing cable supports, cables ends and termination fittings required forpower
and control cables.
E. Electronic trip units and relays shall be set in accordance with manufacturer’s instructions and in
accordance with an approved scheme.
F. The damaged painted surfaces shall be cleaned and painted by rust inhibiting prime coat and twofinishing
coats of approved enamel upon delivery of equipment to site, or as required by the Engineer.
4.3 IDENTIFICATION
A. Identify field-installed wiring and components and provide warning signs according to Division 16Section
"Basic Electrical Materials and Methods."
C. Operating Instructions: Frame printed operating instructions for MDBs & SMDBs, including control
sequences, and emergency procedures. Fabricate frame of finished wood or metal and cover instructions
with clear acrylic plastic. Mount on front of MDBs & SMDBs.
4.4 CONNECTIONS
A. Tighten MDBs & SMDBs bus joint, electrical connector, and terminal bolts according to manufacturer's
published torque-tightening values. Such that system is type tested (TTA) to IEC EN 61 439-1 & 2.
A. Perform each visual and mechanical inspection and electrical test stated in corresponding IECm standards.
Certify compliance with test parameters.
B. Inspect interior and exterior of MDBs and SMDBs. Remove paint splatters and other spots, dirt, and debris.
Touch up scratches and mars of finish to match original finish. Clean devices internally,using methods and
materials recommended by manufacturer.
C. Remove and replace malfunctioning units with new units, and retest.
D. After installation, visual and mechanical inspection, and before hand over, carry out all tests required by
the governing codes and any other tests the Engineer may require to check compliance of installation with
the Specification, including insulation resistance tests and operational tests.
E. The main and control circuits shall be tested using 1000 V megger (2000 Megohm range), check insulation
resistance between phases, between phases and earth/ enclosure and between neutral and earth.
F. PRIMARY INJECTION TESTS: provide portable test equipment to test time- delay characteristics of circuit
breakers by simulating an overload or faults condition. Measure and record all test resultsand ambient
conditions and compare with manufacturer’s data.
G. The breakers’ trip units (instantaneous, long and short overload protection) shall be tested by high current
primary injection, using high- current primary injection test- sets and report all readings.
H. Routine tests on site are to be carried out on every main and sub-main distribution board in accordance
with the Standard specified (IEC EN 61439) for FBAs (feeder branch assembly) assembled from
standardized components outside the works of the manufacturer. Routine tests are also to be carried out
on every FBA, delivered to site, if requested by the Engineer.
4.6 DEMONSTRATION
A. Training: Engage a factory-authorized service representative to demonstrate functional units, and train
Owner's maintenance personnel.
PART 1 - GENERAL
A. Drawings and general provisions of the Contract, including General and Supplementary Conditions and the
requirements of section 260000 of the specifications, apply to this Section.
3.10 SUMMARY
A. KNX is a standardized (EN 50090, ISO/IEC 14543), OSI-based network communications protocol for
intelligent buildings. KNX is the successor to, and convergence of, three previous standards: the
European Home Systems Protocol (EHS), BatiBUS, and the European Installation Bus (EIB or Instabus).
The KNX standard is administered by the KNX Association.
B. KNX is designed to be independent of any particular hardware platform. A KNX Device Network can be
controlled by anything from an 8-bit microcontroller to a PC, according to the needs of a particular
implementation. The most common form of installation is over twisted pair medium.
D. Description of work: the KNX shall fully integrate subsystems, operating in stand-alone mode.
E. European Intelligent Bus (KNX) generally is to be in accordance with the requirement ofsection 26 00
00 of the specification.
G. Although such work is not specially indicated, provide all supplementary or miscellaneous items,
appurtenances and devices incidental to necessary for a sound, secure and installation.
3.11 DEFINITIONS
3.12 SUBMITTALS
A. Equipment data: Submit for approval including, but not limited to the followings:
1. Manufacturer’s catalogues indicating specific equipment selected.
2. Shop drawings.
a. Floor plans: Indicate final devices locations and routing of raceway connections.
b. Details of control panels including controls, instruments and labeling.
c. Wiring diagrams: Power, signal and control wiring.
d. Schematic diagrams showing all KNX switching, actuating and indicating devices, main
and sub distribution boards, etc…
e. Written description of sequence of operation including, but not limited to, method of
operation and supervision of each type of equipment and sequence of operations for
manually and automatically initiated system inputs and outputs.
f. Listing of materials of all proposed devices and equipment.
g. Listing of points schedules including all KNX devices and distribution method.
h. Software graphics documentation indicating monitored systems andoperator notations.
i. System configuration showing peripheral devices, batteries, power supplies, diagrams,
modems, and interconnections.
B. Spare parts: provide manufacturer’s recommended spare parts for emergency replacement and/or one
year’s maintenance including, but not limited to the followings:
1. Program software backup on a compact disc, complete with data files, printout of software
application manuals.
2. Maintenance instructions manuals.
3. Interconnection wiring diagrams with identified and numbered system components and devices.
4. Step-by-step procedures indexes for each operator functions.
5. Inspection period, cleaning methods, cleaning materials recommended, and calibration
tolerances.
6. Calibration records and list of set points.
A. The KNX system shall be installed by competent mechanics and checked out by competent technicians
regularly employed by the manufacturer of the equipment.
B. Single source responsibility of the KNX contractor shall include supervision of installation, calibration,
and checkout of the stand–alone subsystems.
C. The KNX contractor shall have an in-place, local support facility with technical staff, spare parts
inventory, and all necessary test diagnostic equipment.
A. It is the responsibility of the KNX contractor to be familiar with all codes, rules, ordinances, and
regulating of the Authority Having Jurisdiction and their interpretations, which are in effect at the site
of the work.
B. The latest issue of applicable standards and recommended practices of the KNX Association in effect shall
form a part of the specification to the extent each agency’s relative standards or recommended practices
apply to the Systems and its components as specified herein.
C. The KNX contractor shall be solely responsible for compliance with all health and safety regulations,
performing this work in a safe and competent manner, and use industry accepted installation
procedures required for the work as outlined in these documents.
D. All systems equipment, components, accessories, and installation hardware shall be new and free from
defects. All components shall be in current hand and shall be a standard product of the system or
device manufacturer. Refurbished or reconditioned components are unacceptable. Each component
shall bear the make, model number, device tag number (if any), and the listing label as applicable. All
Systems components of a given typeshall be the product of the same manufacturer.
Provide tools and instruments required for normal routine inspection, maintenance and testing as
appropriate for type of system supplied.
PART 2 - PRODUCTS
Subject to compliance with the specifications and design documents, obtain systems and devices from
one of the followings:
C. Software tool for complete facility management with visualization, automation, and integration:
ETS-3 Professional which shall support the following phases and tasks in the realization of Home and
Building Automation projects of any size:
1. Design
2. Commissioning
3. Project Documentation
4. Diagnostics and Troubleshooting
A. The Low Voltage Programmable Lighting Control System shall be designed & developed in accordance
with the KNX technology to cover building control requirements such as lighting control (On/Off and
dimming), shutter & blinds control (Open/Close), temperaturecontrol and load management based on
one or more applications such as motion, presence, time, daylight & brightness, manual switches,
temperature…etc.
B. A two-wire bus cable shall link in parallel all sensors (push buttons, brightness sensors, motion sensors,
timers, etc.) and actuators (on/off controllers, dimming controllers, shutter controllers…etc.) to each
other. The bus cable shall be a twisted pair, screened & shielded with solid conductors and shall be
capable of handling information exchange and supplying power to the bus devices. Separate power
supply to any of the sensors and actuators shall not be acceptable. The bus cable shall be laid in the
building in the form of a linear, star or tree structure similar to the power mains. Systems requiring fixed
wiring configurations shall not be acceptable.
C. The system shall be completely de-centralized and programmable. The programming shall be
implemented via a PC or notebook computer located anywhere in the system and having access level
passwords. Programming via local system switches or with no password security shall not be acceptable.
Any device in the system shall be accessed for programming from the PC location without having to
manipulate the device locally.
D. Each device in the system shall be addressable via a software programmable physical address. Any
device in the system shall communicate with any other device via software programmable group
addresses (telegrams). Each individual device will respond to only those group addresses for which they
are programmed to do so. There shall be an EEPROM storing the physical address, group addresses &
other software parameters for every device, thus making it intelligent. No centralized processors or
centralized memory storage devices shall be permitted.
E. It shall be possible to program any of the devices on-line at the working site without affecting any of
the system devices or the system operation as well as off-line prior to dispatch of the material to site.
F. The entire system shall consist of bus lines each consisting of up to 64 devices. Two consecutive lines
shall be connected to each other via line couplers that act as network filters and provide communication
between devices in different lines. In the event of failure of a device in one line, only the control
functions controlled by that device shall be affectedand all other devices shall continue to operate as
normal. Any system withrouters / couplers that require separate power supply shall not be acceptable.
The power supply module feeding power to the network shall consist of an uninterruptible power
supply that generates the KNX system voltage. The power supply shall integrate a choke for de-
coupling the bus line from the power supply. The power supply shall include a lead-gel rechargeable
accumulator (12V / 12AH battery mounted inside the KNX panelboard) for buffering the KNX bus
voltage in case of a power failure. Two lead-gel accumulators shall be able to be connected and charged
via the uninterruptible power supply. The charging voltage shall be controlled by the feedback of the
battery temperature via a built-in temperature sensor.
The uninterruptible power supply shall include a zero-voltage 2-way switch for reporting faults (e.g.
mains failure, accumulator failure, overload or short circuit).
Primary rated voltage: 230 V AC, 50/60 Hz Secondary rated voltage: SELV 28 V to 31 V DC
Secondary rated current: 320 or 640 mA or multiples (as required by the bus topology), short-circuit-
proof.
This uninterruptable power supply shall enable the system to automatically put all actuators in a fail-safe
position (either on or off or as it is) in the event of a power failure and just before the battery is
completely depleted.
G. The diagnostic modules shall scan the system for any faults in the bus wiring and display analarm LED
in the event of faults in the wiring.
H. Each of the devices shall have a built-in push button along with a LED. The LED shall lit in the event the push
button is pressed and if there is power to the device, thus depicting that thedevice is communicating in
the system.
I. In the event of power failure or bus wiring failure each of the system devices (switching modules and
dimming controllers…etc.) shall be programmed to attain a fail safe position (controlled circuits to
become “On”, “Off” or “As it is, Last status”). When power is restored, the system shall resume its last
operation state.
J. All devices in the system shall be compliant to CE, EN and IEC standards and should be manufactured
in accordance with the EMC and the low voltage guidelines. Full compliance with KNX Association
standards and guidelines is a must. All devices shall be KNX Association certified.
K. The KNX System shall be interfaced with the Building Management System so as to monitor and control
the required circuits from the BMS workstation. It shall allow the interface of controls between KNX
devices and non-KNX, BMS controlled devices.
L. The KNX System shall include a visual programming and monitoring software tool for complete facility
management with visualization, automation, and integration, able to reproduce graphics, drawings
(from AutoCAD), logs and statistics. The software shall also be able to override automated sequences for
a user defined period of time with automatic recovery of normal program after override period of time
expires. The software (and computer system it is using) shall not be used to execute the normal automated
day-to- day program (time schedules, sequence of operations, cause to effect matrix….) which shall be
done solely by the bus devices.
A. The programmable lighting and control system shall consist of two levels of control:
1. Level 1): Central KNX PC workstation based graphics software for time based control and manual
override by the operator. The software shall consist of graphics based overview of the entire
building, floors, decorative areas and corridors. It shallhave the necessary timer modules to
control the circuits in the form of various groups. It shall be possible to pre-program the time
channels in advance with special holiday programs, weekly programs, etc. These time-based
controls offered by the central KNX PC shall only be used for manual override operations and
not forthe usual operation.
2. Level 2: A second level of standalone operation shall also be provided via local controller
modules capable of being programmed with switching times locally without the need to connect
a central KNX PC. Multiple-channel controllers capableof being programmed with multiple time
schedules / lighting scenarios shall be provided for the lighting and control system. The
controllers shall be provided for each network group of 64 devices to ensure this standalone
operation. The system shall be designed such that the system remains operational at all times
in the auto mode.
3. All circuits including those which are controlled based on applications such as occupancy
sensors, daylight, local switches…etc. shall at all times be working in the standalone ‘Auto’ mode
with monitoring and override control possible from an optional central KNX PC Workstation .
B. Lighting control panels (relay panels) (LCPs): Those shall be integrated in the secondary distribution
boards. The LCP shall house the system devices and the related control equipment depending on the
no. of circuits being controlled. Where constructionaly feasible the lighting control system devices and
related equipment shall be mounted inside the distribution board. This is to ensure the power wiring
between the distribution board devices and the control modules is kept to a minimum. The LRPs shall
have the same constructional specifications of the associated distribution board they serve (refer to
sections 260000, 262726, 262416 and 260923 of the specifications as applicable).
C. Dimmer control panels: Those shall be integrated in the secondary distribution boards. The Dimmer
control panel shall house the system devices, Dimmer modules and therelated control equipment
depending on the No. of circuits being controlled. Where constructionaly feasible the dimming system
devices and related equipment shall be mounted inside the distribution board. This is to ensure the
power wiring between the distribution board devices and the dimming modules is kept to a minimum.
The dimming panels shall have the same constructional specifications of the associated distribution
board they serve (refer to sections 260000, 262726, 262416 and 260923 of the specifications as
applicable).
D. Lighting and control system applications: The system shall achieve the required lighting and control
tasks based on the following applications;
1. Lighting Control applications. The lighting and control system is capable – but notlimited – of
performing lighting control based on the following applications:
a. Local switches.
b. Dimming control through manual switches / and Infrared switches.
c. Brightness Dependent control.
d. Motion Sensors
e. Presence Detectors.
f. Light Scenes.
g. Time based Control (Switching / Dimming).
h. Constant Light control.
2. Blinds / Shutter Control applications. Blinds / Shutter control system is capable – but not limited –
of Opening / Closing blinds / shutters based on the following applications:
a. Brightness level.
b. Daylight sensor.
c. Manual as well as remote control via Infrared switches.
d. Time based control.
3. Temperature Control applications. Temperature control is possible – but not limited – based
on the following applications:
a. Presence Detectors.
b. Time based control.
c. Local control via Room thermostat.
d. Local control via combined Low voltage switches with Room thermostat.
4. Remote control and monitoring via Network. The system shall able to be controlled (override
and/or reprogrammed) and monitored over the LAN network.
A. Touch Screens
1. The KNX/EIB touch screen shall be the central switching unit for intelligent electricalinstallations.
2. Touch display shall 5.7" TFT and enable intuitive navigation and provides an overview of the status
of the entire home.
3. The color display shall provide functions such as switching, dimming and blind control, light
scenes can be saved and called up, and a variety of bus functions shall be able to be interlocked
easily. The user menu shall be freely definable and individually structured.
4. The touch screen shall include a built-in network connection that provides a spectrum of
internet functions. The network connection shall allow data to be downloaded, news services
to be subscribed to and fault messages to be sent per e- mail.
5. The specifications and functionalities of the touch screens shall be:
a. TFT touch display with 320 x 240 pixels (5.7" / 4096 colors)
b. 16 operating and display elements per page, up to 50 pages (up to 400display
elements)
c. Detailed functions can be operated and displayed via submenus
d. Customized background images (jpg, bmp)
e. Reception and display of e-mail (text mail), max. 5 e-mail mailboxes
f. News services in RSS 2.0 format (max. 8 RSS feeds)
g. Fault messages via e-mail
B. Local Switches
1. Local switches shall be able to be used for On/Off switching, Dimming or as an over ride switch
in conjunction with other applications such as Motion Sensors, Brightness Dependent control…etc.
2. There shall be low voltage system switches (where indicated on drawings) to controlthe On/Off
circuits locally. It shall be possible to program on a case-by-case basis if the lighting control
applications or the low voltage system switches have priority on the circuit control. The low
voltage switches system switches shall have indication for ‘On’ and ‘Off’ status with different
colors with a possibility to reverse them via software. In the case of circuits switched in parallel
from multiple signals, the switch‘LED’ shall display the true status of the circuit based on the
latest signal sent to the particular circuit. It shall be possible to control any circuit in the system
from any ofthe switch channels to ensure all channels are available for entire control of the
system.
3. Master On/Off switching shall be possible from any switch located anywhere in the system
4. Low voltage switches shall be given an identifying symbol and location / function shall be
indicated on the shop drawings.
5. Lighting control modules for On/Off switching shall be as described under Section 2.7A of this
specification.
6. Dimming Control modules shall be as described under Section 2.7B of this specification.
C. Dimming Control
1. There shall be manual local dimming control (where indicated on drawings) vialocal dimming
switches having up to 8-gang switches with built in infrared receiversfor accepting remote
control and dimming signals from infrared transmitter (where indicated on drawings). The
dimming switches shall be flush mounted. Each of the switch channels shall respond in such a
way that if the switch is pushed with a “short- push”, the circuit shall switch on at a pre-
programmed brightness. If the switch is given a “long-push”, it shall recognize it as a dimming
command and shall keep dimming up or down until the depressed button is released. Further,
these infrared switch channels shall also be capable of generating “light scenes” if programmed
todo so. Each of the switch channels shall be programmed to generate two light scenes (ex: giving
a maximum of 6 Scenes for every 3-gang switch). The assignment of discrete intensity level for
lighting groups shall be either by use of the Manual Dimmer Control Plate, Infrared Transmitter
or a Hand held programming Console orPC.
2. The dimming switches having more than 3 gangs, where specified, shall have a built in
temperature sensor & temperature set-point adjusting facility as and when the same switch is
used for temperature control.
3. There shall be Infrared and Radio Frequency (RF) Remote controls in addition to the manual
dimming switches (where specified on drawings or BOQ); the infrared or RF receivers shall
accept signals from the remote control units (transmitters), which shall operate on replaceable
batteries. The remote control unit shall have different channel buttons to switch ON/OFF the
various circuits at different level of brightness with separate dim-up and dim-down buttons. Each
of the Remote control channels shall respond to the Manual Switch channel in the same
manneras described in the above paragraph.
4. Low voltage switches with infrared receivers shall be given an identifying symbol and location /
function shall be indicated on the shop drawings.
4. Lighting control modules for On/Off switching shall be as indicated under Section 2.7A of this
specification.
E. Motion Sensors
1. All lighting in areas controlled by Movement Sensors / Detectors shall be controlled such that
unnecessary lights shall be switched “OFF” based on occupancy – movement -, Also lights
redundant due to sufficient daylight shall be switched ‘OFF’ based on light sensor (if so
indicated) and time schedules. Those lights shall be switched ‘OFF’ during the day to reduce
consumption when no movement is detected.
2. Detection will be via movement sensors strategically placed to give the required coverage.
During evening or as per pre-programmed times, alternate circuits or as decided at the time of
commissioning shall remain ‘ON’ while the others shall continue to be controlled based on
movement. The movement sensors shall have a built-in lux sensor (if so indicated) with an
adjustable set point so as not to switch ‘ON’ circuits even after detecting movement due to
sufficient natural light. There shall also be an adjustable ‘OFF’ delay on the movement sensor from
1 sec to 16 min. to ensure that circuits are not switched ‘OFF’ immediately. Further, the
movement sensor shall incorporate an “ON-Auto-OFF” switch for maintenance and local
override purpose. In addition, the staircase circuit shall be controlled via pre- assigned time
controller program or via low voltage over ride switches as indicated on the drawings.
3. Lighting control modules for On/Off switching shall be as indicated under Section 2.7A of this
specification.
F. Presence Detector
1. All lighting in areas controlled by “PD” (Presence Detector) shall be controlled such that lights
shall be switched “ON/OFF” based on presence (movement). Also, lights redundant due to
sufficient daylight shall be switched ‘OFF’ based on light sensor and time schedules. When no
presence is detected lights shall be switched ‘OFF’ to reduce power consumption. Detection will
be via ceiling mounted Presence Detectors strategically placed to give the required coverage.
When presence is detected the sensor shall switch ON lights (and A/C units as and when
required).
2. The Presence Detectors shall have a built-in lux sensor with an adjustable set point so as not to
switch ‘On’ circuits even after detecting presence due to sufficient natural light. There shall also
be an adjustable ‘OFF’ delay on the movement sensor from 10 sec to 30 min. to ensure that
circuits (and A/C) are not switched ‘Off’ immediately.
3. When ceiling mounted at a 2.5m height from floor level presence Sensor detecting range shall
be 360 degrees with a diameter of 8m - 9m at floor level and a diameterof 6m at 1m height from
floor level.
4. Lighting control modules for On/Off switching shall be as indicated under Section 2.7A of this
specification.
G. Light Scenes
1. Light Scenes shall be created in a particular area by applying one or more of the applications
such as switching ON/OFF lighting circuits, dimming other lighting circuits and Shutters or blinds
control opening/closing.
2. There shall be light scenes based on ON/OFF switching, Dimming, Shutter Control, time
control…etc. Light Scenes shall be created in a way to take full advantage of the system functionality
and as per the architect request in line with the Light Specialistand operation requirement.
3. Light scene control shall be via local scene switches having multiple gang switches with built in
infrared receivers (where indicated) for accepting remote control and scene switching signals
from infrared transmitter. The scene switches shall be flush mounted (unless otherwise
indicated). Each of the switch channels shall be programmed in such a way that when pressing
the switch with a “short-push” the corresponding desired light scene at a particular served area
shall be active by switching lighting circuits ON/OFF, dimming other lighting circuits and
opening/closing shutters. Each of the switch channels shall be programmed to generate two light
scenes per switch gang. The user shall be able to create/program light scenes locally via the above-
mentioned switches as per his preference without the need for any programming device or PC.
The assignment of discrete intensity level for lighting groups and shutters shall be either by use
of the Manual Dimmer Control Plate, Infrared Transmitter or a Hand held programming Console
or PC.
4. There shall be Infrared Remote control in addition to the manual dimming switches (where
indicated on drawings or BOQ); the infrared receivers shall accept signals from the remote
control units (transmitters), which shall operate on replaceable batteries. The remote control
unit shall have different channel buttons to switch ON the various light scenes. Each of the
Remote control channels shall respond to the Manual Switch channel in the same manner as
described in the above paragraph.
5. Multiple Light scenes shall be created using multi-channel (scenes) controllers from which
scenes can be created and stored
6. A Controller device consisting of up to a 100 Scene channels (groups) in the form of lighting
scenarios shall control circuits (such as switching lighting ON/OFF, dimming lights up/down,
open/close shutters…etc.) on a particular network group (line) suchas to have local standalone
operation. It shall be possible to send signals from one controller channel in one network to
circuits in another network if programmed to do so. This is to ensure that all scene/timer
channels are available for control of all circuits in the system. Each controller shall be capable
of being programmed locally with scenes for any of the channels (up to a hundred) combined
together, without the need to connect a PC. Each of the channels shall have a manual operation
function to over-ride the channel to ‘ON’ or ‘OFF’ irrespective of the scene programs. The controller
shall have a built-in EEPROM to ensure that the scene programs and control groups are retained
even in the event of power failure. IT shall be possible tolocate this controller device any where
in the system by connecting it to a flush mounted RS 232 or preferably USB interface with the
bus. Lighting controllers’ locations within the system shall be such that a fault on a line does not
interfere withthe operation of other lines in the system.
7. Lighting control modules for On/Off switching shall be as described under Section 2.7A of this
specification.
8. Dimming Control modules shall be as described under Section 2.7B of this specification.
A. There shall be blind/shutter control for Opening / Closing shutters where indicated on drawings, BOQ
or elsewhere in the specifications.
B. Control shall be based on brightness level or daylight sensor, override via time channels (schedules)
shall be possible. Control shall be possible also via multiple-gang local low voltage switches used for
lighting control and/or dimming. Manual low voltage switches shall be with infrared receiver (where
indicated) for controlling shutters/blinds via infraredremote control. Shutter motor shall be provided
by shutter supplier.
C. Blinds/Shutter Control Module shall be as described under section 2.7 / D of this specification.
A. The system shall be capable of being remotely controlled and monitored via the Intranet (or Internet if
provided with a real IP number and if security arrangements like fire walls, VPN…etc are deemed secure
by the IT department of the project).
B. Control shall be by using an Intra-net / Internet Gateway from the KNX system manufacturer to insure the
integrity of the system. The Intranet / Internet Gateway shall be able to send alert signal to the user
automatically via text messages. The Gateway shall also be able to transmit Video pictures when
connected to Video module and standard Video camera withUSB connection.
5. Each of the relays shall be capable of being programmed with its own ‘ON’ and ‘OFF’delays that
shall be applicable irrespective of the signal from which the relays are controlled.
6. The control modules shall receive its operating power supply from the same bus cable without
any other power supply. It should not operate on any 220/240 V AC supply to avoid possible fire
hazards.
7. Each of the control modules shall have its own individual address and shall be capable of being
programmed from the central PC for the purpose of changing parameters without the need to
access the module locally.
2. Dimming modules for fluorescent & Cold Cathode type light fittings:
a. The dimming modules shall be plug-in type DIN rail-mounted comprising of two-16A AC1
switching channels (latch-on type relay) and two passive 0 – 10 VDC channels for the high
frequency dimmable ballasts. Dimmers providing 1 – 10 VDC (10 – 100 % brightness)
signal shall not be acceptable.
b. Each of the dimming modules shall be designed to operate the load as per the consultant
approved load schedule.
c. Each of the switching channels shall be used to switch the light fittings ON/OFF while the
corresponding 0 – 10 VDC channel will provide the control (dimming) for the high
frequency dimmable ballasts. Dimmers without latch- on type relay switching channel
shall not be acceptable.
d. Each of the channels shall be individually programmed to control a circuit irrespective of
the other channel-controlled circuit.
e. The dimming module shall include an additional two signal input terminals for connecting
light sensors, thus dimmer module when combined with light sensor can be used as 2-
channel light controller for constant light control if required.
f. Dimming circuits shall be able to be switched on with preprogrammed value from 0 –
100%, additionally dimming shall be also possible between preprogrammed minimum
and maximum values.
g. Dimming controller shall be capable of being programmed to attain a fail- safe position in
the event of power failure. On power restoration after a power loss to the system, the
control system shall automatically revert back to the particular setting for each channel
prior to the power loss.
h. Fluorescent & Cold Cathode type light fittings shall be equipped with High Frequency
Dimmable Ballasts accepting 0-10 VDC signal. These High Frequency dimmable ballasts
should be an integral part of the light fittings and supplied by the light-fitting
manufacturer in coordination with the KNX system supplier for any compatibility issues.
C. Constant light control module shall be:
1. Plug-in type DIN rail-mounted comprising of two 16A, AC1 switching channels andtwo passive
0 – 10 VDC channels for the dimmable HF electronic ballasts.
2. Each of the control modules shall be designed to operate the load as per the consultant
approved load schedule.
3. Each of the switching channels shall be used to switch the light fittings ON/OFF while the
corresponding 0 – 10 VDC channel will provide the control (dimming up/down) for the
dimmable ballast to maintain constant light control.
4. Each of the channels shall be individually programmed to control a circuit irrespective of the
other channel-controlled circuit.
5. The control module shall include two signal input terminals for connecting light sensors, thus
when combined with light sensor it will be used as 2-fold light controller for constant light
control.
6. Capable of being programmed to attain a fail-safe position in the event of power failure. On
power restoration after a power loss to the system, the control system shall automatically revert
back to the particular setting for each channel prior to the power loss.
7. When constant light control is used with fluorescent type light fittings, the light fittings shall be
equipped with High Frequency Dimmable Ballasts accepting 0-10 VDC signal. These High Frequency
dimmable ballasts should be an integral part of the light fitting and supplied by the light-fitting
manufacturer.
8. The two channel constant light controller shall provide constant lighting control for the filament
type light fittings by sending up/down dimming signals to other dimmer modules dimming other
filament type light fittings in the system to achieveconstantlighting.
9. If the constant light control is required for fixtures that do not operate with dimmable electronic
ballasts, then dimming modules for filament type lightingfixture shall be used in conjunction with a
KNX light sensor. The functionality of the constant light control system for filament type lighting
fixture shall be the same as the one forfixtures controlled by dimmable HF electronic ballasts.
D. Blinds/Shutter Control Modules shall be:
1. Plug-in type DIN rail-mounted suitable for controlling up to four (4) independent 230 VAC or 24 VDC
drive mechanisms or surface mounted with built-in bus coupler for controlling one (1) 230 VAC
or 24 VDC drive mechanisms.
2. Shutter controllers shall have up to four (4) independent channels, each with 2 switch contacts
for up/down control.
3. Each channel contact shall be rated at 6 A per switch contact.
4. The control module shall have a safety feature that avoids any possible damage to the drive
mechanism due to sudden changes in direction. Mechanism protecting shall be via identifying a
fixed time base for determining the pause between changes in direction.
PART 3 - EXECUTION
A. Install raceways, boxes, and cabinets according to Division 26 Section "Raceways, Boxesand fittings"
B. Install building wire and cable according to Division 26 Section "Wires, cables supporting systems and
related accessories."
C. Install signal and communication cable according to Division 26 Section "Control/Signal Transmission
Media."
1. Conceal cable, except in mechanical rooms and areas where other conduit and piping are
exposed.
2. Install exposed cable in raceway or clipped on ceiling walls (refer to design drawings).
3. Install concealed cable in raceway.
4. Bundle and harness multiconductor instrument cable in place of single cables where several
cables follow a common path.
5. Fasten flexible conductors, bridging cabinets and doors, along hinge side; protect against
abrasion. Tie and support conductors.
6. Number-code or color-code conductors for future identification and service of control system,
except local individual room control cables.
D. Wiring Method: Install wiring in rigid PVC heavy gauge conduits (refer to specification requirements).
F. Cable Taps: Use numbered terminal strips in junction, pull and outlet boxes, cabinets, or equipment
enclosures where circuit connections are made.
G. Risers: Install vertical cable risers to serve the Building Management System as indicated on riser diagram.
3.2 IDENTIFICATION
A. Identify system components, wiring, cabling, and terminals according to Division 26Section
"Basic Electrical Materials and Methods."
3.3 GROUNDING
B. Signal Ground Terminal: Locate at main equipment rack or cabinet. Isolate from power
system and equipment grounding.
3.5 DEMONSTRATION
A. Cleaning: Remove paint splatters and other spots, dirt, and debris. Touch up scratches and marred finish to
match original finish. Clean unit internally using methods and materials recommended by manufacturer.
A. Occupancy Adjustments: Within one year of date of taking over certificate, provide up to three Project
site visits, when requested by Owner, to adjust and calibrate components and to assist Owner's
personnel in making program changes and in adjusting sensors andcontrols to suit actual conditions.
PART 1 - GENERAL
A. Drawings and general provisions of the Contract, including General and Supplementary Conditions and
Division 01 Specification Sections, apply to this Section.
B. Where Paragraphs of this Section conflict with similar paragraphs of the General and Supplementary
Conditions and Division 1, requirements of this Section shall prevail.
A. Provide all labor, materials and equipment to furnish and install all of the items specified herein,indicated on
the drawings and as necessary for the proper and complete performance of work and conformance with all
applicable code requirements.
B. Section includes:
1. MDBs: Main Distribution Boards feeding the normal electrical loads;
2. EMDBs: Emergency Main Distribution Boards feeding the emergency and essential electrical loads;
3. SMDBs: Sub Main Distribution Boards feeding the normal electrical loads;
4. ESMDBs: Emergency Sub Main Distribution Boards feeding the emergency and essential electrical
loads;
5. ATS: Automatic Transfer Switch.
1.3 REFERENCES
A. Publications listed below (including amendments, addenda, revisions, supplements, and errata) form part of
this specification to the extent referenced. Publications are referenced in the text bythe basic designations
only:
1. International Electro-Technical Commission:
a. Switchgear and control gear assembly are to comply, as a minimum, with IEC EN 61 439-1 & 2 for
Factory-Built assemblies with Certified Design Verification of Low Voltage Switchgear (as indicated on
BOQ and drawings).
b. Circuit breakers are to comply with IEC 947- 2 as specified.
c. Other components, where not otherwise specified, are to comply with the relevant IEC standards.
1.4 SUBMITTALS
A. EQUIPMENT DATA: submit for approval detailed description of main distribution boards and major
components supported by manufacturer’s catalogues, indicating compliance with the Standards, equipment
characteristics, details of construction, operating data, dimensions and weights etc. Give details of
miscellaneous items including incoming and outgoing feeder terminal arrangement, connections at busbars,
isolating, earthing, interlocks, control devices, digital indicating and metering instruments etc
B. TEST AND CERTIFICATES: submit complete certified manufacturer’s type and routine test records,in accordance
with the Standards.
D. TECHNICAL LITERATURE: submit the following for approval prior to placing orders for equipment
manufacture:
1. Schedule of circuit breakers application, indicating type, range, features and characteristics, short-
circuit ratings, time- current curves etc.
2. Method of setting of protective devices for overload, short- circuit and earth- fault current as coordinated
with upstream and downstream systems based on specific coordination curves of protective devices used
and specific calculated prospective short- circuit currents at various points.
3. Test methods on site and references.
G. Field Test Reports: Indicate and interpret test results for compliance with performance requirements.
H. Operation and Maintenance Data: For Main and Sub-main distribution boards and components to include
in emergency, operation, and maintenance manuals. In addition to items specified in Division 01 Section
"Operation and Maintenance Data," include the following:
1. Manufacturer's written instructions for testing and adjusting overcurrent protective devices.
2. Time-current curves, including selectable ranges for each type of overcurrent protective device that
allows adjustments
I. Main and Sub-main distribution boards Schedules: For installation in Main and Sub-maindistribution boards.
Submit final versions after load balancing.
A. Manufacturer Qualifications: Maintain a service center capable of providing training, parts, and emergency
maintenance and repairs.
B. Source Limitations: Obtain similar Main and Sub-main distribution boards devices through one source from
a single manufacturer.
C. Comply with IEC EN 61 439 & IEC 364 for construction form as indicated on drawings. Addition- ally, comply
with local regulations.
D. Product Selection for Restricted Space: Drawings indicate maximum dimensions for Main and Sub main
distribution boards, including clearances between Main and Sub-main distribution boards and adjacent
surfaces and items, and are based on types and models indicated.
A. Deliver in shipping splits of lengths that can be moved past obstructions in delivery path as indi -cated.
B. Contractor to store, protect, and handle Main and Sub-main distribution boards in accordance with
recommended practices listed in manufacturer’s Installation and Maintenance Manuals.
C. The contractor shall store in a clean, dry space. Maintain factory protection or cover with heavy canvas or
plastic to keep out dirt, water, construction debris, and traffic. Provide temporary heaters as required to
prevent condensation.
D. Handle Main and Sub-main distribution boards according to, "Instructions for the Handling, In- stallation,
Operation, and Maintenance of Main and Sub Main Distribution boards." Use facto- ry- installed lifting provisions.
E. Field Measurements
1. Contractor to make all necessary field measurements to verify that equipment shall fit in allocated
space in full compliance with minimum required clearances required by the manufacturer and/or
specified in IEC and local regulations.
2. Coordinate installation with other trades and notify the Architect in writing of any inter - ferences or
conflicts.
A. Provide manufacturer’s recommended spare parts for emergency replacement and/or one year’s
maintenance including, but not limited to, the followings:
1. One set of fixed and moving contact for every type of replaceable (consumable) contact set.
2. One operating motor and/ or coil for each type of electrically operated circuit breaker orcontactor.
3. Two sets of each type of indicating lights, fuses, LEDs etc.
1.8 WARRANTY
1. General Warranty: The special warranty specified in this Article shall not deprive the Owner of other
rights the Owner may have under other provisions of the Contract Documents and shall be in addition
to, and run concurrent with, other warranties made by the Contractor under requirements of the
Contract Documents.
2. Special Warranty: A written warranty, signed by Contractor and manufacturer, agreeing to replace
any component of the system / panel board assemblies that do not meet requirements or that fail
within the specified warranty period.
3. Warranty Period: 2 years from date of taking over certificate for any component of the system.
A. Provide tools and instruments required for normal routine inspection and maintenance and testing of circuit
breakers and protective devices as appropriate for type of switchgear supplied.
A. Subject to compliance with the specifications and drawings, obtain sub-main and main distribution boards
equipment, from a panel board builder with an up-to-date TTA license from the panel board manufacturer.
The panel board builder’s TTA license shall be at least 5 years old and the panel board builder shall have
previously executed at least 10 projects that include TTA panels that the consultant deems successful.
PART 1 - GENERAL
A. Drawings and general provisions of the Contract, including General and Supplementary Conditions and
Division 01 Specification Sections, apply to this Section.
B. Where Paragraphs of this Section conflict with similar paragraphs of the General and Supplementary
Conditions and Division 1, requirements of this Section shall prevail.
A. Provide all labor, materials and equipment to furnish and install all of the items specified herein,indicated on
the drawings and as necessary for the proper and complete performance of work and conformance with all
applicable code requirements.
B. Section Includes:
1. DB: Distribution board supplying the lighting & power circuits.
2. EDB: Distribution board supplying the emergency and essential circuits.
3. UDB: Distribution board supplying the circuits fed from UPS system.
A. Unless otherwise mentioned panel boards generally are to comply with the requirements of IEC EN 61439-
1, 2 & 3 for Factory-Built assemblies with Certified Design Verification of Low Voltage Switchgear (as
indicated on BOQ and drawings).
D. Other components, where not otherwise specified, are to comply with the relevant IEC standards.
1.4 SUBMITTALS
A. EQUIPMENT DATA: submit data for approval including, but not limited to, the following:
1. Manufacturers' catalogues indicating specific equipment selected.
2. Types of panel boards and circuit breaker characteristics including duties and ratings compensation
at and above 40°C ambient conditions and corresponding temperatures within the enclosures.
3. Dimensions of panels and specific contents of each panel board.
B. TESTS AND CERTIFICATES: submit complete certified manufacturer's type test and routine test records in
accordance with the Standards.
C. SHOP AND CONSTRUCTION DRAWINGS: submit drawings for approval including, but not limited to, the
following:
1. Include dimensioned plans, elevations, sections, and details.
2. Detail features, characteristics, ratings, and factory settings of individual overcurrent protective
devices and auxiliary components.
3. Include wiring diagrams for power, signal, and control wiring.
4. Cable terminal sizes.
5. Exact composition of each panel board, indicating busbar rating, frame or continuous rating and trip
ratings of circuit breakers.
6. Typical installation details of panel boards, indicating main feeder and branch circuit conduit
connections, terminal provisions, tags, labels, mounting methods and materials used.
D. All protecting device shall show: the Short circuit current value, the voltage drop, the indirect protection
function in case of a fault with respect to the earthing system.
E. Panel board Schedules: For installation in panel boards. Submit final versions after loadbalancing.
F. Operation and Maintenance Data: For panel boards and components to include in emergency, operation,
and maintenance manuals. In addition to items specified in Division 01 Section "Operation and Maintenance
Data," include the following:
1. Manufacturer's written instructions for testing and adjusting overcurrent protective devices.
2. Time-current curves, including selectable ranges for each type of overcurrent protective device that
allows adjustments.
A. Manufacturer Qualifications: Maintain a service center capable of providing training, parts, andemergency
maintenance and repairs.
B. Source Limitations: Obtain similar DBs, EDs & UDBs devices through one source from a single manufacturer.
C. Comply with IEC EN 61 439 parts 1, 2, 3 & IEC 364 and NF C 15 100. For construction form as in- dicated on
drawings. Additionally, comply with local regulations.
D. Product Selection for Restricted Space: Drawings indicate maximum dimensions for DBs, EDs & UDBs,
including clearances between panelboards and adjacent surfaces and items, and are based on types and models
indicated.
A. Remove loose packing and flammable materials from inside panel boards; install temporary electric heating
(250 W per panel board) to prevent condensation.
B. Handle and prepare panel boards for installation according to the relevant IEC standard.
D. Protect equipment throughout construction from damage, weather, excessive temperature, and construction
operations.
A. Environmental Limitations:
1. Do not deliver or install panel boards until spaces are enclosed and weathertight, wet work in spaces is
complete and dry, work above panel boards is complete, and temporary HVAC system is operating and
maintaining ambient temperature and humidity conditions at occupancy levels during the remainder
of the construction period.
2. Rate equipment for continuous operation under the following conditions unless otherwise indicated:
a. Ambient Temperature: Not exceeding minus 5°C to plus 40°C.
b. Altitude: Not exceeding 2000 m.
B. Interruption of Existing Electric Service: Do not interrupt electric service to facilities occupied byOwner or
others unless permitted under the following conditions and then only after arranging to provide temporary
electric service according to requirements indicated:
1. Notify Construction Manager no fewer than five days in advance of proposed interruption of electric
service.
2. Do not proceed with interruption of electric service without Construction Manager's written
permission.
A. Closets are to be checked for clearances, spaces and ventilation, for the installation of proposed equipment,
prior to starting construction. Doors shall not be wider than 60cm. If closet door(s)’ width is larger than 60cm
then 2 doors arrangement shall be provided instead such that no door width exceeds 60cm.
A. Provide manufacturer’s recommended spare parts for emergency replacement and one year’s maintenance
including, but not limited to, the followings:
1. One set of fixed and moving contact for every type of replaceable (consumable) contact set.
2. One operating motor and/ or coil for each type of electrically operated circuit breaker orcontactor.
3. Miniature circuit breakers: Quantity equal to 5 percent of amount of each type installed, but not less
than one unit of each type.
4. Modular Contactors: Quantity equal to 5 percent of amount of each type installed, but not less than one
unit of each type.
5. Two sets of each type of indicating lights, fuses, LEDs etc.
1.10 WARRANTY
1. General Warranty: The special warranty specified in this Article shall not deprive the Owner of other
rights the Owner may have under other provisions of the Contract Documents and shall be in addition
to, and run concurrent with, other warranties made by the Contractor under requirements of the
Contract Documents.
2. Special Warranty: A written warranty, signed by Contractor and manufacturer, agreeing to replace
any component of the system / panelboard assemblies that do not meet requirements or that fail
within the specified warranty period.
3. Warranty Period: 2 years from date of taking over certificate for any component of the system.
A. Provide tools and instruments required for normal routine inspection and maintenance and testing of circuit
breakers and protective devices as appropriate for type of switchgear supplied.
A. GENERAL REQUIREMENTS
1. RATED INSULATION VOLTAGE is to be in accordance with the respective Standards.
2. PANELBOARDS are to be totally enclosed, dead front type, protection code IP 43, IK08 for indoor
installations surface mounted, IP 40, IK08 for indoor installations recess mounted, IP 55, IK10 for
indoor installations subject to egress and IP 65, IK10 for outdoor installations, in accordance with IEC
529, and are to be factory designed and assembled. The requested construction forms as per IEC EN
61439-1 & 2 is «Form 2B» without takinginto account that the outer case of a device i.e. an MCCB is
an acceptable segregation means.
3. EARTHING BAR is to be provided in every panel board.
4. PROTECTION is to be fully rated throughout the systems.
5. SERIES (CASCADE) AND DISCRIMINATION COORDINATED PROTECTION. All calculation notes shall
show the conformity of the protective devices to the « cascading » and discrimination characteristics
and levels.
6. CIRCUIT BREAKERS are to be non-fused type.
7. CIRCUIT BREAKER ARRANGEMENT: panel boards are to have one main incoming circuit breaker or
switch disconnector and the required number of branch circuit breakers, arranged as shown on the
Schedules, including spare circuit breakers and spaces for futureexpansion. Three or four-phase panel
boards are to be designed for sequence phase connection of branch circuit devices. The electrical
circuits for sockets and lighting up to 32A shall be protected with an earth leakage circuit breaker with
30mA sensitive trip, same protection shall be applied to the lighting circuit of bathrooms unless class II
and/or extra low voltage (12 volts) lighting fittings are used with Class II isolation transformers (IEC
60364-7-701 zone requirements for bathrooms are to be implemented).
B. PANELBOARD ENCLOSURES
1. TYPE: general purpose type, suitable for relevant ambient conditions, flush or surface mounted as
shown on the Drawings, comprising box, trim, or trim and door to approved manufacturer's standards
and sizes.
2. CONSTRUCTION: box, trim and doors where required, are to be electro-galvanized sheet steel of
gauges not less than specified and in accordance with the Standards. Welded joints are to be galvanized
after manufacture. Gutter spaces are to conform to the Standards, but are not to be less than 100
mm on all sides. Enclosure is to havepredesigned angles orthreaded end studs to support and adjust
mounting of interior panelboard assembly. Enclosures shall have glazed doors.
3. TRIMS are to cover and overlap front shield, covering all terminals and bus compartments,to form a
dead front panel. Trims are to be fixed to cabinet/box by quarter-turn clamps engaging flange of box
(use of screws engaging holes in flange of box is not acceptable). Screws where used are to be oval-
head, countersunk and flush. Trims for flush mounted panelboards are to overlap box and front
shields by at least 20 mm. Trims for surface mounted panelboards are to be exactly sized to form
flush fit to box.
4. DOORS are to have concealed hinges integral with trim, and flush combination cylinder lock and catch.
Doors over 1000 mm high are to have vault-type handle and multiple pointlatch mechanism. Locks are
to be keyed alike. Enclosures shall have glazed doors.
5. FINISH: inner and outer surfaces of cabinet/boxes, trims, doors etc. are to be cleaned, phosphatized,
chrome passivated and treated with final thermosetting epoxy powder modified by polyester resins
providing high resistance to mechanical injury, heat, acid and alkali solvents, grease, ageing and
corrosion and of Grey RAL 7032 color unless specifically agreed otherwise by the Engineer.
6. DIRECTORY under glass, or an approved alternative durable arrangement, are to be provided on
inside face of doors, or in metal label holders when trim without doors is specified. Directories are to
be typed to identify panelboards and clearly indicate circuit number and description of load.
7. INDOOR ENCLOSURE: sheet steel, minimum 1.0 mm thick for box/cabinet and minimum
1.5 mm thick for front shield, trim and door. Fixings for flush trim are to be adjustable to allow for
mis-alignment between box and wall surface. Wiring spaces (gutters) are to be at least 100 mm wide.
Larger gutters are to be provided where tap-off insulated split connectors are required. Knockouts are
to be provided in top or bottom of enclosures andare to provide a neat and uniform conduit/cable
terminal arrangement.
8. OUTDOOR ENCLOSURES are to be heavy duty sheet steel cabinets, minimum 1.5 mm thick, fully
weatherproofed (IP 65), without knockouts, but with removable sealed/gasketed bottom gland
plates and gasketed doors. Outdoor panel boards shall include anti- condensation heaters and all
panel boards shall be thermally studied.
C. BUSBARS
1. TYPE: one piece, 98% pure electrolytic copper, based on maximum total temperature riseof 35°C over
an ambient of 40°C at full continuous rating. Bolted contact surfaces are to have maximum current
density not exceeding requirements of the approved standards. Aluminium is not to be used for
busbars or panelboard parts.
2. DESIGN: busbars are to be shrouded/insulated and rigidly designed so that branch circuit devices can
be removed without disturbing adjacent units or changed without additional
machining, drilling or tapping. Busbars are to be full size without reduction. Busbar System and blank
plates are to allow installation of future circuit devices, where indicated on the Drawings.
3. RATING: busbar rating is to be at least equal to main-circuit breaker frame size plus 20%. Where no
main circuit breaker is required, busbars are to have main lugs or disconnect switch, with nominal
rating equal to standard circuit breaker frame sizes, and as shown on the Drawings.
4. SHORT-CIRCUIT DUTY: busbars are to carry maximum short-circuit duty of main protective device, which
is to be at least maximum short-circuit at point of application for one second, without showing any
signs of degradation.
5. TERMINALS AND CONNECTIONS are to be anti-turn, solderless screw-pressure type. Screws and bolts
used for making copper/copper connections are to be hard copper alloy with lock washers (riveted
bus connections are not acceptable).
6. NEUTRAL BAR is to be solid and fully insulated from cabinet or box. One solderless box type set-screw
connector is to be provided for neutral wire of each branch circuit and one bolted clamp-type
connector or anti-turn lug with set-screw for main incoming neutral wire. Neutral is to be fully sized and
rated as for phase busbars.
7. EARTHING BAR is to be copper, brazed to panelboard cabinet, with bolted pressure connector for
main conductor and one set-screw-type tunnel terminal for each outgoing conductor, to provide
secure and reliable contact with all metal parts and enclosure.
5. MCCBs FOR SDB: To comply with IEC947-2 test sequences I, II, III, utilization category A, and are to
have rated service short circuit breaking capacities to meet the electrical requirements at the panel
board location.
6. FRAME SIZE is defined as maximum continuous current rating of circuit breaker which corresponds
with its maximum trip range and which is to be related to minimum acceptable short-circuit
interrupting ratings, based on fully rated interrupting duties: normal duty (N), high break (H), or
current limiting (L), as specified.
7. FRAME SIZES are generally to be selected (according to schedules and drawings indications) with
minimum interrupting capacities and discrimination considerations at specified voltages and rated
frequency, in accordance with the calculations showing for each protective device (the circuit
breaker) its minimum rating, frame size and discrimination level. The shop drawings shall indicate these
values and should be justified by the contractor.
8. TRIPPED POSITION: when tripped automatically by overcurrent condition, operating mechanism of
circuit breaker is to assume an intermediate position clearly indicated by the handle between on and
off positions.
9. INTERCHANGEABLE TRIPS: thermal-magnetic trip circuit breakers 100 A frame size to 600/630 A
frame size are to have interchangeable trip units.
10. SEALING: circuit breakers with non-interchangeable trip units are to be sealed. Circuit breakers with
interchangeable trip units are to have trip unit covers sealed to prevent tampering.
11. COMPENSATION: thermal overcurrent trips are to be ambient temperature compensated between 25
and 50 deg. C.
12. ELECTRONIC TRIPS UNITS, unless otherwise specified or shown on the drawings are applicable to
circuit breakers 400 A frame size and larger, are to be solid state with long time delay settings between
0.4 and 1.0 times maximum trip rating, short time delay range of 2 to 10 times maximum trip rating
with a maximum clearing time of 0.2 seconds, and instantaneous protection adjustable from 2 to 11
times continuous rating (fixed at 11 times continuous rating for circuit breakers 250A frame and
lower). Solid state trip units are to be insensitive to changes in ambient temperature between -20
and
+55 deg. C. Earth fault protection is to be built into trip unit where specified and is to be adjustable
between 0.2 and 0.6 normal phase current pick-up. Maximum adjustable time delay shall be 0.4
seconds, and is to be suitable for connection to external current sensor. Push-to-trip button is to be
provided on cover for testing the trip unit. Electronic trip units for frame size 400 Amps are to have
current (I1 , I2, I3, IN, Iearth fault, Iearth leakage) measurement and display while electronic trip units for frame
sizes 630 Amps and larger are to have power (current measurement, V, kW, kVA, kVAR, Wh, pF,
Vpeak, Apeak) measurement and display.
13. RESIDUAL CURRENT OPERATED EARTH LEAKAGE TRIP DEVICES (RCDs) are provided as add- on or built-in
earth leakage accessories, where required and as shown on the Drawings. Protection against earth
fault current, in addition to overcurrent and short- circuit protection, is to be in accordance with the
Regulations. Trip current sensitivity on breakers for branch circuits is to be 30 mA, and for main breakers
ratings are to be as shown on theDrawings. Circuit breakers are to include current transformer with
tripping coil assembly, test button and trip free mechanism to ensure circuit breaker cannot be held
closed against earth faults.
14. CURRENT LIMITING CIRCUIT BREAKERS: molded case type without fusible elements. When operating
within current limiting range, the I2t of let-through current is to be less than 1/2 cycle wave of
symmetrical protective short-circuit current as compatible with breaker construction.
15. CURRENT LIMITING CIRCUIT BREAKERS are to have, on each pole, adjustable inverse time- delay over-
current characteristics for overload protection and instantaneous trip for short-circuit protection.
Operation of main contacts is to be based on electro-magnetic repulsion forces between contacts
created by fault current. Ratings are specified at ratedvoltage for an rms value of prospective short-
circuits current.
A. GENERAL:
1. To comprise set of homogeneous branch circuit breakers with unified profile and base, one main
circuit breaker or switch (as shown on drawings). Circuit breakers or other devices are to occupy
modular spaces. Accommodation of contactors and split-bus arrangement or other devices is not to
change regularity of standard box width.
A. GENERALLY: Energy meters shall combine the following functions in a single unit:
1. Metering of active and reactive energy.
2. Transmittal of all the measurements indicated below to the BMS system and a software suite from
the power meter manufacturer (to be supplied); over RS-485 Modbus with one RS-485 to Ethernet
TCP/IP interface to be provided for all power meters in the project.
B. MEASUREMENTS
1. Phase to neutral voltages (V1N, V2N , V3N ): 115 to 500 VAC, 1% accuracy.
2. Phase to phase voltages (U12, U23, U31): 115 to 500 VAV, 1% accuracy.
3. Currents (I1, I2, I3 and IN): 15 to 2500 A, 1% accuracy.
4. Maximum Current.
5. Frequency: 45 to 65 HZ, 0,02% accuracy.
6. Power factor: 1,5% accuracy.
7. Active Power: 1,5 accuracy.
8. Reactive Power: 1,5% accuracy.
9. Apparent Power: 1,5% accuracy.
10. Active energy consumed.
11. Reactive energy consumed.
12. Apparent energy consumed.
13. Reset of meters (including maximeter).
14. Measurement shall be available on the front panel of the power meter, by anLCD screen.
C. Mechanical Characteristics:
1. Degree of protection IP 40.
2. Vibrations FC test: 2 to 13,2 HZ-1 mm and 13,2 to 100 HZ-0,7 g.
3. Operating temperature: -20 to +55 °C.
3.1 EXAMINATION
A. Receive, inspect, handle, and store panel boards according to IEC 60 439-1, 2 & 3 and IEC 60 364 and NF C 15
100.
B. Examine panel boards before installation. Reject panel boards that are damaged or rusted or have been subjected
to water saturation.
C. Examine elements and surfaces to receive panel boards for compliance with installation tolerances and other
conditions affecting performance of the Work. Notify Engineer in writing of conditions detrimental to the proper
and timely completion of work
D. Proceed with installation only after unsatisfactory conditions have been corrected.
3.2 INSTALLATION
A. FIXING GENERALLY:
1. Align, level and securely fasten panel boards to structure
2. Fix surface mounted outdoor panel boards at least 25mm from wall ensuring supporting members do
not prevent flow of air.
3. Do not use connecting conduits to support panel boards
4. Close unused openings in panel board cabinets.
B. PANEL BOARD INTERIORS: do not install in cabinets until all conduit connections to cabinet have been
completed.
C. WIRING INSIDE PANEL BOARDS: to be neatly arranged, accessible and strapped to prevent tension on circuit
breaker terminals. Tap-off connections are to be split and bolted type, fully insulated. Wiring shall be arranged
on terminals and connection blocks with marking as indicated in section 16120 of the specifications.
D. TRIM: fix plumb and square prior to painting. Fix trim for flush mounted cabinets flush with wall surface
finish.
E. PROTECTION: treat concealed surfaces of recessed cabinets with heavy field application of water- proof
compound prior to installation.
3.3 IDENTIFICATION
A. Identify field-installed conductors, interconnecting wiring, and components; provide warning signs
complying with Division 16 Section "Identification for Electrical Systems."
B. Create a directory to indicate installed circuit loads after balancing panel board loads; incorporate Owner's final
room designations. Obtain approval before installing. Use a computeror typewriter to create directory;
handwritten directories are not acceptable.
C. Panel board Nameplates: Label each panel board with a nameplate complying with requirements for
identification specified in Division 16 Section "Identification for Electrical Systems."
D. Device Nameplates: Label each branch circuit device in distribution panel boards with a nameplate
complying with requirements for identification specified in Division 16 Section "Identification for Electrical
Systems."
3.4 CONNECTIONS
A. Tighten SDBs, E-SDBs & SDB-UPS bus joint, electrical connector, and terminal bolts according to
manufacturer's published torque-tightening values. Such that system is Partially Type Tested (PTTA) to IEC
EN 61439-1, 2 & 3.
A. GENERALLY: carry out sample tests, as required by the Engineer, on panel boards after installation, to verify
short-circuit capability of circuit breakers and busbars. Inspect conditions within panel boards and verify
insulation conditions by use of a megger.
B. CIRCUIT BREAKERS: tests are to include operation of every circuit breaker manually. Check automatic
operation of selected circuit breakers, as required by the Engineer, by applying necessary short-circuit,
overload and earth leakage current for tripping circuit breaker as applicable and compare with
manufacturer's data/characteristic curves. Measure and report ambient temperature inside enclosure.
C. INSULATION CHECK TESTS: carry out insulation tests on all busbars, between phases and between phases and
earth/cabinet, and between neutral and earth. Record all readings, using 500 V megger for equipment on
240 V systems, and 1000 V megger for equipment on systems up to 600 V, for 1-minute, with circuit breakers
in open position.
D. ROUTINE TESTS ON SITE are to be carried out, in accordance with the Standards, on all panelboards
assembled from standardized components of the manufacturer outside the works of the manufacturer.
E. THERMOGRAPHIC SURVEY: all current carrying components should be subject to a thermographic survey prior
to certification and handling over. Values obtained by the thermographic survey should be compliant to the
applicable standards and manufacturer recommendations.
3.6 DEMONSTRATION
A. Training: Engage a factory-authorized service representative to demonstrate functional units, and train Owner's
maintenance personnel.
1. Conduct a minimum of 4 hours of training in operation and maintenance. Include train-ing relating
to equipment operation and maintenance procedures.
Schedule training with at least 7 days' advance notice.
PART 1 - GENERAL
A. Drawings and general provisions of the Contract, including General and Supplementary Conditions Specification
Sections, apply to this Section.
1.2 SUMMARY
A. This Section includes motor-control centers or stand-alone motor drives for use on AC circuits rated 600 V and
less.
A. Provide all labor, materials and equipment to furnish and install all of the items specified herein, indicated
on the drawings and as necessary for the proper and complete performance of work and conformance with
all applicable code requirements.
B. Section includes:
1. MCCs: Motor Control Centers feeding the equipment specified to operate in the normal conditions;
2. EMCCs: Emergency Motor Control Centers feeding the equipment specified to operate inthe normal
and emergency conditions;
3. Single drive (pre-packaged) solutions
1.4 SUBMITTALS
A. Product Data: For products specified in this Section. Include dimensions, ratings, and data on fea- tures and
components.
B. Shop Drawings: For each motor-control center specified in this Section. Include dimensioned plans, elevations,
and component lists. Show ratings, including short-time and short-circuit rat- ings, andhorizontal and vertical
bus ampacities.
1. Schedule of features, characteristics, ratings, and factory settings of individual motor- control
center units.
2. Wiring Diagrams: Interconnecting-wiring diagrams pertinent to class and type specified for motor-
control center. Schematic diagram of each type of controller unit indicated.
C. Field Test Reports: Indicate and interpret test results for compliance with performance require- ments.
D. Maintenance Data: For products to include in the maintenance manuals specified in Division 1.
E. Load-Current and Overload-Relay List: Compile after motors have been installed and arrange to demonstrate
that selection of protections suits actual motor nameplate full-load currents.
A. Manufacturer Qualifications: Maintain a service center capable of providing training, parts, and emergency
maintenance and repairs.
B. Source Limitations: Obtain similar motor-control devices through one source from a single manu- facturer.
C. Comply with IEC EN 61 439 & IEC 364. For construction form, refer to drawings. Comply with IEC 947-4-1,
coordination type 2 for all motor drives.
D. Product Selection for Restricted Space: Drawings indicate maximum dimensions for Motor Control Centers,
including clearances between MCCs and adjacent surfaces and items, and are based on types and models
indicated.
A. Deliver in shipping splits of lengths that can be moved past obstructions in delivery path as indi- cated.
B. Store so condensation will not occur on or in motor-control centers. Provide temporary heaters as required to
prevent condensation.
C. Handle motor-control centers according to, "Instructions for the Handling, Installation, Operation, and
Maintenance of Motor Control Centers." Use factory-installed lifting provisions.
1.7 COORDINATION
A. Coordinate features of controllers and accessory devices with pilot devices and control circuits to which they
connect.
B. Coordinate features, accessories, and functions of each motor controller with the ratings and characteristics
of the supply circuit, the motor, the required control sequence, and the duty cycle of the motor and load.
The protections shall follow IEC 947-4-1, coordination type 2.
A. One set of fixed and moving contact for every type of replaceable (consumable) contact set.
B. One operating motor and/ or coil for each type of electrically operated circuit breaker or contac- tor.
C. Miniature circuit breakers: Quantity equal to 5 percent of amount of each type installed, but not less than
one unit of each type.
D. Motor circuit breakers (non-MCCB): Quantity equal to 5 percent of amount of each type in- stalled, but not less
than one unit of each type.
E. Contactors: Quantity equal to 5 percent of amount of each type installed, but not less than one unit of each
type.
1.9 WARRANTY
A. General Warranty: The special warranty specified in this Article shall not deprive the Owner of other rights
the Owner may have under other provisions of the Contract Documents and shall be in addition to, and run
concurrent with, other warranties made by the Sub-contractor under re- quirements of the Contract
Documents.
B. Special Warranty: A written warranty, signed by Sub-contractor and manufacturer, agreeing to replace any
component of the system / panel board assemblies that do not meet requirements orthat fail within the
specified warranty period.
C. Warranty Period: 2 years from date of taking over certificate for any component of the system.
A. Provide tools and instruments required for normal routine inspection and maintenance andtesting of circuit
breakers and protective devices as appropriate for type of switchgear supplied.
A. Subject to compliance with the specifications and drawings, obtain Motor Control Centers equipment, from
a panel board builder with an up-to-date TTA license from the panel board manufacturer. The panel board
builder’s TTA license shall be at least 5 years old and the panel board builder shall have previously executed
at least 10 projects that include TTA panels that theconsultant deems successful.
PART 2 - PRODUCTS
A. Enclosures: Free standing cabinets as indicated, for multiple drives; wall mounted or free standing (depending on
the rating) for single drive (pre-packaged) enclosures. Unless otherwise indicated to meet environmental
conditions at installed location. Motor control centers are to comply as a minimum with IEC EN 61439-1 & 2
factory-built type tested (TTA). The requested construction form is «Form 3B» as per IEC EN 61439-1 & 2 for the
MCCs and EMCCs.
1. Ingress Protection (indoor areas): IP43 for the dry areas and IP55 for the wet areas (pro- vide anti-
condensation heaters and submit thermal study to justify the panel’s cooling method). Enclosure to
have suitable temperature control apparatus (heat sinks, fans, air conditioning, etc…) as required
keeping internal temperature below 40°C when ambient temperature outside the panel is 50°C.
Special attention shall be given to soft-starters and variable frequency drives in that effect.
2. Ingress Protection (outdoor areas): IP65 (provide anti-condensation heaters and submit thermal
study to justify the panel’s cooling method). Enclosure to have suitable tempera- ture control
apparatus (heat sinks, fans, air conditioning, etc…) as required keeping inter- nal temperature below
40°C when ambient temperature outside the panel is 40°C. Special attention shall be given to soft-
starters and variable frequency drives in that effect.
3. Compartments: Modular construction; doors have concealed hinges and quick-captive screw
fasteners.
4. Wiring Spaces: Each vertical section of structure with horizontal and vertical wiring has spaces for
wiring to each unit compartment in each section, with supports holding wiring in place. Hence, cable
compartments are to be separate from other compartments. Ter- minals for external conductors are
to share a common cable compartment.
B. Short-Circuit Current Rating for Each Section: 30 % greater than indicated available fault current in
symmetrical amperes at motor-control center location for 1 second minimum.
2.1 BUSES
D. Equipment Ground Bus: Non-insulated, horizontal copper bu. The Earth Bus is to extend to the full length of
the board and shall be firmly fixed to each section in accordance with the Regulations and standards. The
Earth Bus shall be complete with two main earthing lugs (one at each end), andrequired number of feeder
protective earth connectors.
E. Horizontal Bus Arrangement: Main phase, neutral and ground buses extended with same capacity the entire
length of motor-control center, with provision for future extension at both ends by bolt holes and captive bus
splice sections or approved equivalent.
F. Short-Circuit Withstand Rating: Same as short-circuit current rating of section for 1 second mini- mum.
A. Description: Modular arrangement of motor controllers, control devices, over-current protective devices,
transformers, panel boards, instruments, indicating panels, blank panels, and other items mounted in
compartments of motor-control center as indicated.
B. Motor-Controller Units: Combination controller units of types and with features, ratings, and cir- cuit
assignments indicated.
1. Units have short-circuit current ratings equal to or greater than short-circuit current rating of motor-
control center section.
C. Over-current Protective Devices: Types of devices with features, ratings, and circuit assignments indicated.
E. Spaces and Blank Units: Compartments fully bused and equipped, ready for insertion of units.
F. Spare Units: Type, sizes, and ratings as indicated, and installed in compartments indicated"spare."
A. Description: full voltage, non-reversing, across the line, unless otherwise indicated.
B. Control Circuit: 220 V; obtained from integral control isolation power transformer, unless other - wise
indicated. Include a control power transformer with adequate capacity to operate connect- ed pilot,
indicating and control devices, plus 100 percent spare capacity.
C. Combination Controller: Factory-assembled combination controller and disconnect switch with over-
current protection.
1. Molded case non-fusible Disconnect: heavy-duty, non-fusible switch.
2. Molded case circuit-Breaker Disconnect: motor-circuit protector (magnetic trip only) with field-
adjustable short-circuit trip coordinated with motor locked-rotor amperes.
D. Overload Relay: Ambient-compensated type with inverse-time-current characteristic. Provide with heaters or
sensors in each phase matched to nameplate full-load current of specific motor towhich they connect, and with
appropriate adjustment for duty cycle.
E. Star-Delta Controller: closed transition with adjustable time delay and overload protection.
F. Part-Winding Controller: closed transition with separate overload relays for starting and running sequences.
G. Contactor: To IEC standards 947-4-1, AC-3 or AC-4 rated as required by the application, in coordi-nation type
2 with motor circuit breaker, thermal relay and motor nameplate data.
A. Description:
a. Freewheel
b. Braked
c. Decelerated.
1. The electronic starter will have to be developed and qualified in conformity with interna- tional
standards and, in particular, with the product standard EN/IEC 60947-4-2 for start- ers.
2. The starter will have to be CE marked in accordance with the harmonized standard EN/IEC 60947-4-
2.
3. Electromagnetic compatibility: the starter will have to conform to the class A level for ra- diated and
conducted emissions as detailed in the product standard EN/IEC 60947-4-2, and this applies to all
available standard functions within the starter. Class B shall be re- quired for starters with a nominal
current not exceeding 170 A.
4. The starter will have to be UL 508 and CSA certified “Industrial Control Equipment”.
5. The manufacturing plant of the electronic starters and associated design activities will have to be ISO
9001 version 2000 and ISO 14001 certified.
C. Product description:
1. The operating principle of the starter will not have to rely simply on motor current limita- tion during
the transitory phases or on a voltage ramp, but on motor torque control. The starter will have to
provide a torque ramp throughout the accelerating phase. Therefore, it will be able to control the
torque throughout the entire starting phase and, if necessary, provide a constant motor torque
throughout the accelerating phase.
2. For pumping applications, the deceleration will have to be made on a torque ramp.
3. All starter ratings will have to have the same control card. This control card will have to be identical
for all applications and also, the same starter will be able to be used on a crusher, a pump or a
conveyor while taking into account the dimensioning.
4. All the starters will have to incorporate means whereby the actual current is measured in order to
ensure protection of the motor.
5. The incoming power supply terminals will have to be positioned at the top of the starter and the terminals
for connecting the motor will be at the bottom (through wiring).
6. All ratings of starter will have to have connection terminals for the starter bypass contac- tor. The
current measurements will have to be maintained when the starter is bypassed bythe contactor.
8. The control terminal block for logic and analogue commands will have to be removable.
D. Environment:
1. The starter will have to be capable of operating, without derating, at an ambient tempera- ture range
between –10 and +40°C and between 40 and 60°C with a derating factor of 2% per degree ºC above
40°C.
2. The starter shall operate perfectly with a relative humidity up to 95%, without condensa- tion or
dripping water, conforming to the standard IEC 60947-4-2.
3. The starter shall operate perfectly and without derating for up to 1000 meters altitude. For higher
altitudes, a 2.2% derating per 100 meter altitude increase shall be applied.
5. When the starters incorporate cooling fans, measures shall be taken to avoid their contin - uous
operation. They will have to be switched automatically in relation to the temperature of the heatsink.
6. The starter will have to be capable of operating, without derating, up to an ambient de- gree of pollution
3 conforming to IEC 60664-1 (or IEC 60947-4-2).
7. The supplier will have to provide the wiring diagrams of the starters.
8. The supplier will have to make available motor starter combination tables comprising cir - cuit-
breakers, fuses, contactors and starters in order to assure type 2 coordination.
1. The utilization category of the starters will be AC 53a conforming to the product standard EN/IEC
60947-4-2.
2. The supplier will have to be capable of offering starters in one or several ranges to cover supply lines
of 208 to 690 V (208 –15% to 690 V +10%).
3. The current range of the starters will be comprised between 17 and 1200 A.
4. The starter will have to automatically adapt to 50 or 60 Hz, with a tolerance of +/-5%. By configuration, it
will have to be capable of operating at a supply line frequency that can vary by +/-20%.
5. Logic inputs; the starter will have to include a minimum of 4 x 24 V isolated logic inputs.
6. Outputs; the starter will have to include a minimum of 3 relays with a N/O contact. Maxi- mum
switching capacity on inductive load: 1.8 A at 230 V a.c. and 30 V d.c. Minimum switching capacity:
10 mA for 6 V d.c.
8. Analogue outputs; the starter will include 1 analogue output with either a 0 - 20 mA or 4 - 20 mA
signal. This signal will be able to be scaled.
9. The starter will have to include its own 24 V power supply for the logic inputs/outputs.
10. The supplier will have to offer a starter selection table for 2 types of dimensioning:
a. Dimensioning 1:
1) From cold state (motor duty S1): 1 start at 3 In for 46 seconds.
2) Cycle comprising starting (motor duty S4), with a load factor of 50% and 10starts per
hour, or an equivalent thermal cycle: 1 start at 3 In for 23 seconds.
b. -Dimensioning 2:
1) From cold state (motor duty S1): 1 start at 4 In for 48 seconds.
2) Cycle comprising starting (motor duty S4), with a load factor of 50% and 5 starts per
hour, or an equivalent thermal cycle: 1 start at 4 In for 25 seconds.
F. Protective functions:
2. The starter will have to continuously calculate the heating of the motor from the actual current
measured (the current having to be measured and not estimated). Several classes of thermal
protection will have to be offered conforming to the standard EN/IEC60947-4- 2: classes 10A, 10, 20,
30 as well as the intermediary classes; one inferior to class 10A, one between classes 10 and 20 and
one between classes 20 and 30. The calculation of the thermal protection must be performed even
when the starter is not being supplied.
4. The starter will have to detect an underload from the motor torque information. The de - tection
threshold as well as the allowed duration of the underload will have to be adjusta- ble. This protection
will be able to lead to either a fault on the starter or simple indication in the form of an alarm via a
logic output.
5. The starter will have to detect an overload from the motor current information. The de- tection
threshold as well as the allowed duration of the overload will have to be adjusta- ble. The duration
of the overload will be able to be adjusted from 0.1 seconds. This protec-tion will be able to lead to
either a fault on the starter or simple indication in the form of an alarm via a logic output.
6. The starter will have to have protection against supply line phase inversion and also against phase failure
of the supply or motor.
7. The starter will take into account management of an external fault. When the contact is open, the
starter goes to fault mode.
8. The protective functions will have to be maintained even when the starter is bypassed by a contactor.
G. Communication:
1. The starter will have to include a multidrop serial link for its direct connection on Modbus.
2. The starter will have to be able to be optionally connected to Ethernet and other net- works, with
connection to communication bus.
3. The communication will have to provide access to the control, the adjustment and the su- pervision
of the starter.
H. Main functions:
1. The starter will be able to start and decelerate several motors in cascade (if this scheme is shown on
drawings). In that case, a second set of motor parameters will be able to be switched to by a logic
input.
2. In order to protect the motor against condensation when stopped for long periods, the starter will
have to have a pre-heating function that does not involve rotation of the mo- tor. The pre-heating
current will have to be adjustable.
3. The starter will have to pilot the starter bypass contactor: control closing of the bypass contactor on
completion of start-up and opening on receipt of the stop instruction. This function will have to be
compatible with the stop modes: freewheel, braked and deceler- ated.
4. The starter will be able to control the line contactor. The contactor will have to close fol - lowing the
start instruction and open when the motor has come to a stop.
5. Access to the settings will be able to be code locked. The monitoring parameters will have to remain
visible.
I. Supervision:
1. The standard starter will have to have a dialogue screen and programming keys. Optional-ly or when
indicated on drawings, a remote programming terminal kit will provided.
a. Motor current
b. Motor torque
d. Cosine φ
e. Active power
a. Motor current
b. Motor torque
d. Cosine φ
e. Active power
a. software suite for PC to prepare, store, download and print the settings,
c. For the items directly above, a minimum of 2 languages shall be available: English,French.
2.5 VARIABLE-SPEED DRIVES (fractional horse-power to and including 15 kW, except staircasepressurization fans)
A. GENERAL REQUIREMENTS
1. Scope: requirements for pulse-width modulated (PWM) Adjustable Frequency Drives, herein referred
to as AC Drives, for use with NEMA design AC motors, or standard IEC motors.
2. The AC Drive is a system for controlling the rotational speed of an AC motor and providing on demand
the right torque to the pump & fan application.
3. The same drive must be able to manage both asynchronous and synchronous motor.
4. The fitting of the drive to the motor is the key factor to ensure an optimized motor control energy
efficiency wise. Consequently, the AC Drive must have the capability to measure automatically the
parameters of the motor to fine tune the control.
5. Shortening the downtime increases the operational performance of any facility and reduces the operating
expenditures. Maintenance and monitoring tools such as fault history, parameters
upload/download, scope and keypad emulation are built-in in the drive and
used for trouble shooting. Moreover, an additional user-friendly PC software must encompass the
configuration management and commissioning functionalities without additional investment.
B. APPLICABLE STANDARDS
1. The VSD is qualified to address all the major economic area standards.
2. The AC Drives shall be:
a. CE marked, conforming to European Low Voltage (2006/95/EC modified from 73/23/EEC and
93/68/EEC and EMC (2004/108/EC modified from 89/336/EEC) Di- rectives, and Machinery
directive N0 98/37/EC modified by 98/79/EC.
C. SPECIFIC REQUIREMENTS
1. PROTECTION
a. The following function shall be available to prevent the risks of equipment destruction from
component’s failures.
b. The AC Drive shall be protected against short circuits, between output phases and to ground.
d. The AC Drive shall integrate a protection against IGBT chips over temperature inaddition to
the heat sink overheat protection.
e. The output frequency shall be software enabled to fold back when the motor isoverloaded.
f. Upon loss of the analog process follower reference signal, the AC Drive shall be
programmable to display a fault.
2. COMMISSIONING
a. A keypad display interface shall offer the modification of AC Drive adjustments through a
touch keypad. All electrical values, configuration parameters, I/O assignments, faults, local
control, and adjustment storage, and diagnostics shall be accessible.
b. The built-in graphic keypad display interface must have the Run/Stop command buttons for
quick local running feature. For security reasons the keypad must not be removable from the
drive.
c. The optional remote display is mandatory and must have the three following press keys:
i. Local / Remote to switch the drive command locally or remotely
d. A red LED will lit on the front panel to indicate the energizing status of the drive DCbus.
e. The hereafter parameters; Speed reference, Motor current, Drive rated current, Drive thermal
state, Output power must be displayed on the graphic terminal.
f. The motor should be able to operate after the wiring without any parameter set- tings. Thus
allows short lead-time for connection checking to speed up the com- missioning.
3. HARMONICS MANAGEMENT
a. The DC power link capacitor technology must be compliant to a life expectancy of 14 years as
minimum duration.
b. To mitigate the oversizing of the transformer and power cables the rectifier bridge technology
must guarantee a VSD THDI (Total Harmonic Current Distortion IEC/EN 61000-3-12 standard)
below 35% without additional parts such as fixed or swinging DC chokes, line inductances,
harmonic filters.
c. Displacement Power Factor (cosφ): cosφ ~ 1 almost no reactive current on the power supply.
d. True Power Factor: The true power factor is defined as the ratio between the fundamental
current, I1 (the current at 50Hz), and the RMS current, I RMS (current including all harmonics).
A high true power factor (close to one) shall be an indication of good harmonic suppression
4. CONTROL CONNECTIONS
a. The control power for the digital inputs and outputs shall be 24Vdc. The input logic type
(positive logic) or sink (negative logic) is configured by a hardware switch.
b. The internal power supply shall incorporate automatic current fold-back that protects the
internal power supply if incorrectly connected or shorted. The transistor logic outputs will be
current limited and will not be damaged if shorted.
c. Removable terminal strips shall be used on all logic and analog signal connections in the power
converter
d. Two voltage-free relay output contacts will be provided. One of the contacts will indicate AC
Drive fault status. The other contact shall indicate a drive run status. These relays shall be
configurable for other status indicators.
5. SERIAL COMMUNICATION
a. The AC drive shall have an integrated RJ45 port for Modbus. It shall be possible to
simultaneously connect use the Modbus interface to connect the drive to the BAS and to a
Human Machine Interface (HMI) panel.
b. The following HVAC building protocols; LonWorks, BACnet shall be provided where the drive
it indicated to be interfaced with the BAS or automation and control sys- tem. plug-in board.
D. OPERATION
1. RATINGS
a. The AC Drive shall be designed to operate at the input line voltage and power rating range
indicated in the table below:
b. The AC Drive shall operate from an input frequency range of 50Hz - 5% to 60Hz + 5%.
c. The efficiency of the AC Drive at 100% speed, 100% load, and 35% THDI shall not beless than
97%.
d. The requested AC Drive over-torque capacity is 120% of the nominal torque for one minute.
2. ENVIRONMENTAL RATINGS
a. The AC drive must operate with a switching frequency of 10 kHz to die down the motor noise
at 40°C without derating.
b. The AC Drive shall be able to give a 100 % output current continuously in the above specified
conditions. The derating factor must not have an impact on the lifetime ofthe AC Drive, the
unit’s performance, overload capability included, and the reliability of the AC Drive.
c. The EMC Plate must be included in the standard drive in order to conform with EMC best practices.
d. A built-it Class B EMC (EN55011) filter shall be provided for all drives irrespective of the IP
rating. That corresponds to IEC 61800-3 Cat C1.
e. The top of the standard drive must comply to IP21 or IP41 to prevent from any ob- jects
dropping in the drive and damaging it.
f. The product shall be available in two versions, IP20 and IP54. When using IP54 classB EMC filter
must embedded in the enclosure.
g. An accessory shall be available to achieve UL type 1 compliancy. The Type 1 products shall
additionally be recognized as plenum rated and comply with the applicable requirements for
installation in a compartment handling conditioned air.
E. MAINTENANCE
1. BUILT-IN FUNCTIONALITY
a. Upon power-up, the AC Drive shall automatically test for valid operation of memory, loss of
analog reference input, loss of communication, DC-to-DC power supply, control power and
pre-charge circuit.
a. The AC Drive Manufacturer must have a minimum of 30 years experience in world- class drive
design and manufacturing. The installed base product quantity must be
a. The Supplier shall have a permanent representative office with a trained and skilledsupport
staff, in the country where the goods are delivered. The support team must be able to attend
to site problems on site within 24 to 48 hours with fair no- tice from customer.
b. The most critical spare parts like fuses, IGBTs, cooling fans as well as main control- and I/O-
boards shall be available on site or within 8-12 hours after the positive identification was made
of the spare part that is required to repair the drive.
c. The more rarely used spare parts should be available in maximum 10 days on site.
4. WARRANTY and AFTER-SALES
b. A 24-month parts warranty shall be provided on materials and workmanship from the date of
purchase.
c. Services are provided (spare part and repairing) for 10 years after the end of
commercialization.
F. SUSTAINABLE DEVELOPMENT
1. The manufacturer of the AC Drive shall be a qualified ISO 14001 facility.
2. The materials used in the AC Drive shall be recyclable, non-toxic and flame retardant. The AC Drive
shall comply with the European directive RoHS (Restriction Of Hazardous Sub- stances) 2002/95/EC.
3. The Product Environmental Profile (PEP) analysis must be performed in conformity with standard ISO
14040 “Environmental management: life cycle assessment, principle and framework”.
2.6 VARIABLE-SPEED DRIVES (ratings greater than 15 kW, including staircase pressurization fans of any rating)
A. GENERAL REQUIREMENTS
1. Pulse-width modulated (PWM) Adjustable Frequency Drives, herein referred to as AC Drives, for use
with NEMA design AC motors, or standard IEC motors.
2. The AC Drive is a system for controlling the rotational speed of an AC motor and providing on demand
the right torque to the pump & fan application.
3. The motor could be an asynchronous or a permanent magnet motors.
4. The fitting of the drive to the motor is the key factor to ensure an optimized motor control energy
efficiency wise. Consequently the AC Drive must have the capability to measure automatically the
parameters of the motor to fine tune the control.
5. The system architecture must be flexible enough to have an additional embedded programmable card
and added optional I/O’s as well to cope with future application process enhancement. The end user has
the ability to value his know-how asset programming his own application and extending his
application range.
6. Shortening the downtime increases the operational performance of any facility and reduces the operating
expenditures. Maintenance functions such as fault monitoring and di- agnostic are built-in in the drive
and used for trouble shooting. Moreover an additional user- friendly PC software must encompass the
configuration management, commissioning and remote maintenance functionalities.
B. APPLICABLE STANDARDS
1. The VSD is qualified to address all the major economic area standards.
2. The AC Drives shall be :
a. CE marked, conforming to European Low Voltage (2006/95/EC modified from 73/23/EEC and
93/68/EEC and EMC (2004/108/EC modified from 89/336/EEC) Directives, and Machinery
directive 98/37/EC modified by 98/79/EC.
b. UL recognised
c. CSA recognised
e. It shall have Marine Type approval certificates: DNV, ABS, BV, LR, RMSos and KR
3. It shall comply with the specific standards listed in the table below:
Standard Title
IEC 60068-2-3 Environmental testing; Part 2-3: Tests - Test Ca: Damp heat, steady state
IEC 60068-2-6 Part 2-6: Vibration Resistance (sinusoidal)
IEC 60068-2-27Part 2-27: Shock Resistance
IEC 60204-1 Safety of machinery - Electrical equipment of machines - Part 1: General
requirements
IEC 60529 Degrees of protection provided by enclosures (IP Code)
IEC 60721-3-3 assification of environmental conditions - Part 3-3: Classification of groups
Cl ofenvironmental parameters and their severities - Stationary use
at weather protected locations
IEC 61508-1 Functional safety of electrical/electronic/programmable electronic safety-
related systems - Part 1: General requirements
IEC 61800-3 Adjustable speed Electrical Power Drive Systems; Part 3: EMC
requirementsand specific test methods
IEC 61800-5-1 Part 5-1: Safety requirements - Electrical, thermal and energy
EN 13849-1 Safety of machinery - Safety related parts of control systems - Part 1:
generalprinciples for design.
C. SPECIFIC REQUIREMENTS
1. PROTECTION
a. The following functions shall be available to minimize the risk of equipment dam- age as a
result of component’s failures.
b. The AC Drive shall be protected against short circuits, between output phases and to ground.
c. The AC Drive shall have under-voltage power-loss ride through performance per the SEMI F-47
voltage ride through standard and certified by a third party.
d. The AC Drive shall integrate a protection against over temperature in addition to the heat sink
overheat protection.
e. The output frequency shall be software enabled to fold back when the motor is overloaded.
f. Upon loss of the analog process follower reference signal, the AC Drive shall be programmable
to display a fault.
a. A keypad display interface shall offer the modification of AC Drive adjustments through a
touch keypad. All electrical values, configuration parameters, I/O assignments, application
and activity function access, faults, local control, and adjustment storage, and diagnostics shall
be accessible.
b. The Plain text display is used as usual. But in case of failure or theft of this device, the user
must always have access to the parameter menu with an integrated seven segment display
terminal.
d. The AC Drive model number, torque type, software revision number, horsepower, output
current, motor frequency and motor voltage shall be listed on the drive identification portion
of the LCD display.
3. HARMONICS MANAGEMENT
a. The DC power link capacitor technology must be compliant to a life expectancy of 14 years as
minimum duration.
b. To mitigate the oversizing of the transformer and power cables the rectifier bridge technology
must guarantee a VSD THDI (Total Harmonic Current Distortion IEC/EN 61000-3-12 standard)
below 35% without additional parts such as fixed or swinging DC chokes, line inductances,
harmonic filters.
c. Displacement Power Factor (cosφ): cosφ ~ 1 almost no reactive current on the power supply.
d. True Power Factor: The true power factor is defined as the ratio between the fundamental
current, I1 (the current at 50Hz), and the RMS current, I RMS (current including all harmonics).
A high true power factor (close to one) shall be an indication of good harmonic suppression
4. CONTROL CONNECTIONS
a. The control power for the digital inputs and outputs shall be 24Vdc.
b. The internal power supply shall incorporate automatic current fold-back that protects the
internal power supply if incorrectly connected or shorted. The transistor logic outputs will be
current limited and will not be damaged if shorted.
c. Removable terminal strips shall be used on all logic and analog signal connections in the power
converter
d. Two voltage-free relay output contacts will be provided. One of the contacts will indicate AC
Drive fault status. The other contact shall indicate a drive run status. These relays shall be
configurable for other status indicators.
e. As interoperability with the whole system is critical One relay must have NO or NC contacts.
The logic inputs must be able to cope with positive or sink source logic as well.
f. The AC drive shall have a safety logic input to de-energize the drive. The drive shall not allow
the motor to operate until this input is closed. If this input is opened whilethe connected motor
is running, the AC drive shall stop applying power to themotor. This power removal function
shall be certified by an independent agency.
g. The control section of AC drive shall be supplied separately if necessary with 24V DC,to keep the
network communication always available even if the power supply is OFF. Thus the remote
failure diagnosis is still available in case of mains power shutdown.
h. When the equipment is connected to an IT system network, the built-in RFI filter shall be
disconnected removing jumpers
5. SERIAL COMMUNICATION
a. The AC drive shall have integrated RJ45 port, selectable for Modbus & CanOpen.
a. The AC Drive shall have built-in basic functions for pump and fans application such as PID set-
up, Flow limitation, No flow detection, Sleep/Wake up, No load law for energy saving, Damper
management, Multi motors configuration management.
b. The AC drive shall be able to manage an optional snap-on controller board that must fit inside
the drive enclosure. This board carries out flexible application con- trol extent such as multi-
pump facility management. More functions such as night and day algorithm, pressure boost
mode, pipe file algorithm, staging and de-staging algorithm, cavitation protection, over
pressure protection, low water level protec- tion, pipe burst and pipe blockage protection,
cycling protection, data fault time stamping are delivered within the drive. The dedicated
application menu is dis- played automatically at drive’s power up on the graphic keypad
display.
D. OPERATION
1. RATINGS
a. The AC Drive shall be designed to operate at the input line voltage and power rat- ing range
indicated in the table below:
b. The AC Drive shall operate from an input frequency range of 50Hz - 5% to 60Hz + 5%.
c. The efficiency of the AC Drive at 100% speed and load shall not be less than 97%.
d. The variable torque rated AC Drive overcurrent capacity shall not be less than 110% of the
nominal current for one minute.
2. ENVIRONMENTAL RATINGS
a. The AC Drive shall be able to give a 100 % output current continuously in the above specified
conditions. The derating factor must not have an impact on the lifetime ofthe AC Drive, the
unit’s performance, overload capability included, and the reliabil-ity of the AC Drive.
b. A built-it Class B EMC (EN55011) filter shall be provided for all drives irrespective of the IP
rating. That corresponds to IEC 61800-3 Category C1.
E. MAINTENANCE
1. BUILT-IN FUNCTIONALITY
a. Upon power-up, the AC Drive shall automatically test for valid operation of memory, loss of
analog reference input, loss of communication, DC-to-DC power supply, control power and
pre-charge circuit.
b. The VSD shall be able to restart automatically if the fault disappears and the oper- ating
conditions permit the restart.
2. MANUFACTURER
a. The AC Drive Manufacturer must have a minimum of 30 years’ experience in world- class drive
design and manufacturing. The installed base product quantity must be large enough to be
credible in its capability to be an edge company continuously enhancing its product
management process.
3. LOCAL SUPPORT
a. The Supplier shall have a permanent representative office with a trained and skilledsupport
staff, in the country where the goods are delivered. The support team must be able to attend to
site problems on site within 24 to 48 hours with fair no- tice from customer.
b. The most common spare parts (Critical) like fuses, IGBTs, cooling fans as well as main control- and
I/O-boards shall be available on site or within 8-12 hours after the positive identification was
made of the spare part that is required to repair the drive.
c. The more rarely used spare parts should be available in maximum 10 days on site.
b. A 24-month parts warranty shall be provided on materials and workmanship from the date of
purchase.
c. Services (spare part and repairing) are provided (spare part and repairing) for 10 years after
the end of commercialization.
F. SUSTAINABLE DEVELOPMENT
1. The manufacturer of the AC Drive shall be qualified as a ISO 14001 facility.
2. The materials used in the AC Drive shall be recyclable, non-toxic and flame retardant. The AC Drive
shall comply with the European directive RoHS (Restriction Of Hazardous Sub- stances) 2002/95/EC.
3. The Product Environmental Profile (PEP) analysis must be performed in conformity with standard ISO
14040 “Environmental management: life cycle assessment, principle and framework”.
A. Molded-Case Circuit Breaker: MCCB, handle lockable as mentioned and specified in main distribu- tion board.
2.8 MCC CIRCUIT BREAKERS: MCCB below 800 Amperes and Air Circuit Breaker above 800 Amperes, both with
utilization category “B” and electronic trip unit as indicated in section 16440 (Main Dis- tribution Boards).
2.9 ACCESSORIES
B. Push-Button Stations, Pilot Lights (LED), and Selector Switches: heavy-duty type, as per MCC IP & IK rating.
C. Stop and Lockout Push-Button Station: Momentary-break push-button station with a factory- applied hasp
arranged so a padlock can be used to lock push button in depressed position with control circuit open.
F. Meters (electrical parameters measurement): Power meter as indicated in section 16440 (main Distribution
Boards).
G. Phase-Failure and Undervoltage Relays: Solid-state sensing circuit with isolated output contacts for hard-wired
connection. Provide adjustable undervoltage setting.
H. Current-Sensing, Phase-Failure Relays: Solid-state sensing circuit with isolated output contacts for hard-wired
connection; arranged to operate on phase failure, phase reversal, current unbal- ance of from 30 to 40
percent, or loss of supply voltage. Provide adjustable response delay.
I. Transient Voltage Surge Suppressors: IEC 60364, IEC 61643-11, IEC 664-1 and IEC 1643-1, select- ed to meet
requirements for a high-exposure category.
K. Factory mounted with a Recognized Testing Laboratory listed and labeled mounting device.
PART 3 - EXECUTION
3.1 APPLICATIONS
A. Select features of each motor controller to coordinate with ratings and characteristics of supply circuit and
motor; required control sequence; duty cycle of motor, drive, and load; and configura- tion of pilot device
and control circuit affecting controller functions.
C. Push-Button Stations: In covers of magnetic controllers for manually started motors where indi - cated, start
contact connected in parallel with sealing auxiliary contact for low-voltage protection.
D. Hand-Off-Automatic Selector Switches: In covers of manual and magnetic controllers of motors started and
stopped by automatic controls or interlocks with other equipment.
3.2 INSTALLATION
B. Anchor each motor-control center assembly to steel-channel sills arranged and sized according to
manufacturer's written instructions. Attach by tack welding or bolting. Level and grout sills flush with motor-
control center mounting surface.
3.3 IDENTIFICATION
A. Identify field-installed wiring and components and provide warning signs according to Division 16 Section
"Identification of Electrical Systems."
C. Operating Instructions: Frame printed operating instructions for motor-control centers, including control
sequences, and emergency procedures. Fabricate frame of finished wood or metal and cover instructions
with clear acrylic plastic. Mount on front of motor-control centers.
A. Install wiring between motor-control devices according to Division 16 Section "Wires and Cables."
C. Connect hand-off-automatic switch and other automatic control devices according to an indicat- ed wiring
diagram or one that is manufacturer approved, where available.
1. Connect selector switches to bypass only the manual and automatic control devices that have no
safety functions when switch is in the hand position.
2. Connect selector switches with motor-control circuit in both hand and automatic positions for safety-
type control devices such as low- and high-pressure cutouts, high-temperature cutouts, and motor-
overload protectors.
3.5 CONNECTIONS
A. Tighten motor-control center bus joint, electrical connector, and terminal bolts according to manufacturer's
published torque-tightening values. Such that system is type tested (TTA) to IEC EN 61439-1 & 2.
A. Testing: After installing motor-control center and after electrical circuitry has been energized, demonstrate
product capability and compliance with requirements.
1. Procedures: Perform each visual and mechanical inspection and electrical test stated in
corresponding IEC standards. Certify compliance with test parameters.
2. Remove and replace malfunctioning units with new units, and retest.
3.7 CLEANING
A. Inspect interior and exterior of motor-control centers. Remove paint splatters and other spots, dirt, and debris.
Touch up scratches and mars of finish to match original finish. Clean devices in- ternally, using methods and
materials recommended by manufacturer.
3.8 DEMONSTRATION
A. Training: Engage a factory-authorized service representative to demonstrate solid-state and vari- able-speed
controllers and motor-control centers, and train Owner's maintenance personnel.
1. Conduct a minimum of 4 hours of training in operation and maintenance. Include training relating to
equipment operation and maintenance procedures.
2. Schedule training with at least 7 days' advance notice.
1.1 GENERAL WORK GENERALLY is to be in accordance with the requirements of Section 260000 of the
Specification.
1.2 DESCRIPTION OF WORK: Wiring devices, lighting switches, socket outlets, cord outlets, automatic and
manual lighting control equipment, dimmers, outlet boxes and plates, disconnect switches etc…
1.3 STANDARDS: Components are to be standard manufactured items, uniform and modular, complying with
one set of approved Standards.
1.4 EQUIPMENT DATA: Submit data for approval, including catalogues, detailed literature, manufacturer’s
name, catalogue number, rating, specification, overall dimensions and special features, as applicable for
each item.
1.5 SHOP AND CONSTRUCTION DRAWINGS: Submit drawings for approval including, but not limited to, the
following:
A. Exact indication of position of each item and outlet box and fitting on layout drawings, with box and
equipment types and sizes.
B. Installation details of special items including LV transformers, isolating switches, fans etc…
C. Wiring diagrams of special items.
1.6 SAMPLES: submit samples of each type of device for approval of electrical engineer andinterior
decorator, unless otherwise agreed in writing by the Engineer.
1.8 WARRANTY
A. General Warranty: The special warranty specified in this Article shall not deprive the Owner of other rights
the Owner may have under other provisions of the Contract Documents and shall be in addition to, and run
concurrent with, other warranties made by the Contractor under requirements of the Contract Documents.
B. Special Warranty: A written warranty, signed by Contractor and manufacturer, agreeing to replace any
wiring devices component that do not meet requirements or that fail within the specified warranty period.
1. Warranty Period: 1 year from date of taking over certificate for any component of the system.
2.1. FITTINGS
1. General Use (non-decorated area and in floor boxes mounted in raised floor): Heavy gauge, break
resistant, pressure molded plastic, white color.
2. Technical Spaces and areas subject to ingress: Heavy gauge, break resistant, pressure molded plastic,
grey color, IP56.
3. Wet Areas and External Areas: Heavy gauge, break resistant, weather proof, grey color, IP 65 IK 08.
4. Decorated Spaces: Heavy gauge, break resistant, metallic. Finish subject to Architect and Engineer
approval.
5. Parking Spaces: Heavy gauge, break resistant, vandal proof metal construction wiringdevices. IK10
for dry areas and IP55- IK10 (IP55-10) for wet areas.
D. CABLE/ CORD OUTLET are to be used for up to 45 A, 250 V rating for connection of power/ control cable
of fixed appliances. Plate is to have threaded cord grip to anchor cable securely tocover. Box is to include
fixed terminal block and cable clamp for termination of cable/cord within.
2.1.5. SWITCHES
A. GENERALLY: Quick- make, quick- break type with silver alloy contacts in arc resisting moulded base, with
toggle, rocker or push- button as specified, for inductive or resistive loads up to full rated capacity, and
arranged for side and/or back connection.
B. TYPES: single, two- way or intermediate, single pole or double pole, as shown on the Drawings.
C. GENERAL LIGHTING SWITCH: 10 A 250 V A.C, rocker operated, grid- switch with plate, for indoor installations in
general, unless otherwise indicated. The switches shall be available in single or multi-gang, one-way, two-way
and intermediate configurations.
1. General Use (non decorated area): Heavy gauge, break resistant, pressure molded plastic, white
color.
2. Technical Spaces and areas subject to ingress: Heavy gauge, break resistant, metal clad, grey color,
IP56 IK10.
3. Wet Areas, Parking Spaces and External Areas: Heavy gauge, break resistant, weather proof, grey
color, IP 65 IK 08.
4. Decorated Spaces: Heavy gauge, break resistant, metallic. Finish subject to Architect and Engineer
approval.
D. PUSH BUTTON SWITCH: 10 A 250 V A.C, push-button operated, grid-mounted with plate, for indoor
installations in general, unless otherwise indicated. The push-buttons shall be available in single or multi-
gang
1. General Use (non decorated area): Heavy gauge, break resistant, pressure molded plastic, white
color.
2. Technical Spaces and areas subject to ingress: Heavy gauge, break resistant, metal clad, grey color,
IP56 IK10.
3. Wet Areas, Parking Spaces and External Areas: Heavy gauge, break resistant, weather proof, grey
color, IP 65 IK 08.
4. Decorated Spaces: Heavy gauge, break resistant, metallic. Finish subject to Architect and Engineer
approval.
E. MANUAL SWITCH: 2 pole, for fractional single and three phase motors and appliances, to interrupt motor
and induction loads, rated 20 A at 400 V A.C., toggle operated, with positive and luminous indication of
on/off position of contacts.
1. General Use (non decorated area): Heavy gauge, break resistant, pressure molded plastic, white
color.
2. Technical Spaces and areas subject to ingress: Heavy gauge, break resistant, metal clad, grey color,
IP56 IK10
3. Wet Areas, Parking Spaces and External Areas: Heavy gauge, break resistant, weather proof, grey
color, IP 65 IK 08.
4. Decorated Spaces: Heavy gauge, break resistant, metallic. Finish subject to Architect and Engineer
approval.
D. WEATHERPROOF SOCKET OUTLETS are to be any of the types indicated, enclosed in surface mounted cast
metal box and with cover comprising spring- retained gasketted hinged flap. Enclosure is to be pre-
designed box and cover for type of socket outlet specified.
E. BRITISH STANDARD SOCKET: single phase, three wires, for plug with rectangular pins, with grounding in
accordance with British Standard practice and rated 13 A, 250 V A.C. UPS sockets shall be by construction
(color, engraving…etc) distinguishable from standard supply sockets.
2.1.7. PLUGS
A. TYPE: compatible with type of socket outlet specified, break resistant, of impact resistant moulded
insulating material (separable construction), with solid brass pins and cord grip and of shape providing
easy hand- grip for removal.
B. QUANTITY: supply number equal to 20% of total number of each type of socket outlet supplied.
E. CONTROL: each contractor whether part of a system or separately enclosed is to have on/off pilot lights
and set of on/off/ automatic toggle switch mounted on cover.
A. GENERAL: control panels are to be of equivalent construction to panel boards with respect to cabinet and
interior standards of manufacture, and are to be surface mounted with see- through door and lock.
B. CONSTRUCTION: non- standard modular, factory assembled cabinets, designed to receive appropriate,
relays transformers and the like as required in conformity with the Drawings for operation of system
locally and remotely from central control and monitoring system (BMS) console.
C. CONTROL: switching relays controlled remotely by the BMS are to be provided with over- riding manual local
individual controls. Appropriate interface components are to be provided and coordinated with the BMS
described elsewhere in the Specification.
D. RELAYS, SWITCHING COMPONENTS, PILOT LIGHTS, CONTROL TRANSFORMERS, FUSES ETC. are to be neatly
arranged and mounted inside dust- tight and, where necessary, water- tight cabinets. Control and
indication devices are to be continuously visible and accessible for monitoring and control. All indication
devices and pilot lights to be LED based,
E. EQUIPMENT is to be electrically front shielded and enclosed by sheet metal barriers, readily accessible
and demountable. Wiring is to be neatly arranged, clipped and terminated in pressure type terminals.
Hardware is to be non- corroding and robust material, approved by the Engineer.
G. OVERCURRENT RELAY is to be provided with all other accessories. Upon detecting fault on monitored
control panel, corresponding bolt-on breaker unit is to trip, and fault signal is to be sent to BMS.
I. CURRENT TRANSFORMERS: bar primary type to IEC 185 class 0.5 for metering. Current rating isto be the
next higher standard value above maximum demand load current.
J. TEST BLOCKS AND PLUGS are to be provided for testing all instruments and instrument transformers.
The Contractor shall furnish and install where indicated on the Electrical Drawings dry-type transformers
as manufactured by Legrand or approved equal. Ratings shall be as indicated on the electrical plans.
Transformers shall have a 240 V primary and a 110 V, 24 V, 12 V secondary. Transformers shall be supplied
with 2-2 1/2% full capacity taps above and 4-2 1/2% full capacity taps below primary voltage.
Transformer coil must be vacuum impregnated with non-hygroscopic thermosetting varnish. Each layer
shall have end fillers or tie down to provide maximum mechanical strength. No splicing acceptable.
Materials incorporated must have at least a minimum of one year of proven field usage, accelerated
laboratory tests not acceptable in lieu of this field usage.
Transformer coils shall have a final wrap of electrical insulating material designed to prevent injury to the
magnet wire. Transformers having coils with magnet wire visible will not be acceptable.
The core and coil unit shall be completely isolated from the enclosure by means of vibration absorbing
mounts. There shall be no metal to metal contact between the core and coil and the enclosure.
Transformers shall be provided in a ventilated enclosure. Transformers shall be suitable for wall mounting.
The maximum top of case temperature, shall not exceed 35°C, above ambient. The entire transformer
enclosure shall by degreased, cleaned, phosphatized, primed and finished with baked enamel. Air dry
finishes will not be accepted as being equal.
The core and coils shall be visibly grounded to the frame of the transformer cubicle by means of a flexible
grounding strap of adequate size.
Sound levels shall be guaranteed by the manufacturer and substantiated by certified tests oneach unit
furnished. The sound levels are not to exceed the following values: 0 to 9 dB. Suppliers asking consideration
as an approved equal shall submit full guaranteed performance data on similar units in service for one
more years.
4.1. INSTALLATION
A. LOCATIONS: the Drawings generally show approximate locations of outlets and equipment. Exact locations
are to be determined from interior finishing and detail drawings. Any condition that would place an outlet
in an unsuitable location is to be referred to the Engineer. Locate switches at strike sides of doors, whether
shown on the Drawings or not. In locating outlets allow for overhead pipes, ducts, variations in
arrangement, thickness of finishing, window trim, paneling and other architectural features.
B. MOUNTING HEIGHTS for outlet boxes and similar equipment are to be uniform within the sameor similar
areas. Mounting is to be as shown on the Drawings or as approved by the Engineer. Unless otherwise
shown or instructed, mount lighting switches and socket outlets generally at 1200 mm and 300 mm from
finished floor level respectively. Mount switches with long dimension vertical and operating handle, if of
the toggle type, up when in the on position.
C. SINGLE POLE SWITCHES are to switch the phase wire. Do not run neutral wire through switches having
neutral shunt or bridge.
D. ADDITIONAL OUTLETS to those shown on the Drawings are to be provided as required by equipment
manufacturers for control or other wiring.
E. EXPOSED OUTLET BOXES: securely fasten to wall with machine screws to permanent inserts or lead
anchors.
F. RECESSED OUTLET BOXES: make neat openings, to the satisfaction of the Engineer, allowing for thickness
of finishing and use extension rings if required. Repair damaged finishing to original condition before installation
of fittings or plates.
G. APPEARANCE: install exposed boxes and plates plumb, square and parallel to finished wall surface. Exposed
plates covering recessed boxes are to rest neatly on wall surface without gaps, and fully covering the box.
H. GROUPED OUTLETS: arrange neatly so that use of fittings is convenient and clear.
I. WATERPROOF AND EXPLOSION- PROOF FITTINGS: follow manufacturer’s instructions for installation and
connection to conduit system to fully achieve required degree of protection.
J. DAMAGED FITTINGS: reject damaged fittings or plates with damaged finish. Protect fittings and plates
against damage after installation and handed over.
K. CONNECTION OF APPLIANCE:
a. Where appliance is designed to adapt directly to outlet box, extend electrical wiring to incoming
terminals inside appliance.
b. Where appliance is not designed to adapt to outlet box, install connecting wiring in flexible conduit
firmly fixed to outlet box cover plate and to terminal box on appliance.
The Contractor shall supply and install the motors and the starters under other sections when so
mentioned, as shown on the Drawings and as herein specified.
Motor starting method and corresponding furnished starter shall be concordant.
Motors shall be suitable for operation on 220/230 volt single phase or 380/400 volt 3-phase, 3- wires, 50 Hz
system and shall be drip-proof fan cooled to IEC 34-6 induction motor type unless otherwise indicated or
specified. All motors shall have a service factor of 1.15, and a power factor of 0.85 as a minimum.
Motors of ratings smaller than 1 HP shall be single phase and those of ratings 1 HP and larger shall be
three phase, unless otherwise indicated or approved.
Motors of rating larger than 5 horsepower shall have a soft starter drive, unless otherwise specified.
Motors of rating less than 5 horsepower shall be direct on line starting type.
Every motor shall be of sufficient capacity to operate the driven equipment under all load and operating
conditions without exceeding its rated name-plate current or power or its specified temperature limit. The
horsepower ratings for motors shown on the Drawings must be considered as an indication only. For the use
of motors other than that specified, the Contractor shall assume the cost of, and responsibility for satisfactory
accomplishing all changes (including engineering costs of redesign by the Engineer) in the work as indicated
and specified. All derating resulting from site conditions shall be allowed for in the design.
All motors shall be of a type approved for starting characteristics and ruggedness as may be required
under the actual conditions of operation.
All motors shall have class F insulation as a minimum requirement.
The motors shall be designed so that the maximum temperature rise at continuous run under full load and
operation conditions shall be in accordance with IEC Standards for Motors and Generators and based on
the local ambient temperature.
Indoor motors located in relatively clean surrounding, free from any abrasive or conducting dust or
chemical fumes, shall be enclosed ventilated drip-proof type. Otherwise motors shall be totally enclosed
fan cooled type.
Vertical motors if any shall be provided with thrust bearings adequate for all thrusts to which they can be
subjected in operation.
Vertical motors of open type shall be provided with drip hoods of approved shape and construction. When
the drip hood is too heavy to be easily removed, provision shall be made for access for testing.
Motors shall be furnished with oversized conduit terminal boxes to provide for making and housing the
connections and with flexible leads of sufficient length to extend for a distance of not less than 10 cm
beyond the face of the box. The size of cable terminals and conduit terminal box holes shall be as approved
by the Engineer. An approved type of solderless lug shall be supplied. Totally enclosed motors shall have
cast iron terminal boxes.
Motor shop tests shall be made in accordance with IEC Test Code or approved equal. Complete tests of each
motor supplied shall be made and certified shop test data sheets shall be submitted, unless witness shop
tests are required by the Detail Specifications pertaining totheequipment. Each motor shall be tested for
efficiency and power factor at 50, 75 and 100 percent of its rated horsepower, for temperature rise,
torque, starting current and dielectric strength; and for compliance with all specified performance
requirements.
PART 7 - MOTOR STARTERS (refer also to section Motor Control Centers, 262419)
Motor Starters shall be built and sized in accordance with IEC Standard 158-1 and IEC 947-4-1coordination
type 2, BS 775 and IEC 292-1&2, or approved equal. Starters shall be non- reversing, magnetic type unless
otherwise indicated or specified.
All starters shall be provided with thermal devices in each phase calibrated for close protection of the
motors against overloads. These devices shall trip the starters in case of overload and shall not allow it to
be reset except manually. The thermal overload relays shall be adjustable from 90 to 110 percent of nominal
rating. A single calibration adjusts all three legs. The overload relay shall be ambient compensated.
The starter shall be provided with auxiliary contacts for the connection of signaling, interlocking and other
circuits as required for the controls.
Unless otherwise indicated, all starters shall be provided with START-STOP pushbuttons, and RED and
GREEN LED pilot lights, all located on the starter front cover. An overload reset button shall be provided inside
the cover, Pushbuttons shall be momentary contact or maintained type as applicable to the function of
control.
Starters shall have horsepower ratings at least equal to ratings of motors they serve following IEC 947-4-1
coordination type 2.
Voltage of control circuit shall not exceed 240 volts for starters in motor control centers or panels.
Individually mounted starters or combination starters may have their control voltage on 380 volts
provided local regulations or local inspectors do not forbid the use of same. The
Contractor when utilizing such voltage for control shall provide the use of same. The contractor when utilizing
such voltage for control shall provide a clear warning of existence of such voltage within the station. If 220 volts
are required by the local regulations or local inspectors, a neutral conductor shall be brought within the feeder
of the starter of approved cross section, at no extra charge.
Starters shall be electrically held in, providing inherent under voltage release.
Starters when not part of a motor control center and are located indoors shall be encased in an IP 42 dust-
proof enclosure, unless otherwise indicated.
“Star-delta” starters, if any, shall have additional “Star” and “Delta” contractors which shall beelectrically
and mechanically interlocked to close the motor in “Delta” connection with the supply after the “Star”
contractor has opened. A timing device shall be fitted to provide and adjust time in “Star” before changing
over to the Delta connection.
The protective and control device for motor protection, have to be type-2 co-ordinated to IEC 947-4.1.
“Star-Delta” Starters shall provide closed transition.
Schematic wiring diagram of all starters shall be provided on the interior of starter front over.
A. Emergency Power Plant generally is to be in accordance with the requirements of division 16 of the
specifications with emphasis on the following:
1. Section 260000– Basic Electrical Requirements
2. Section 260526 – Earthing System
3. Section 262413 – Main Distribution Boards
4. Section 283100– Fire Detection & Alarm System
5. Section 260553 – Identification of Electrical Systems
6. Section 230548 – Mechanical vibration and noise isolation
7. Section 235100 – Breechings, chimneys and Stacks
8. Section 231113 – Fuel piping and Accessories.
9. Section 233113 – Metal ducts.
10. Section 233300 – Duct accessories.
11. Section 250000 – BAS
1.2 SUMMARY
A. Description of work: standby / emergency power plants installation comprises the followings:
1. Diesel operating generating set, with:
a. Associated auxiliaries
b. Cooling air flow system
c. Fuel-water separator filter
d. Start-up system
e. Fuel system
f. Starter batteries
g. Charger, etc.
h. Exhaust flexible fitting
i. Critical and low frequency exhaust silencer (55dBA @5m of the generator outlets)
j. Manifold, flexible fuel lines, etc.
k. Output disconnect breaker
l. Engine/generator protection, control and console
m. All necessary controls and devices to provide a complete operable automatic standby
power system.
2. Instrumentation, protection and control equipment.
3. Load management system.
4. Connection to the BAS and fire Alarm System by input output points.
5. Mains failure automatic transfer switches control.
6. Inter-plant cabling and wiring.
7. Earthing.
8. Fuel Storage and distribution.
B. All mechanical vibration and noise isolation issues should be calculated and submitted for engineer
approval.
1.3 STANDARDS
A. Equipment and component parts are to comply with ISO 8258, IEC 85, CISPR, AS1359, CSA, IEC60034-1,
ISO3046, ISO8528, NEMA MG 1-22, NEMA MG 1-33, UL508A, 72/23/EEC, 98/37/EC, 2004/108/EC or
equivalent, NFPA, ANSI, IEEE and DIN Standards and recommendations of ABGSM (Association of British
Set Manufacturers) where such standards meet with or supersede the ISO and IEC Standards
1.4 SUBMITTALS
A. Submit full technical data of equipment for approval including, but not limited to the followings:
1. General description and characteristics of engine-generating set, standards with which components
comply, site rating and overload capability, overall efficiency, fuel and lubricant consumption at
100%, 75% and 50% of rated load.
2. Description and operating criteria of engine; Type, model, manufacturer, fuel and lubricating oil
types and specific consumption, starting conditions and starting periods from cold to full-load pick-
up, governor and response characteristics due to sudden load changes, super-charger, fuel injection
system and radiator, air filters, fuel filters, oil filters and pumps.
3. Description and operating criteria of generator, exciter and voltage regulator, with loading
response and short-circuit characteristics, insulation, cooling and accessories dimensions, weights
and forces, mounting methods, vibration protection, etc
4. Battery type, make, charge / discharge characteristics, capacity and constructional features.
Battery charger, method of charging, equalizing and trickle charging.
5. Fuel pipes and accessories; Materials and construction and supports.
6. Cooling air flow system and silencers; Materials, construction and supports.
7. Cool instruments, protection, alarms, cut-outs, indicating lamps, indicating instruments and all
other devices or components.
8. Engine/generator control panel: make and type of meters and controls.
9. Automatic transfer switch and control gear control.
10. Calculated noise levels in dB at typical points within engine room and at variouslocations inside and
outside.
11. Vibration isolation analysis and vibration isolating material.
12. Performance characteristics based on standard conditions of 100 KPA and 40°C.
13. Wiring diagrams showing interconnection points of all electrical components.
14. Operating instructions:
a. Automatic starting and transfer to load and back to normal power, including timein seconds
from start of cranking until unit reaches rated voltage and frequency.
b. Manual starting.
c. Automatic shut down.
1.5 TESTING
A. PROTOTYPE TESTING
1. The power system consisting of prime mover(s), generator(s) and all necessary controls shall be
tested as complete systems on representative engineering prototype models. The tests, being
potentially damaging to the equipment tested, shall not be performed on equipment sold, but on
separate prototype models. A certificate certifying that this prototype testing has been performed
should be submitted. These tests shall have included, but not have been limited to:
a. Maximum power level (maximum kW).
b. Maximum motor starting capacity (maximum kVA).
c. Structural soundness.
d. Torsiograph analysis. A torsional analysis shall be calculated using data from actual tests by
the engine-generator set manufacturer to verify freedom from torsional stresses with ±10%
of rated speed. Results shall be made available to Consultant upon request. Actual torsional
fatigue test shall be performed on the complete prototype generator-set. Calculations
based on engine and generator data separately are not acceptable.
e. Engine-alternator cooling air flow.
f. Transient response and steady-state governing.
g. Alternator temperature rise by embedded thermocouples and by resistance method.
h. Harmonic analysis and voltage wave form deviation.
i. Three-phase short-circuit test for mechanical and electrical strength. With system operating
at rated volts, amps, power factor, and speed, the generator terminals shall be short
circuited ten times on all three phases for duration of thirty seconds. Generator set shall
build up and perform normally without manual interventions of any kind such as re-setting
of circuit breakers or other tripping devices when the short circuit is removed.
j. Failure mode test for voltage regulator. With generator set operating at no load, rated speed
and voltage, the AC sensing circuit to the regulator shall be disconnected for a period of at
least one hour. The generator set shall be fully operative after the test, and without
evidence of any kind of damage.
k. Endurance testing at rated load and speed is required without significant damage or failures of
electrical or mechanical components.
B. FACTORY TESTING
1. Before shipment of equipment, factory test generator set including engine, alternator, control
panels, transfer equipment and accessories for performance and proper functioning of control and
interfacing circuits. A certificate certifying that these tests have been performed should be
submitted. Test procedures shall include:
a. Load test at rated load and power factor (0.8) for a continuous 2 hour time period to observe
engine blow by, slobber, combustion gas leaks, inlet air leaks, excessive vibration and unusual
noise.
b. Single step load pickup.
c. Transient response and steady state governing.
d. Safety shutdown device testing
e. Voltage regulation
f. Rated power
g. Maximum power
h. Alternator temperature rise by resistance method.
i. Functional compatibility between generator set controls and transfer switch controls
(start, transfer, re transfer, stop, with all time delays).
j. Fuel consumption at ¼, ½, ¾ and full load.
A. Submit drawings for approval including, but not limited to, the followings:
1. Certified manufacturers’ dimensional drawings, templates and installation instructions for
equipment and accessories, showing weights and distribution of forces, location and size of cabling
(power and control), piping connections to equipment, and other pertinent data.
2. Plans and elevations of all equipment.
3. Separate unit wiring diagrams, schematics and interconnecting wiring diagrams.
4. Constructional details of bulk fuel storage tanks and daily service tank, including outline drawings
showing piping arrangements, connections and dimensions.
5. Complete execution drawings of associated auxiliaries.
6. All protecting device shall show: the Short circuit current value, the voltage drop, the indirect
protection function in case of a fault with respect the earthing system.
7. Soundproofing and vibration calculation.
A. Provide manufacturer’s recommended spare parts for 4000 hours operation of the standby plant. Provide list
of manufacturer’s spare parts for 6000 hours operation together with current prices.
A. Provide tools and instruments required for normal routine inspection, testing, operations and general
maintenance, as recommended by the manufacturer.
1.9 WARRANTY
A. After the site testing is completed and all systems are operating satisfactorily, the system supplier shall
submit a certification report and letter stating that the complete standby generator installation complies
with the requirements of the manufacturer.
B. The power plant, as supplied and installed, shall be fully warranted, for replacing and repairing any
equipment or auxiliary specified in this section, for a period of three years (not related to operational
hours) from date of acceptance and turnover to the customer.
D. In case of a generator (or more) failure, the intervention on site for repair should be within 12hrs of
landlord phone call (including mobilization, transportation, spare parts delivery, etc)
E. Contractor to submit an offer for extended warranty for 2 years independently from the 3 years listed above.
A. Obtain an undertaking by the equipment manufacturer and his authorized local representative to provide an
annual maintenance contract, available after taking over certificate of the work, covering routine service
and emergency service by trained employees, and to ensure supply ofnecessary standard spare parts.
recommendations and the best-established practices, procedures and standards recognized by the
related industry. There shall be no less than 12 visits per year.
4. The supplier should respond to an emergency call within 12 hours and should replace any defective
part within 24 hours. An emergency is defined as that which involves total or partial loss of a system
that may lead to a total loss of the service provided.
5. Other than emergency calls, service calls shall have a response time of next working day as a
maximum. The maintenance contractor shall work continuously until the problem is resolved and
the system is back to normal operation.
6. The maintenance contract shall include the cost (material and labor) of replacement ofconsumables
(fast moving spare parts), lubrication oil, filters, gaskets, belts, etc… not included in the general
warranty conditions through scheduled preventive maintenance visits performed by the supplier
according to manufacturer’s recommendation. Please account consumable for continuous 24/7
operation for 3 years.
A. GENERAL
1. GENERATOR SET ASSEMBLY: compact package type, with all equipment mounted on one rigid steel bed
frame suitable for skidding. Design is to permit easy operation, maintenance and repair.
2. VIBRATION REDUCTION is to be achieved by appropriate design and careful balancing at factory.
Compact set is to have approved anti-vibration isolators of steel spring and/or resilient neoprene
between rotating equipment and bed-frame, limiting transmission of vibration to building to a
maximum of 0.04 mm amplitude throughout the operating vibration frequency range.
3. NOISE REDUCTION: is to be achieved by approved methods at source of noise. Noise treatment is
required to restrict noise level to 55 dBA in nearest occupied room.
4. EQUIPMENT RATINGS: are to be as indicated on the bill of Quantities or the next higher standard ratings
provided by the manufacturer. Ratings are to be net continuous output to consumer, excluding fan
and any auxiliary drives and losses, delivered at specified frequency, voltage and power factor and
under worst climatic conditions on site.
3. COLD STARTING: engine is to be fully equipped to start and pick up initial load specifiedat specified
minimum ambient temperature. Cold starting aids, such as engine jacket water heater, lubricating
oil heater, intake-air heater, oversize standby battery and all devices, accessories, connections,
thermostatic switches and off-duty disconnects withpilot lights and necessary protection, are to be
supplemented as recommended by the manufacturer and approved.
4. STARTING AND STOPPING: when in the automatic mode the set is to startautomatically by a signal
sent through an auxiliary contact in the load transfer switchgear. The set is to stop, after an
adjustable cool-down period (2-30 minutes).The generators operation shall be rotated such that
equal running times are distributed on the generators (in thecase one generator fulfils the required
load).
5. DUTY: Generator is to reach full speed within 10 seconds of start impulse. The generator shall accept
immediately 70% of net rated output (load being mixed, steady and inductive, with motor starting
loads as shown on the drawings). The generator(s) shall be grade “G2” as per ISO 8528-5: 2013.
6. FAILURE TO START: should engine fail to start following a start impulse, the system is to come to
rest for a few seconds. Two further starting attempts are to be automatically made with
intermediate 20 second maximum periods of rest. Should theset fail to start after three attempts,
an alarm is to sound and a start failure signal illuminate, while a distinctive alarm is communicated
to the BAS and fire alarm panel.
7. HAND OPERATION: is to be possible for testing or normal operation through a
test/manual/off/auto selector switch.
REGULAR EXERCISING: while on “auto”, the set is to start regularly and automatically bi-weekly and
is to operate for an adjustable time preset (5-30 minutes) before stopping. This exercise has to be
controlled and monitored by the BAS system.
1. DESIGN: diesel engine is to be designed for type of load and application required. Engine and governor
are to be selected to meet operating requirements and response specified.
2. ENGINE TYPE: compression-ignition type with direct solid- injection, turbo-charged after-cooled, in
line or V-type cylinder arrangement, 1500 rpm, operating on number 2 diesel oil (distillate), suitable
for direct coupling to driven machine. Flywheel is to be suitably sized for type of service and
constraints specified (should be enough for a load pick-up capability of 70% of the generator’s
rating), and capable of being rotated at 125% of rated speed without failure. Torsional vibration
dampers are to be provided. Engine to be preheated in order to reach 70% of the load in 10 seconds
and 100% of the load in 3 minutes.
3. ENGINE RATING: Prime Power (PRP) applicable for supplying power to varying electrical load for
unlimited hours. Prime Power (PRP) is in accordance with ISO 8528. Ten percent overload capability is
available in accordance with ISO 3046, AS 2789, DIN 6271 and BS 5514.
4. ACCESSIBILITY: it shall be possible to:
a. Remove rocker-box covers without disturbing fuel injection pipes or other components.
b. Remove and replace pistons and rods, liners, big and small end shells and caps without
discoupling engine.
c. Bar engine over by hand for spill timing check and adjustment.
5. COOLING SYSTEM: engine is to be water cooled with gear-driven water pumps. System is to be
pressurized, with heavy-duty tropical radiator cooled by reverse flow fan. Fan cowl and hand
protection guard are to be fitted. Coolant temperature is to be controlled by one or more thermostats
as determined by design of system. Radiator is to be sized for continuous performance at 110%
rated load at worst operating ambientconditions with a 15°C temperature differential. Radiator is
to be non-ferrous metal, incorporating pressure valve, and radiator cap and drain cock and with
integral expansion tank; Direct acting modulating thermostatic diversion valve is to control engine
cooling water and anti-corrosion additives are to be used as recommended by manufacturer for
specific conditions of installation.
6. COOLING AIRFLOW: obstructions in path of cooling airflow (openings, louvers, grilles, mesh, ducts,
bends, etc.) are not to reduce airflow below that needed at full rated output. Fan and radiator
characteristics are to be selected accordingly. It is the contractor responsibility to provide any
additional booster fans if required and providenecessary control gear for automatic operation.
7. LUBRICATING OIL SYSTEM: pressurized circulating type, using engine-driven, gear type lubricating
oil pumps with full flow filters and replaceable elements and lubricating oil heat exchanger. Filter
system is to have spring load by-pass valve to permit oil circulation if filters become clogged.
Audible and visual alarms are to cut-in when valvestarts opening. Lubrication oil cooler is to be shell
and tube heat exchanger with water from engine radiator as the cooling medium. Direct acting
thermostatic diversion valveis to control oil temperature. Under normal operation by-pass is not to
be fully closed.
8. FUEL SYSTEM: is to have injection pump and injectors that are easily removable and replaceable
for servicing. Engine is to have integral, gear type engine driven transfer pump to lift fuel against a
head of 2.5m and supply it through filters to injection pump at constant pressure. Fuel filter
elements are to be easily replaceable. Daily fuel tank shall be integrated with genset (where
needed). It is the contractor responsibility to check and resize the fuel pipes sizes and filter as per
the manufacturer requirements.
9. FUEL FILTER:
a. Combined particle filter and water separator is to be installed in series with thesupply pipe
at the fuel tank side and above the retention tray.
b. The filter shall be of the specifications below:
1) Flow rate: as recommended by engine manufacturer
2) Particle filter: 10 micron
3) Filter element: disposable
4) Bowl: metal
c. One filter shall be installed for each generator.
10. HYDRAULIC FLEXIBLE HOSES for connecting fuel lines to engine should be of high pressure (20bar).
11. AIR INTAKE SYSTEM: Engine air filter is to be either dry filter with replaceable paper filter elements or
oil-bath filter dipstick and provision for adding oil while engine is running. Filters are to be capable
of removing particles 10 microns and larger.
12. ELECTRIC STARTING SYSTEM: engine starting shall be manual by push-button or automatic through
control system at control panel. System shall consist of heavy duty 24 V DC starter motor, heavy
duty battery and battery charger. Cranking motor and battery are to be rated for cranking the
engine when cold and at lowest temperature recorded. Starting pinion is to automatically
disengage when engine fires.
13. STORAGE BATTERY: lead-acid, sealed-in-plastic type, complete with battery corrosion resistant
mounting rack and intercell connectors. Battery should have sufficient capacity to crank engine for 3
minutes at 0°C without using more than 25% of ampere hour capacity.
14. BATTERY CHARGER (8 Amps): to be European, Japanese or American made, 25% over- rated, solid
state, full-wave rectifier type, adequate to fully recharge depleted battery in not more than 8 hours
and to automatically control rate of charge (providing a high- charge rate to a depleted battery and
reducing to a trickle-charge rate when battery is fully charged). Ammeter is to be provided to
indicate charging rate, which is to be adjustable. Battery is to be mounted in control cubicle, unless
otherwise approved. Thecharger is to monitor the battery and an alarm signal shall be sent to the
fire alarm system and building management system (BAS) in case of battery or charger breakdown.
15. ELECTRONIC GOVERNOR: Governor is to have zero percent (isochronous) setting and adjustable
drop from zero percent to 10% drop. System is to include power supply unit,magnetic speed pick-
up, control module and actuator using fast response DC motor drive or equally approved
alternative. Governor is to be designed for fast- response and high-precision of speed (frequency)
control, and is to include speed adjustment to +/- 5% of normal, while running, and with remote
control interface. Frequency deviation under 25% sudden load change is not to exceed 1 Hz,
recovering to stable speed condition of +/-0.1 Hz in 1 second.
16. GOVERNOR OVERSPEED TRIP: is to automatically close fuel pump racks in event of engine
overspeed. Device is to be separate and independent from governing mechanism.
17. PROTECTIVE SYSTEM: is to comprise automatic engine shutdown and generator trip with visual and
audible alarm in event of overspeed, low lubricating oil pressure, high cooling water temperature
and over cranking.
18. Guards shall be integrally mounted on unit to protect personnel from hot and moving parts.
19. CATALYTIC AIR EXHAUST PURIFIER: The Catalytic filter should work on the range of air temperature
of 350- 400°C and to comply with the OSHA and MSHA Standards.
B. GENERATOR (ALTERNATOR)
1. TYPE: synchronous, low reactance, high efficiency, revolving field type, with brushless exciter and
flexible coupling, sized to pick up effective load without exceeding transient and steady-state
voltage deviation limits specified up to its full nominal rating and designed for the performance
stipulated in the specification. It is to be single bearing construction.
2. REACTANCE: The alternator shall have a low reactance 2/3 pitch windings; low waveform distortion
with non-linear loads.
3. LEADS AND CABLES: phase leads are to be brought out fully insulated to a terminal cables box of
heavy gauge sheet steel, protection IP44 to IEC 529. Control and protection cables are to be
brought out to a separate terminal box.
4. MAXIMUM VOLTAGE DIFFERENCE: between the three phases at 100% balanced load is not to
exceed 1%. With unbalanced load up to 30% on one phase at unity power factor and zero loads on
other phases, the line-to neutral voltages are not to differ by more than 5%.
5. CHARACTERISTICS:
a. Number of phase: 3
3 seconds. The voltage regulator has to monitor the 3-phases outputs. Voltage regulator power is to be
supported by a permanent magnet to maintain excitationfield power (PMG).
C. CONTROL PANEL
1. Provide a unit mounted control console that is factory built, wired, tested and shock- mounted by
the unit manufacturer. Control console shall be a rigid, ‘sprinkler proof’, metal enclosure, mounted
on the generator end of the set, containing all devices as specified herein, and as required for
described functions. Control console shall include a control section and control panel with required
access to all components. Control wireshall have termination identification on each wire for ease
of tracing. Control wires which run between generator set controls, synchronization controls and
automatic transfer switches shall have identical termination identification on both ends. Aluminum
nameplates shall be provided to identify each device or function.
2. A real-time clock for date and time stamping of diagnostics and events in the control’s logs as well
as service maintenance reminders based on engine operating hours or calendar days.
3. Set points & software to be stored in nonvolatile memory, preventing loss during a power outage.
4. True RMS sensing ensures AC metering accuracy to within ± 1% of rated AC voltage (L - L and L-N)
and current. kW and kVA metering to within ± 5% of rating.
5. Controls:
a. Engine run-stop-auto switch.
b. Engine emergency stop button plus provision for remote emergency stop button.
c. Lamp test switch and reset switch.
d. Voltage adjusting control.
e. Frequency adjusting control.
f. Engine Cool-Down timer adjusting control.
g. Engine Cycle Cranking
h. Engine Speed/Generator Frequency adjusting control.
6. Digital (LCD) Indication
a. Generator AC Voltage – 3 phase (L-L & L-N)
b. Generator AC Current (per phase & average)
c. Generator Power kW (total & per phase)
d. Generator kVAR (total & per phase)
e. Generator kVAR-hr (total)
f. Generator % of rated power (total) (kW, kVA, kVAR)
g. Generator kVA (total & per phase)
h. Generator kW-hr (total)
i. Generator Power Factor (PF) (average & per phase)
j. Generator Frequency
k. Engine RPM
l. Battery Voltage
m. Engine Hours
n. Engine Successful Start Counter
o. Engine Oil Pressure
p. Engine Coolant Temperature
q. Engine Crank Attempt Counter
r. Service Maintenance Interval
and instrument panels, separate compartments for control devices, protective relays, circuit breaker(s)
and neutral earthing device. Inner and outer surfaces of the galvanized steel enclosures are to be
cleaned, phosphatized, primed with heavy-duty rust inhibiting primer and finished with two coats of
enamel. Wiring is to be 600 V, arranged in modules with connections made at front terminal blocks with
no live conductors exposed. Wires are to have approved numbered ferrules at each terminal. Printed
circuit plug-in boards, where applicable, are to be of industry standards, accessible and withdrawable,
mounted in standard racks.
5. Intelligent modular Gen-set controller featuring the followings:
Comprehensive AMF-controller for multiple genset operating in standby or parallel modes,
construction should be set and upgradable to a maximum level of complexity for the best
configuration in using multitude of genset. The controller has to achieve/include the followings:
1) It shall be arranged for interface between human operator and generator components,
including annunciation, supervision and control.
2) Provide synchronizing and isochronous load sharer with total integrated solution for
genset in parallel or stand-by mode. Load sharing shall include active, reactive and
apparent power.
3) It shall include a rugged touch screen showing icons and bar-graph.
4) It shall include full criteria for isolated parallel and parallel to mains with forward and
reverse synchronization.
5) Including software with all hardware accessories. Support of external synchronizer
and load sharer.
6) The unit shall include push buttons for “START”, “STOP”, “MAN” and “STOP”
operational functions and “RESET” push buttons for alarms and outputs resetting.
7) The detailed information on alarms, program parameters, power and analogues
values of the generator shall be shown on the unit backlit display.
8) “UP” and “DOWN” keys shall allows the user to switch between menus.
9) The unit shall be able to measure and display the three phases voltage, frequency
and current, active and reactive power, running time meter, water temperature and
oil pressure (analogue values).
10) The unit has to include display LEDs for oil pressure fault, water temperature fault,
failure to start fault, overspeed fault, charging alternator fault, general fault, general
alarm and set ready to output.
11) The unit shall be able to be controlled from external switch for emergency shutdown.
12) The monitoring / control display unit shall be able connected to be connected to
other monitoring / control display units mounted in adjacent generators control
panels via a RS485 MODBUS Network.
13) The unit shall be fitted with RS 232 communication port and include a gateway to
BAS using Modbus.
3) First start sensor for monitoring the voltage and frequency of the genset as it is
starting.
4) Pulse alarm system to sound alarm at first fault and each additionalfault.
5) DC Voltage sensor with time delay monitor for starting battery system.
6) The status of the generator’s breaker shall be monitored such that if it is open or
tripped an alarm signal is sent to the BAS and fire alarm panel.
7. RELAYS: front adjustable, sealed type, with dust-tight enclosures, removable covers, test terminal
blocks and plugs for testing relay without removal from case. Removal from casing is to
automatically short-circuit respective current transformer secondary windings.
8. INSTRUMENTS: are to be housed in enameled metal cases for switchboard flush installation, with
scales and markings protected and sealed. Including meters are to be minimum 76 mm square.
Accuracy is to be within 2% unless otherwise specified. Voltmeters and moving coil type for D.C.
measurements.
9. CURRENT TRANSFORMERS: class 1 for measuring and protection.
10. Enclosure construction: Form 3B to IEC EN 60439-1.
11. VOLTAGE TRANSFORMERS: single phase, dry type, 0.5 accuracy class.
E. TOTALIZING PANEL
2. SEQUENCE OF OPERATION:
a. Auto-Mode:
1) On receipt of a start signal indicating the loss of power, the generator sets are to
automatically and independently start, accelerate to rated frequency and build up to
rated voltage. The first unit to reach the preset levels closes to the bus with the other
units disabled in doing so. The first priority controls prevents the overloading of the
system bus by inhibiting the operation of the lower priority load switching until
additional gensets are closed to the bus.
2) The control of the remaining gensets is reverted to the synchronizing system for each
paralleling operation in sequence. Each genset then synchronized with the system
bus and closed will assume its proportional share of the load. Also, as each genset
closes to the bus lower priority loads will be switched on automatically and shared
by the system proportionally.
3) If a generator fails to start, or the bus overloads or a generator fails, the
corresponding motorized breaker (or contactor) is to open (and remain open). The
alarm will sound and an alarm signal shall be transmitted to the BAS and fire alarm
system, and the lowest priority loads are to be shaded.
4) The microprocessor of the system is to continually monitor the total load on the bus,
and should the system be able to carry the entire load safely with fewer generators,
the controller will shut off some of the generator units.
5) Upon the return of normal power and after an adjustable preset time all the
generator motorized breakers (or contactors) are to open and the gensets are to run
unloaded for a cool-down period, then shut off and be ready for another automatic
operation.
6) The load management system shall be able to conduct operations following a BAS
preset schedule under which the priorities which are not related to the emergency
loads would be rescheduled and some loads could be supplied by the emergency
power plant even if the normal power (utility) is available. This procedure shall be
accomplished by controlling the automatic transfer switches. The aim of this
operation is to reduce the normal power (utility) usage during peak tariff hours and
re-scheduling the priorities. The connection to the BAS shall be over the bus interface
(Modbus, BacBet or LON) provided to the AMF controller units.
b. Manual Mode:
1) Manual synchronizing is to be possible manually and sequentially by the operator,
whilst all protection functions are kept operative. The manual synchronizing mode
however, shall not allow the operator to connect a generator to the bus unless the
manual synchronizing check relay enables the operation.
c. Emergency Mode:
1) If any of the paralleling motorized breakers is in the “O” positions, the corresponding
generator is therefore disconnected and the system should start with the remaining
generator and take the load without that generator. The load lowest priorities are
shedded as required.
2) If any of the paralleling motorized breakers is in the shunt position, the corresponding
generator is to start directly connected to the common bus (but with all loads
disconnected) and the other generator is then synchronized and the loads connected
as usual.
3) If inadvertently the two paralleling switch-disconnectors are shunted, the generators are
disabled and their protection breaker is shunt tripped.
4) If situations 1) & 2) described above are engaged simultaneously, the procedures
described in 1) & 2) shall both apply.
F. LOAD MANAGEMENT PANEL (requirements of section 262413 apply for the panel type): The load
A. FUEL LINES:
1. Heavy gauge, black seamless steel, to ISO/R65 or equal, treated internally with corrosion resistant paint
and with joints sealed with PTFE tape. Plumber’s twine or gasket sealing compound is not to be
used. Changes in direction and branching and
jointing are to be with regular pipe fittings. Field fabricated and bent fittings are not tobe used.
a. Fuel feed line to daily tank is to have by-pass with stop-cock. Size of fuel return line from
daily tank to main fuel tank is to be manufacturer’s recommendations.
b. Connection to engine shall be made with adequate flexible connection.
c. For fuel pipe refer to section 231113
A. Muffler: Critical and low frequency type, sized as recommended by engine manufacturer. Rated sound level
reduction of 37 dBA or more.
B. Connections from Engine to Exhaust System: Flexible section of corrugated stainless-steel pipe.
C. Connection from Exhaust Pipe to Muffler: Stainless-steel expansion joint with liners.
E. Supports for Muffler: Spring hangers and all-thread rods and vibration hangers with approved masonry
expansion bolts, minimum 14 mm diameter and install in accordance with manufacturer’s instructions
and attached to building structure.
F. Exhaust Pipes shall be a complete system of the prefabricated pre-insulated double wall chimney
manufactured under factory quality control conditions with all components and accessories. The vertical
seam of the inner wall shall be continuously welded, with automated welding. The metal sheets of both the
inner liner and the outer shell of each element must havea safety-end, that is, they must be bent at their
extremes to avoid any personal injury while handling it. Joining shall be made by locking bands with the
application of manufacturer supplied sealant. The Chimneys material is of low thermal inertia,
manufactured in minimum thickness, light material, high grade stainless steel classified as V2 according to
EN 1856-1 for corrosion resistance of the liner, the inner shell is of stainless steel 316L(304 for outer) of
0.5 mm thick. A continuity of rock wool insulation of density 100 kg/m3 and ceramic fiber insulation at the
joints, all are of thickness of 55mm.
G. For additional specification concerning the stack exhaust system please refer to the specialist
requirements related to the cleaning trap in each elbow or change in direction and at the bottom of the
riser, all other supporting system, end cap...
1. Construction: shall be fabricated from Galvanized steel sheet 1.1 mm minimum, reinforced when
required according to SMACNA "Duct construction Standard".
2. Baffles: Absorbing material of protected mineral fiber blankets 2x10cm thick and perforated
galvanized sheet steel facing on both sides.
3. Flexible Connector: Flame-retarded or noncombustible fabrics, coatings, and adhesives complying with
UL 181, Class 1; and factory fabricated with a strip of fabric 89 mm wide attached to two strips of
70-mm- wide, 0.7-mm, galvanized steel sheet or 0.8-mm aluminum sheet. Select metal compatible
with connected duct system. Fold and crimp metal edge strips onto fabric as illustrated in
SMACNA's "HVAC Duct Construction Standards".
4. For additional specification concerning the ducts, silencer, dampers please refer to the mechanical
specification section: 15815, 15820.
5. Noise treatment is required to restrict noise level to 55dBA at 5m of the generator outlet and 45 dBA in
nearest occupied area.
1. For the walls 5cm Fiber Glass (Isover PB or Equivalent) with galvanized perforated metal sheet as a
protection layer;
2. For the ceiling 3cm Gypsum board suspended ceiling (on special noise absorbing suspension) on
7.5cm fiber glass layer with 12cm air gap complete with all necessary accessories.
3. All to achieve the required noise level in the nearest occupied areas.
PART 3 - EXECUTION
3.1 INSTALLATION
A. EQUIPMENT BASES: ensure that concrete bases and foundations provided for installation of equipment
are constructed in accordance with approved shop and construction drawings and manufacturers’
equipment drawings and that holes for fixing bolts and provisions for passage of cables etc. are provided
as required.
B. BUILT- IN ITEMS: ensure that equipment supports, fixings and the like, and sleeves for passage of feeders
and cables which are to be built into concrete foundations, bases or building structure are provided as and
when required and that they are properly installed.
C. TOOLS: use only tools recommended by equipment manufacturers for installations, particularly in making
connections and adjustments.
D. SUPERVISION: carry out equipment installation under the direct supervision of a qualified technician,
licensed by and trained at the factory. Final adjustments and putting into satisfactory operation are to be
made by a specialist delegated by the factory.
E. GENERATING SET: install to maintain alignment and minimize engine and generator stresses. Protect
instrumentation and control equipment including engine mounted instruments from machine vibration.
Mountings and method of mounting are to be as recommended by the manufacturer and approved by
the Engineer.
F. ENGINE HOT- AIR EXHAUST DUCT: install approved canvas duct with metal frames between radiator and
louvered opening in wall for radiator exhaust air.
G. SOUND ABSORBERS FOR INLET AND OUTLET AIR: Is to be designed according to Manufacturer
recommendation, quality of mineral fibers absorbing material to be approved with the metal perforating
sheets protections. Resulting noise to the nearest occupied area shall not exceed 45 dBA .
H. TANK VENT PIPE: extend to nearest shaft and carry up to at least 2 m above ground level with end at least
2 m away from any building opening. Slope vent pipe back to tank without traps and support securely.
Provide replaceable dust filter and gooseneck bend or approved weatherproof vent cap at top of pipe.
I. PIPE HANGERS AND SUPPORTS: fasten securely to building structure with approved masonry expansion
bolts, minimum 14 mm diameter and install in accordance with manufacturers instructions.
J. EARTHING: install earthing system in accordance with Section 16060 of the Specification. The earthing
system is TN-S.
A. EQUIPMENT: Inspect and report any loss equipment upon delivery to site or damage to the Engineer.
B. EARTHING RESISTANCE TESTS: if any are to be carried out to verify specified requirements.
C. LOAD TESTS: are to be carried out at low loads to overload conditions, at various power factors.
Measurements are to include voltage and frequency deviations and regulating time under various step-
loading conditions, temperature measurements and pressure measurements at various locations, and in
accordance with an approved plan under conditions equal to worst site ambient conditions.
D. LOAD BANKS: Provide load banks to carry out complete test cycle of the system underloading and
switching conditions necessary to prove compliance with the Specification.
2. Insulation measurement.
3. Functional tests for voltage sensing, automatic start and synchronization, transfer ofload and load-
sharing as applicable.
4. Operation of engine shut- down and alarm a signaling and indication, under simulated fault
conditions.
5. Measurement of vibration transmission to building structure.
F. TEST PROCEDURE:
1. Prepare blank forms and check sheet with spaces to record data. At top of first sheet record:
a. Date.
b. Generator set serial number.
c. Engine make, model, serial number.
d. Generator make, model, serial number.
e. Voltage regulator make and model.
f. Rating of generator set kW, kVA, V, A, RPM, Hz.
g. Load sharing control model, serial number
h. Load management model, serial number
2. Mark check sheet and record data on forms in duplicate as test proceeds.
3. Submit test results with the Maintenance Manuals.
4. With a resistive load bank at 100% rated load of generator, operate plant for 8 hours continuously,
taking readings at 30 minute intervals, and followed by 10% overload for 1 hour, without
interruption, record the following on each genset:
a. time of reading
b. Running time.
c. Ambient temperature in °C.
d. Lube oil pressure in KPa.
e. Lube oil temperature in °C.
f. Engine coolant temperature in °C.
g. Exhaust stack temperature in °C.
h. Alternator voltage, Phase A, B, C, AN, BN, CN.
i. Alternator current, Phase A, B and C.
j. Power in kW.
k. Frequency in Hz.
l. Power factor.
m. Battery charger current in A.
n. Battery voltage.
o. Alternator stator temperature in °C.
5. Demonstrate automatic starting of set and automatic transfer of load on failure of normal power
and transfer on resumption of normal power.
6. Demonstrate sequential synchronization of the gensets to the bus with load pick-up asspecified.
7. Simulate loss of 1 genset to demonstrate load sharing on the others.
8. Demonstrate load management functions as specified.
9. Demonstrate operation of manual bypass switch in both directions.
10. Demonstrate automatic cool down and shut down of engine on resumption of normal power.
11. Demonstrate that battery charger reverts to high rate charge after cranking. Demonstrate two
minute total cranking capacity and recharge cycle.
12. Demonstrate low oil pressure, high engine temperature and water low level shutdowns.
13. Simulate loss of normal power by de-energizing main distribution feeder breaker. Allow generator to
operate with load bank. R-energize main distribution feeder breaker. Note operation of transfer
switch and controls during the simulated power failure test.
14. All testing shall conform to testing standards - total of 8 hours.
PART 1 - GENERAL
1.1 ELECTRICAL WORK GENERALLY is to be in accordance with the requirements of Sections 260000 of the
Specification.
1.2 DESCRIPTION OF WORK: complete indoor and outdoor lighting installations includingfixtures, control
gear, mounting provisions, accessories and connection to circuit wiring and to corresponding lighting
control equipment.
1.3 FIXTURE DESIGN AND STANDARDS: the Specification and the Drawings is a guide to the selection of
lighting characteristics and lighting fixtures, giving general features of construction, materials, method of
installation and conditions of operation. Unless otherwise specified, fixtures are to be manufacturer’s
standard series, designed and manufactured for the purpose and application required, generally in
accordance with the Schedule of Lighting Fixtures and complying with IEC 598 and CISPR 15.
1.4 DESIGN LAYOUT: Fixture layout has been determined from photometric data of specified fixtures to
achieve desired level and uniformity of illumination. Reflected ceiling plans are to be checked to ensure
exact positions of fixtures with respect to structural members, ducts pipes, other installations and ceiling
panels/tiles, where required. Certain fixtures are shownin provisional positions, pending preparation of
final equipment layout drawings. Such fixtures are to be located in coordination with final equipment
layout so that illumination is as intended by the design.
1.5 EQUIPMENT DATA: Submit data for approval including, but not limited to, the followings:
A. Detailed literature on each fixture, lamp and control gear including manufacturer’s name, catalogue
number, rating, material specification, overall dimensions, operating characteristics and principals.
B. Details of changes to standard fixtures for adaptation to condition of installation and to the Specification.
C. Photometric data for lighting calculations including polar light distribution curves, coefficient of utilization,
glare classification, efficiency, depreciation factors etc…
1.6 SHOP AND CONSTRUCTION DRAWINGS: submit drawings for approval including, but not limited to, the
followings:
A. Exact position of each fixture on reflected ceiling plans, with indication of ceiling features, structural
members, ducts, pipes and other fittings, as applicable and pertinent to the installation.
B. Installation details including suspension and mounting provisions.
C. Purpose made fixtures or lighting assemblies with full details.
D. Wiring details, circuit and panel board references, special lighting control arrangementsetc…
1.7 SAMPLES: Submit fully equipped sample of each fixture type, modified if required, together with color
and texture samples of each fixture.
1.8 SPARE PARTS: provide manufacturer’s recommended spare parts for emergency replacement and one year’s
maintenance including, but not limited to, the followings (Emergency lighting fixtures spare parts are
listed in section “Central Battery System”).
A. Fluorescent Lamps: Quantity equal to 3 percent of amount of each type installed, but not lessthan six unit
of each type.
B. Incandescent or Halogen Lamps: Quantity equal to 5 percent of amount of each type installed,but not less
than six unit of each type.
C. High Intensity Discharge Lamps: Quantity equal to 5 percent of amount of each type installed,but not less
than three unit of each type.
D. Cold Cathode Lamps: Quantity equal to 1 percent of amount of each type installed, but not less than 1
unit of each type or segment length used.
E. Lighting Control Gear (any type): Quantity equal to 2 percent of amount of each type installed,but not less
than 2 unit of each type.
F. Lighting Fixture used in areas accessible by the residents (non-technical) except parking space: Quantity equal
to 1 percent of amount of each type installed, but not less than 1 unit of eachtype.
1.9 WARRANTY
A. General Warranty: The special warranty specified in this Article shall not deprive the Owner of other
rights the Owner may have under other provisions of the Contract Documents and shall be in addition
to, and run concurrent with, other warranties made by the Contractor under requirements of the
Contract Documents.
B. Special Warranty: A written warranty, signed by Contractor and manufacturer, agreeing to replace any
component that do not meet requirements or that fail within the specified warranty period.
C. Warranty Period: 1 year from date of taking over certificate for any component of thesystem.
1. GENERALLY: Construction and wiring of fixtures are to comply with the Regulationsand Standards.
Fixtures are to be fabricated, assembled and wired entirely at factory. Manufacturer’s name,
factory inspection stamp and official quality label are to be fixed to each fixture supplied.
2. LIGHTING FIXTURES (LUMINAIRES): to be manufacturer’s standard, as given in Lighting Fixture
Schedules shown on the Drawings, or equal.
3. SHEET STEEL HOUSINGS: to be not less than 0.6 mm thick, and thicker when required by the
Specification or the Standards.
4. SHEET STEEL REFLECTORS: to be not less than 0.5 mm thick.
5. ALUMINUM REFLECTORS: to be not less than 0.7 mm thick, 99.9% purity, specular, non-irridiscent
unless otherwise approved.
6. FABRICATION: metalwork is to be mitered, welded and ground smooth without tool marks or burrs.
Flat metal parts are to be stiffened by forming grooves and edges during fabrication. Metal parts are
to have finish free from irregularities.
7. RUST-PROOF FERROUS BASE: ferrous metal parts are to be bonderized (treated with corrosion
resistant phosphate solution) and given an approved rust-inhibiting prime coat before application
of final finish.
8. FINISH FOR NON-REFLECTING METAL SURFACES: approved baked enamel paint. Paint color on
fixture frames and trims is to be as specified or as selected by the Engineer.
9. FINISH FOR LIGHT REFLECTING SURFACES: white baked enamel paint having reflection factor not
less than 85%. Mirror reflectors, where specified, are to be highly polished, anodized aluminum
with reflection factors not less than 97%.
10. MECHANICAL RESISTANCE OF FINISH: after finish has been applied on steel surfaces and cured, it is to
withstand a 6 mm radius bend without showing signs of cracking, peeling or loosening from base
metal.
11. RESISTANCE OF FINISH TO ULTRA-VIOLET: finish is to withstand 72 hours exposure to a ultra-violet
RS lamp placed 100 mm from surface without discoloring, hardening or warping, and is to retain
the same reflection factor after exposure.
12. HEAT RESISTANCE: finishes, wire and components inside fixtures are to be certified materials to
resist the temperatures or other conditions encountered in the fixtures.
13. WIRING INSIDE FIXTURES: to be not less than 1.5 mm2, and insulated for 240 V application.
Insulation is to have acceptable characteristics to resist maximum temperatures inside fixtures.
Wiring is to be terminated on screw type and fixed. Emergency lighting fixtures shall comply with
local codes and BS5266.
14. HINGES: fixtures with visible frames and hinged diffusers are to have concealed hinges and catches,
and stainless steel retaining clips. Other alternative equally durable products may be submitted for
approval.
15. SUSPENSION ALIGNERS: to be provided for pendent fixtures for axial, vertical and horizontal
alignment. Vertical adjustment is to be minimum 25 mm.
16. RECESSED FIXTURE: to be constructed to fit into suspended ceilings without distorting fixture or
ceiling. Plaster rings are to be provided for plaster or concrete ceilings.
17. OUTDOOR FIXTURES: to be non-ferrous metal or specially moulded material for outdoor use.
18. REMOVAL OF PARTS for maintenance is to be possible without removing fixture housing.
B. FLUORESCENT FIXTURES
1. LAMP HOLDERS GENERALLY: to IEC 400, heavy duty, moulded white plastic with non- corroding
spring contacts.
2. LAMP HOLDERS FOR INDUSTRIAL FITTINGS: spring loaded turret type, heavy duty, dust protected.
3. BALLASTS GENERALLY: to IEC 82. Only single (36 W) or two-lamp (18 W) ballasts are to be used in
any one fixture. Ballasts generally are to be electronic type with lamp preheat. Equipment is to be
enclosed in sheet steel casing with corrosion resistant finish.
4. BALLAST THERMOSETTING COMPOUND is not to soften, liquify or support combustion under any
operating condition or upon ballast failure, and is to fill ballast enclosure and dampen vibrations.
Temperature rise, under normal operating conditions, is not to exceed 55 deg. C above maximum
ambient temperature of 40°C.
5. BALLAST PROTECTION: Each ballast is to have one-time external fuse and fuse holder rated in
accordance with manufacturer’s instructions. Electronic ballasts are to have built-in overload and
short circuit protection.
6. BALLAST TYPE (except for clod cathode): electronic or electronic high frequency dimmable type, as
stated in fixture description and as shown on the drawings, power factor corrected to above 0.9,
having manufacturer’s lowest case temperature. Sound rating is not to exceed level given in the
Standards. Harmonics to IEC EN 60929, radio interference suppression to IEC EN 55015 and
immunity to IEC EN 61547. The ballast shall operate at a frequency not less than 30 kHz.
7. BALLAST RATING: ballast is to be manufactured and certified for the specific lamp it controls and
for operation from nominal power supply, with voltage and frequency equal to nominal voltage
and frequency of distribution network.
8. CAPACITORS: to IEC 566, having snap-type connectors and fastening, bolt type M8, for fixing to
fixture.
9. STARTERS, if required, are to comply with IEC 155, and are to be selected in conjunction with respective
ballast and lamp.
1. INCANDESCENT LAMP SOCKETS: to IEC 61 and IEC 238, high grade porcelain; E27 (ES) screw sockets
for lamps not exceeding 200 W and E40 (GES) screw sockets for lamps 300 W and over.
1. TYPE: fixture are to be complete units including integral ballasts (and igniters for HPS lamps where
indicated) and lamps of required number and type, and are to have lighting distribution characteristics
equivalent to model and manufacturer indicated in the fixture description.
2. ACCESSORIES: fixture are to have mounting accessories, such as suspension rods or chains, rails or
brackets, and protective glass covers with gaskets for protection against dust and humidity or type
of corrosive atmosphere predominant in the location.
3. BALLASTS AND IGNITION DEVICES are to be power factor compensated to at least 0.9 lagging, and
type specially selected for lamp type and size used. Lamp is to be able to start with at least +/-10%
variation from nominal line voltage and continue in normal operation with dips attaining 20% for
four seconds. Compensation is to ensure there is no great increase in operating current during starting
and that gear losses do not exceed 10% of normal wattage. RF suppression circuit is to be provided.
1. General: Comply with relevant IEC standards. Unless otherwise indicated, features include the
following:
2.2 LAMPS
A. Lamps are not limited to the following; special lamps shall be subject to lighting fixture manufacturer
recommendations and supervising consultant approval.
C. INCANDESCENT LAMPS FOR GENERAL LIGHTING SERVICE (GLS): to have screw base type ES for lamps 200
W and below and type GES for lamps 300 W and above. Inside frosted (IF)lamps are to be used unless
otherwise specified. Guaranteed rated life is to be above 800 hours and luminous output above the
followings:
1. 950 lumens for 75 W lamps.
2. 1350 lumens for 100 W lamps.
D. TUNGSTEN-HALOGEN LAMPS: tubular, quartz, resistant to high temperatures. Guaranteed rated life is to
be above 2000 hours and luminous output above the following:
1. 9500 lumens for 500 W lamps
E. STRAIGHT TUBULAR FLUORESCENT LAMPS (T8 lamps): to IEC 81 (SSA 138 and 139) and, unless otherwise
specified, are to be switch start type, bi-pin, rated as indicated in the fixture description and with improved
fluorescent internal coating. Color of light is to be superb quality white equal to Philips Nb 84 unless
otherwise specified. Lamps are to be low energy type withtube diameter 26 mm. Guaranteed rated life is
to be above 8000 hours and luminous output above the followings:
1. 1350 lumens for 18 W lamps (600 mm long); 1B color rendering index.
2. 3350 lumens for 36 W lamps (1200 mm long); 1B color rendering index.
3. 5200 lumens for 58 W lamps (1500 mm long); 1B color rendering index.
F. STRAIGHT TUBULAR FLUORESCENT LAMPS (T5 lamps): unless otherwise specified, are to be electronic
start type, bi-pin, rated as indicated in the fixture description and with improved fluorescent internal
coating. Color of light is to be superb quality with Ra ≥ 90. Unless otherwisementioned, color to be warm
whiteLamps are to be low energy type with tube diameter 16 mm. Guaranteed rated life is to be up to
24000hours and above 16000 hours while lumen maintenance is >90 % throughout the life of the lamp
and luminous output above the followings:
G. PL-C COMPACT LAMPS: single ended, compact-miniature lamp, consisting of four (or two) narrow
fluorescent tubes welded together, with integral instant starter and capacitor andwith special two-pin plug-
in base and socket. Guaranteed rated life is to be above 5000 hours and luminous output above the
following:
1. 600 lumens for 10 W lamps (80 mm long)
2. 900 lumens for 13 W lamps (90 mm long)
3. 1200 lumens for 18 W lamps (100 mm long)
4. 1800 lumens for 26 W lamps (115 mm long).Lamps are to be with warm color impression.
H. METAL HALIDE LAMPS: comprising quartz discharge tube enclosed in clear tubular hard-glass outer bulb,
operating on same principle as all gas discharge tubes with iodide additives indium, thallium and sodium in
the mercury discharge, to increase intensity in three spectral bands; blue green and yellow-red with high
color rendering. Lamps are to be to IEC 188 with E40 base. Guaranteed average life is not to be less than
10000 hours and luminous outputs, after 100 hours burning, are to be above the following:
1. 3300 lumens for 35~39 W lamps
2. 6500 lumens for 70 W lamps
3. 14000 lumens for 150W lamps
4. 19000 lumens for 250 W lamps
5. 32500 lumens for 400 W lamps
6. 90000 lumens for 1000 W lamps
7. 190000 lumens for 2000 W lamps
8. Permissible base temperature is to be not greater than 250°C, and maximum bulb temperature not
greater than 550°C. Lamp burning position for 2000 W, 220 V lamps is to be possible up to 75
degrees.
I. HIGH PRESSURE SODIUM LAMPS: comprising quartz discharge tube enclosed in clear tubular hard-glass
outer bulb, operating on same principle as all gas discharge tubes with iodide additives indium, thallium
and sodium in the mercury discharge, to increase intensity in three spectral bands; blue green and yellow-
red with high color rendering. Guaranteed average life is not to be less than 20000 hours and luminous
outputs, after 100 hours burning, are to be above the following:
1. Cold Cathode Ballasts shall be IP44 rated, consisting of double transformers, encapsulated in a
strengthened epoxy resin enclosure, with two high voltage windingsmagnetically separated from
each other and with the high tension’s mid point earthed.
2. The ballasts (including the transformers) shall be approved by ASE, IMQ, KEMA, VDE, CEBEC and
shall be short-circuit proof.
3. The mounting base shall be made from zinc aluminum and it shall include an earthing screw. The
base shall be firmly fixed to the core of the transformer and shall allow the installation in any
position.
4. The lid shall be made of synthetic material, self-extinguishing and impact resistant. Thelid shall be
provided with knife switches to cut off the supply when it is opened.
3. White LEDs or white light from LEDs shall be using phosphor white LEDs in lieu of RGB LEDs
4. Color rendering Ra shall be >= 90% for color temperatures in the 3500°K range; color rendering Ra
shall be >= 70% for color temperatures in the 7000°K range
5. To preserve quality of white light, and avoid Large variation in correlated colortemperature (CCT);
only conformal phosphor coating process shall be used.
6. Minimum White LED (1W) typical performance table
Color temperature
4500 – 10 000 K 4500 - 3500 K 2670 - 3500 K
(CCT)
3.1 INSTALLATION
A. GENERALLY: install fixture level, aligned and parallel or square to building lines and at uniform heights as
shown on the Drawings or as approved by the Engineer. Make final height adjustment after installations.
B. FIXTURE SUPPORT: provide fixture and/or fixture outlet boxes with hangers, brackets and flanged bolted
fittings, as necessary, to support weight of fixture. Submit details of hangers etc.and method of fastening for
approval. Rigidly secure fixture mounted on outlet boxes to fixture studs. Install hooks or extension pieces,
when required, for proper installation. Provideone point of support in addition to the outlet box fixture
stud for individually mounted fixtures longer than 600 mm.
C. STEM HANGERS: provide two stem hangers for individually mounted pendant fixtures. Stems are to have
suspension aligners and are to be suitable length for suspending fixtures at required height.
D. SUSPENDED CEILINGS: All suspended lighting fixtures shall be fixed directly to building structure as required
by the Engineer.
E. SOLD CEILINGS: coordinate dimensions of recesses in ceilings with exact fixture dimensions and structural
elements.
F. CONTINUOUS ROWS: arrange fixture so that individual fixtures can be removed without dismantling
remaining fixtures. Provide minimum spacing between fixtures.
G. COVER PLATES: install cover plates over fixture outlet box or opening in ceiling or structure when left
unused.
H. FLUSH RECESSED FIXTURES: install to completely eliminate light leakage within fixture and between fixture
and adjacent finished surface.
I. VENTILATION: keep ventilation channels free after fixture is installed, if required by thedesign of the
fixture.
K. TIGHTNESS: ensure that enclosed fixtures are reasonably insect/ dust tight when installed, and completely
weather-proof for installations subject to weather conditions.
L. LAMPS FOR PERMANENT INSTALLATION: place new lamps in fixtures immediately prior to hand-over and
when instructed by the Engineer. Lamps used for temporary service are not to be used for final lamping of
fixtures.
A. VISUAL INSPECTION: check neatness of installation, uniformity of equipment and nameplates etc.
C. OPERATION: check lighting installations for operation including control and regulation equipment.
D. ELECTRICAL DATA: measure power factor, current and voltage at start for installations withdischarge
lamps.
PART 1 - GENERAL
A. Drawings and general provisions of the Contract, including General and Supplementary
Conditions and the requirements of section 260000 of the specifications, apply to this Section..
1.2 SUMMARY
A. This Section defines the design, manufacture and testing characteristics required in view of
supplying and putting into operation an Uninterruptible Power Supply (referred to as a UPS in
the rest of this document).
1.3 STANDARDS
1.4 CLASSIFICATION
1.5 SUBMITTALS
A. Product Data: Include dimensions and data on features and components for each product
specified. Include wiring diagrams and elevation view of front panel showing control and
indicating devices. Include data on ratings, and a detailed description of operating modes and
any load limitations that may apply.
B. Shop Drawings:
1. Wiring Diagrams: Detail wiring and differentiate between manufacturer-installed and field
installed wiring. Include diagrams for equipment and for system with all terminals and interconnections
identified.
2. Battery: Sizing calculations.
3. Floor Plans: Indicate final outlet locations and routings of raceway connections.
4. System Operation Description: Detailed description for this Project, including method of operation and
supervision of circuits and sequence of operations. Manufacturer's standard descriptions for generic
systems are not acceptable.
C. Field Test Reports: Indicate and interpret test results for compliance with performancerequirements.
1. Submit an installation manual, which shall include, but shall not be limited to, instructionsfor storage,
handling, examination, preparation, installation, and start-up of all systems.
2. Submit an operation and maintenance manual, which shall include, but shall not be limitedto, operating
instructions.
3. Submit built equipment drawings.
E. Product certificates: Signed by manufacturers of system components certifying that products furnished
comply with requirements.
A. Test reports/certificates by recognized test laboratories (such as TUV, VERITAS) shall be submitted to
prove compliance with the specifications.
B. Qualifications:
1. Manufacturer Qualifications: Manufacturer shall be a firm engaged in the manufacture of solidstate UPS
of types and sizes required, and whose products have been in satisfactory use in similar service for a
minimum of 20 years.
2. The manufacturer shall be ISO 9001 & 14001 certified and shall be designed to internationally accepted
standards.
A. Environmental Requirements: Do not install solid state UPS until space is enclosed and weatherproof, wet
work in space is completed and nominally dry, work above ceilings is complete, and ambient temperature
and humidity conditions are and will be continuously maintained at values near those indicated for final
occupancy.
1. The UPS shall be capable of withstanding any combination of the following environmental conditions
in which it must operate without mechanical or electrical damage, or degradation of operating
characteristics.
a. Storage Ambient Temperature: -15°C to 40°C with batteries; -30°C to 70°C withoutbatteries
b. Operating Ambient Temperature: 0°C to 40°C. 15°C to 25°C is ideal for batteries
c. Relative humidity: 0 to 95%, non-condensing.
d. Storage elevation: 0 to 15000 m.
e. Altitude: Maximum installation with no derating of the UPS above sea level shall be: 1) 1000 m:
100% load
2) 1500 m: 95% load
3) 2000 m: 91% load
4) 2500 m: 86% load
5) 3000 m: 82% load
PART 2 – PRODUCTS
2.1 GENERAL
A. Basis of Design: UPS system (for industrial environment) or approved equal. Items specified areto establish
a standard of quality for design, function, materials, and appearance. Equivalent products by other
manufacturers are acceptable. The Architect/Engineer will be the sole judge of the basis of what is
equivalent. Examples of modifications include, but are not limited to thefollowing:
1. Structural reinforcement to accommodate heavier equipment.
2. Increased sizes of circuit breakers, raceways and wiring.
3. Larger back-up generators (including upgraded accessories and wiring) to avoid instabilitycaused by
most double conversion UPS systems.
4. Larger HVAC equipment (including duct work and wiring) to accommodate increased heatdissipation
of less efficient UPS systems.
5. Filters to prevent input distortion, avoid upstream equipment malfunction and failure ofpower
factor equipment.
2.2 DESCRIPTION
A. The UPS shall consist of the following easy to repair modular rectifier/inverter sections and easyto install
internal and external modular battery units.
B. The UPS shall be provided with separate feeds for rectifier/inverter section and the static bypassswitch.
C. Modes of operation: The UPS shall operate as an on-line system in the following modes:
1. Normal: The inverter and the rectifier shall operate in an on-line manner to continuously regulate the
power to the critical load. The rectifier shall derive power from the AC input source and supply DC
power to float charge the battery.
2. Battery: Upon failure of the AC input source, the critical load shall continue being supplied by the
inverter without any switching. The inverter shall obtain its power from the battery. There shall be no
interruption in power to the critical load upon failure or restoration of the AC input source.
3. Recharge: Upon restoration of the AC input source, the UPS shall simultaneously recharge the battery
and regulate the power to the critical load.
4. Static Bypass: The static bypass switch shall be used for transferring the critical load to input supply
without interruption. Automatic re-transfer to normal operation shall also be accomplished with no
interruption in power to the critical load. The static bypass switch shallbe fully rated and shall be capable
of manual operation. The UPS shall be able to recharge the batteries while supplying full power to the
load via the static bypass switch.
5. Internal maintenance bypass: The UPS shall be provided with an internal manual bypass to simplify the
installation and shall be used for supplying the load directly from the mains supply, while the UPS is
taken out for maintenance.
D. The UPS shall be provided with dry contact card and WEB/SNMP integration, RS-232 signaling and optional
RS-485 Modbus interface for connection to a BAS system. This system must provide a means for logging
and alarming of all monitored points plus email notification.
A. Brief description
The UPS shall be a single-UPS unit, operating in double-conversion mode (also called on-linemode),
made up of the following components, described in detail in this specification:
a. PFC rectifier;
b. battery charger;
c. inverter;
d. battery;
e. static bypass (via a static switch);
f. manual maintenance bypass;
g. user and communications interface;
h. battery management system;
i. any and all other devices required for safe operation and maintenance, including circuitbreakers,
switches, etc.
The UPS shall ensure continuity of electric power to the load within the specified tolerances, without
interruption upon failure or deterioration of the normal AC source (utility power) for a maximum
protection time determined by the capacity of the backup batteries installed.
B. Operating principle
The double-conversion UPS (also called on-line) shall operate as defined below.
1. Normal operation: (normal AC source available)
The rectifier supplies the inverter with DC current while the charger simultaneously float charges the
battery. The load is continuously supplied with dependable electrical power by the inverter.
2. Operation on battery power: (normal AC source not available or outside tolerances)
Upon failure or excessive deterioration of the normal AC source, the inverter shall continue to supply
the load from battery power without interruption or disturbance, within the limits imposed by the
specified battery backup time.
3. Battery recharge: (normal AC source restored)
When the normal AC source is restored, the rectifier shall again power the inverter, without
interruption or disturbance to the load, while the charger automatically recharges the battery.
4. Transfer to bypass AC source
In the event of an overload exceeding system capabilities or UPS shutdown, the static bypass switchshall
instantaneously transfer the load to the bypass AC source without interruption, on the condition that
bypass power is available and within tolerances. Transfer of the load back to the UPS- unit output,
synchronized with the bypass AC source, shall be automatic or manual. During transfer,the load shall
not suffer an outage or disturbance in the supply of power. On request, the UPS system may
automatically transfer the load with a microinterruption if a major fault occurs on the UPS system and
if synchronization with the bypass source has not been established.
5. UPS maintenance
For maintenance purposes, the UPS shall include a mechanical maintenance bypass system
with one-button operation. For personnel safety during servicing or testing, this system shall be
designed to isolate the UPS while continuing to supply power to the load from the bypass AC source. The
UPS shall also include a device making it possible to isolate the rectifiers and the chargers from the
normal AC source.
6. Battery maintenance
For safe maintenance on the battery, the system shall include a circuit breaker to isolate the batteryfrom
the rectifier, the charger and the inverter. When the battery is isolated from the system, the UPS shall
continue to supply the load without interruption or disturbance, except in the event of a normal AC
source outage.
7. Cold start (AC power absent)
The battery shall be capable of ensuring UPS start-up even if normal AC power is not available and
continuing operation within the specified back-up time (on the condition that the system was already
started with AC power present).
D. AC sources
The UPS shall be designed to receive power from the sources listed below.
1. Normal AC source: (rectifier input)
The normal AC source supplying the UPS shall, under normal operating conditions, have the
following characteristics:
a. rated voltage: 323-440 volts at full rated load
b. the lower voltage limit shall be 250 V for load levels up to the full rated load;
c. number of phases: 3 + N + earth;
d. frequency: 50 or 60 Hz ± -5%.
2. Bypass AC source
The bypass AC source shall continue to supply the load, without interruption, if its
characteristics remain within voltage tolerances (-8% to +15%).
Outside these tolerances, it shall be possible to supply the load, but in downgraded mode.
E. Electrical characteristics
1. Rectifier and charger
a. Supply: The rectifier and charger module shall be supplied via the normal AC input (see section
2.3-D "AC sources").
b. Inrush current: A device shall be provided to limit inrush currents.
c. Battery-current limiting: For long battery life, an electronic device shall automatically limit the
charging current to the maximum value specified by the battery supplier (0.1 x C10 for a sealed
lead-acid battery).
d. Operating mode: To substantially extend battery life without lowering its performance, the
rectifier/charger module shall operate in the "intermittent charge" mode.
This operating mode provides the battery with just the energy required to maintain UPS backup
time, while automatically compensating the effects of battery ageing. As a result, thebattery is in
fact charged only a small part of the time, which significantly increases its servicelife.
The charger shall be sized to recharge the battery rapidly (e.g. to 80% of rated backup time in less
than ten hours for a 30-minute battery). If necessary, an additional charger shall be included in a
UPS cabinet.
e. Input power factor: The required level of performance is indicated in section 2.3- C-5 "Limitation
of harmonics upstream of the UPS".
f. Voltage regulation: Rectifier/charger regulation shall ensure DC output voltage fluctuations of
less than 1% irrespective of load and AC input voltage variations (within the limits specified in
section 2.3-D-1 “Normal AC source”).
g. System shall be able to operate perfectly downstream of 4 poles change-over systems and
protections without isolation transformers. Earthing system upstream and downstream of the
UPS is TN-S. If the manufacturer cannot provide 4 pole switching, isolation transformer should be
added with no additional cost.
2. Batteries
The battery shall be of the sealed lead-acid type, factory mounted and wired in a cabinet identicalto
that of the UPS, with a service life of 10 years. The battery shall be sized to ensure continuity in the
supply of power to the inverter for at least 15 minutes, in the event of a normal AC source failure, with
the inverter operating at full rated load, i.e. 10 KVA at a power factor pf = 0.8. Sizingcalculations shall
assume an ambient temperature between 0° C and 35° C The UPS shall includedevices to ensure:
F. Mechanical characteristics
1. Modular design
The UPS shall be designed to allow the installed power to be easily increased on site by connection of
additional UPS units, either to meet new load requirements or to enhance system reliability by
introducing redundancy. This transformation shall be possible directly on site, without returning the
equipment to the factory and without causing excessive system downtime. Similarly, the UPS output
frequency shall be readily adaptable on site from 50 to 60 Hz or vice-versa to meet possible changes
in load requirements.
2. Dimensions and handling
The UPS shall require as little floor space as possible. To facilitate installation, UPS height shall not
exceed 1 600 mm and handling of each module shall not require a lifting device
3. Mechanical structure
Access to UPS subassemblies shall be through front or back doors equipped with locking facilities.
4. Connection
Entry of upstream and downstream power cables, as well as any auxiliary cables, shall be possible
through the bottom for a false floor. The UPS shall be equipped with an earth-circuit connector, in
compliance with the standards listed in section "Standards and tests". The cables shall comply with
the standards listed in section "Standards and tests" and be mounted in compliance with the
stipulations in section "Safety". The neutral conductor shall be oversized for any third-order
G. Environment conditions
1. UPS (not including battery)
a. Operation: The UPS, not including the battery, shall be capable of operating under the
following environmental conditions without loss of performance:
1) ambient temperature range: 0° C to +40° C.
2) recommended temperature range: +20° C to + 25° C;
3) maximum temperature: 40° C for 8 hours;
4) maximum relative humidity: 95% at 25° C;
5) maximum altitude: 1000 meters.
b. Storage: The UPS, not including the battery, shall be designed for storage under the following
conditions:
1) ambient temperature range: -10° C to +45° C.
H. Protection
1. UPS: The UPS shall include protection against AC-source over voltages (as per standard IEC 60146),
excessive external or internal temperature rise and vibrations and impacts during transport.
2. Rectifier and charger: The rectifier and charger shall automatically shut down if the DC voltage reaches
the maximum value specified by the battery manufacturer or if the temperature exceeds the limits
specified above.
3. Inverter: Inverters shall self-protect against overloads and short-circuits, irrespective of the operating
mode (AC power or battery power).
4. Batteries
a. Protection against deep discharge and self-discharge
The UPS shall comprise a device designed to protect the battery against deep discharges, taking
into account the characteristics of the discharge cycles, with isolation of the battery bya circuit
breaker.
A second device shall avoid self-discharge of the battery into the UPS control circuits during an
extended shutdown of the UPS. It shall be possible to disable this device as necessary.
b. Self-test
Battery monitoring shall be carried out by an automatic device. Self-test intervals shall be setto
one month by default, but shall be adjustable. This self-test system shall, where necessary,initiate
indications via LEDs on the front panel or a message to a remote monitoring system.
c. Sizing calculations shall assume an ambient temperature between 25° C and an end-of- discharge
battery cell voltage of 1.75 V. For longer runtimes, external battery frames in the same design
should be offered.
d. Status indications: Three LEDs on the control panel indicate the following status conditions:
1) load protected;
2) minor fault;
3) major fault.
A buzzer shall warn the user of faults, malfunctions or operation on battery power.
K. Maintainability: For optimum safety during servicing, a maintenance bypass shall be available to
completely isolate the UPS.
1. Local and remote diagnostics and monitoring - E. Services
1) The UPS shall be equipped with a self-test system to check operation of the system as a wholeeach
time it is started. To that end, the supply control/monitoring electronics shall offer:
2) auto-compensation of component drift;
3) acquisition of information vital for computer-aided diagnostics or monitoring (local or remote);
4) overall readiness for remote supervision services provided by the manufacturer.
M. Services
1. Maintenance: The supplier shall propose contracts covering four levels of maintenance.
1) Level one: simple checks and settings, procedures accessible without any dismounting and
involving no risk.
2) Level two: preventive maintenance, checks not inhibiting continuous operation of the systemand
preparing operators for Manufacturer services.
3) Level three: trouble-shooting. Repairs by standard exchange of subassemblies and functional
power and control components. Preventive maintenance operations, both systematic and when
indicated by qualified diagnosis.
4) Level four: major preventive and corrective maintenance operations or technical upgrades during
start-up, operation or renovation of the UPS installation and recycling of equipment or
components representing a risk.
5) These operations require the use of devices and means that have been calibrated by certified
organisations.
2. Technical competency
1) customer operators: the supplier shall offer a level 2 training program. service personnel: the
supplier shall ensure that service personnel are
2) qualified for level 4.
N. Warranty
The rectifier/charger and inverter subassemblies shall be guaranteed (parts and labour on site)for one year
following the start-up date. The sealed lead-acid battery shall be covered by the same warranty as the
UPS.
P. Electrical diagram
PART 3 – EXECUTION
3.1 EXAMINATION
A. Verification of Conditions: Examine areas and conditions under which the work is to be installed, andnotify
the Contractor in writing, with a copy to the Owner and the Architect/Engineer, of any conditions
detrimental to the proper and timely completion of the work. Do not proceed with the work until
unsatisfactory conditions have been corrected.
1. Beginning of the work shall indicate acceptance of the areas and conditions as satisfactory by the
Installer.
3.2 INSTALLATION
A. General: Preparation and installation shall be in accordance with reviewed product data, final shop
drawings, manufacturer’s written recommendations, and as indicated on the Drawings.
5. On-Site Operational Training: During the factory-assisted start-up, operational training for site
personnel shall include, but shall not be limited to, key pad operation, LED indicators, start-up and
shutdown procedures, maintenance bypass and AC disconnect operation, and alarm information.
a. Key pad operation
b. LED indicators
c. Start-up and shutdown procedures
d. Maintenance bypass
e. AC disconnect operation
f. Alarm information.
B. Maintenance contracts:
1. complete offering of preventative and full service maintenance contracts for the UPS system and the
battery system shall be available. All contract work shall be performed by manufacturer’s factory
trained service personnel.
3.4 DEMONSTRATION
3.5 SERVICES
A. The contractor shall provide training to the client maintenance staff. The training shall be provided by
certified trainers. Based on the training sessions, the attendees from the client maintenance staffshall be
given a certificate for the proper operation and maintenance of the system from the manufacturer of the
UPS system.
3.7 PROTECTION
A. Provide final protection and maintain conditions in a manner acceptable to the Installer that shall ensure
that the solid state UPS shall be without damage at time of taking over certificate.
A. Obtain an undertaking by the equipment manufacturer and his authorized local representative to provide
an annual maintenance contract, available after taking over certificate of the work, coveringroutine service
and emergency service by trained employees, and to ensure supply of necessary standard spare parts.
B. Maintenance Contract Terms:
1. Maintenance Contract shall be for 2 years from date of handing over.
2. Equipment shall be supplied with 2 years warranty. The warranty shall include replacement of any
damaged spare parts (including labor)
3. Contractor shall perform all Maintenance work and Preventive maintenance tasks in frequencies, in
accordance with the manufacturer recommendations and the best-established practices, procedures
and standards recognized by the related industry. There shall be no less than 12 visits during the 2
years.
4. The supplier should respond to an emergency call within 4 hours and should replace any defective
part within 24 hours. An emergency is defined as that which involves total or partial loss of a system
that may lead to a total loss of the service provided.
5. Other than emergency calls, service calls shall have a response time of next working day as a
maximum. The maintenance contractor shall work continuously until the problem is resolved and the
system is back to normal operation.
6. The maintenance contract shall include the cost (material and labor) of replacement of consumables
not included in the general warranty conditions through scheduled preventive maintenance visits
performed by the supplier according to manufacturer’s recommendation.
7. The maintenance contractor shall provide the needed stamps on client’s copy of the contract.
PART 1 - GENERAL
A. ELECTRICAL WORK GENERALLY is to be in accordance with the requirement of Section 260000 of theSpecification.
B. DESCRIPTION OF WORK: Capacitor banks installation for automatic power factor compensation for full
compliance with Regulations for electrical installations in addition to the specifications herein.
C. STANDARDS: The capacitor banks panel shall be manufactured in accordance with IEC 60831- 1, IEC 60831-
2, IEC 60439-1, ISO 9001 and ISO 14000.
D. EQUIPMENT DATA: submit for approval detailed description of capacitor banks panel and major
components supported by manufacturer’s catalogues, indicating compliance with the Standards,
equipment characteristics, details of construction, operating data, dimensions and weights etc. Give
details of miscellaneous items including incoming and outgoing feeder terminal arrangement, connections
at busbars, isolating, earthing, interlocks, control devices, digital indicating and metering instruments etc.
E. TEST AND CERTIFICATES: submit complete certified manufacturer’s type and routine test records, in
accordance with the Standards.
F. SHOP AND CONSTRUCTION DRAWINGS: submit drawings for approval including, but not limited to, the
following:
1. Plans and elevation with indication of built- on equipment, exact dimensions and weights.
2. Arrangement of boards inside rooms allocated, indicating spaces and clearances.
3. Arrangement of equipment inside board.
4. One- line diagram of power system showing current ratings of switchgear and types and locations of
protective gear (relays, instruments, CT s, VT s etc.)
5. All protecting devices shall show: the Short circuit current value, the voltage drop, the indirect
protection function in case of a fault with respect the earthing system.
6. Schematic and elementary diagrams of control circuits.
7. Foundation details, grouting holes, installation details.
8. Arrangement of incoming and outgoing feeders, terminal fittings, instruments, busbarconnections etc.
G. TECHNICAL LITERATURE: submit the following for approval prior to placing orders for equipment
manufacture:
1. Selection of capacitor bank rating, indicating type, range, features and characteristics….etc.
2. All documents required by the engineer in the format required by these parties.
3. Method of setting of protective devices as coordinated with upstream and downstreamsystems based
on specific coordination curves of protective devices used and specific calculated prospective short-
circuit currents at various points.
H. TOOLS AND INSTRUMENTS: provide tools and instruments required for normal routine inspection and
maintenance and testing of circuit breakers and protective devices as appropriate for type of switchgear
supplied
1.2 WARRANTY
A. General Warranty: The special warranty specified in this Article shall not deprive the Owner of other rights
the Owner may have under other provisions of the Contract Documents and shall be in addition to, and
run concurrent with, other warranties made by the Contractor under requirements of the Contract
Documents.
B. Special Warranty: A written warranty, signed by Contractor and manufacturer, agreeing to replace any
component of the system including controllers, capacitors and/or contactors that do not meet
requirements or that fail within the specified warranty period.
1. Warranty Period: 2 years from date of taking over certificate for any component ofthe system.
A. Capacitor banks for automatic compensation, rating and steps numbers as shown on drawings. The
capacitor bank shall be of the detuned (Detuned reactors (Tuning frequency : 135 Hz)) overrated type for
polluted network where the ratio of apparent power of harmonics producingloads to total apparent power
is between 25 and 50%.
B. Capacitor banks shall include, but not limited to capacitors, contactors, controllers and enclosures.
C. The Capacitor banks shall include network management card for Ethernet connection with Bacnet IP or
BAcnet or LON field bus interface.
2.3 2CONTACTORS
A. Are to comply with IEC 947 and be 3-phase, 3- pole, magnetic type, 600V rating, capable of interrupting at
least ten times rated capacitive current under normal service conditions and areto have replaceable main
arcing contacts and arc quenching devices. Contactors are to withstand, without welding or burning of
contacts, an inrush current of 20 times normal rating for 4 seconds upon closing and are to be capable of
closing on the heaviest short-circuit of the system and withstand the short circuit for the period of time
required by upstream short circuit protective device to operate. Contactors shall have a utilization
category AC-6B where the testdata are to be derived from the AC-3 or AC-4 test values in accordance with
table VIIb of IEC 60947-4-1.
2.5 ENCLOSURES
Enclosures shall be rigidly framed and bolted, with electro-galvanized sheet steel enclosures, minimum
thickness 1.5 mm, phosphatized, primed with rust inhibiting primer and finished with thermal polymerized
polyester epoxy powder coating, gray color to approval. Panel is tobe vermin, dust and rodent proof, IP42
protection to IEC 529 for indoor installations, with adequate lifting means and base- frames and capable
of being moved into position and directly bolted to floor without additional sills.
3.1 INSTALLATION
A. EQUIPMENT BASES: ensure that concrete bases and foundations provided for installation of equipment
are constructed in accordance with approved shop and equipment manufacturers’ drawings and those
holes for fixing bolts and provisions for passage of cablesetc. are provided as required.
B. CABLE TRENCHES: ensure that trench construction and covers provided for installation of power and
control cables are in accordance with approved shop and construction drawings.
C. BUILT- IN ITEMS: ensure that equipment supports, fixings and the like, and sleeves for passage of feeders
and cables which are to be built into concrete foundations, bases, cable trenches or building structure are
provided as and when required and that they are properlyinstalled.
D. EQUIPMENT: install on concrete bases etc., and assemble completely plumb and level, beforegrouting in
holding- down bolts.
E. SUPPORTS AND TERMINATION’S: install all incoming and outgoing cable supports, cables ends and
termination fittings required for power and control cables.
F. RELAYS: set in accordance with manufacture’s instructions and in accordance with an approved scheme.
G. MAKE GOOD: damaged painted surfaces, clean and apply rust inhibiting prime coat and two finishing coats
of approved enamel upon delivery of equipment to site, or as required by theEngineer.
A. EQUIPMENT: inspect- equipment upon delivery to site and report any damage to theEngineer.
B. SWITCHGEAR: inspect and check capacitor bank for completeness, component ratings, types, sizes, and
wiring connections. Check phasing of busbars, contacts and clearances.
C. TEST: after installation and before hand over, carry out all tests required by the governing codes and any
other tests the Engineer may require to check compliance of installation with
1. GENERAL
1.1. Description
- Supply, deliver, installation, testing and commission low voltage service bus ducts systems in accordance with
IEC 60439-2 (Edition 3.0) + amendment A1 2005-08 or IEC61439 Requirements for Electrical Installations (The
IEE Wiring Regulations) and the manufacturers installation instructions.
- All installation of bus bar trucking at site (commissioning & testing) has to be monitored & supervised by the
bus bar canopy provider approved officially before raising final inspection for the engineer.
1.3. Submittals
Contractor has to submit the following:
2. Bus bar
2.1. General
Bus duct for LV distribution feeder and plug-in distribution system shall comply to the following requirements:
a) Proven product with variety of completed & operated projects.
b) Installed and terminated by competent electrical contractor as an integral part of the distribution systems.
c) Fully comply with IEC 60439-2 + amendment A1 2005-08 or with the latest IEC 61439-6 standard. Fire rated
bus ducts shall comply IEC 60331-1.
d) Be fully enclosed with total extruded aluminum enclosure and non-magnetic composition material.
e) Fully type tested of the bus duct system shall be shown and certified by single third party laboratory either
KEMA, DEKRA, ASTA or LOVAGE.
f) The system shall be tested under the ambient of 50 degree C for the temperature rise
test based on the IEC 60439-2 + amendment A1 2005-08 or with the latest IEC 61439-6 standard. The test shall
be certified by KEMA or DEKRA OR ASTA OR LOVAGE.
g) The system shall be able to carry full capacity as rated current without de-rating.
h) The bus duct system shall be listed in the certified third party website and entitled to be labeling KEMA,
DEKRA, ASTA or LOVAGE.
i) Furnish and install a complete low impedance prefabricated busway distribution
system as shown on the plans.
j) Shall be of full copper conductors for 3ph, neutral& earth .
k) First level fault indications system such as the thermal indicator must be provided on the critical bus ducts to
indicate overheat or spring failure conditions.
l) Be complete with factory fabricated bends and sets for direction changes and proprietary types fixings,
suspension, brackets, expansion joints, tap-off units, termination, etc. Final field measurements shall be made
by the contractor prior to release of the busway for fabrication.
m) Where bus-bar trunking passes vertically through floor slabs, a 100mm up stand shall
be constructed around the opening on each floor.
n) Mechanical services shall not be positioned above horizontal bus bar trunking
systems without prior approval of the engineer. In any such cases a permanent
waterproof protective cover shall fitted above the bus bars to ensure any water
leakage cannot touch to bus bars.
o) Any length of the assembled bus ducts shall be possible to remove without affecting
the other lengths, connected at the edges, to facilitate future additions and maintenance work. All the bolted
and plug-in joints and terminations shall be checked for proper contact pressure, no loose connection shall be
allowed in the system.
P)The bus bar system shall be supported throughout the entire length as per manufacturer’s recommendations
& requirements to withstand its own weight and abnormal forces created on short circuit conditions. Bus bar
expansion fittings shall be provided at all building expansions joints and for long lengths as recommended by
2.2. Enclosures
The bus bars throughout each bus duct shall be accommodated within a substantial extrusion aluminum*
enclosure, which shall:
a) Be adequately braced to permit transportation and erection
b) Be equipped and fastened to the structure using proper fixing method
c) Be totally enclosed, non-ventilated for protection against mechanical damage and dust accumulation
d) Cooling fin on the both top and bottom surface or equivalents for better heat dissipation
e) The enclosure provided shall have a minimum IP55 rating for vertical runs, IP65 for horizontal runs for indoor
application and IP68 for the outdoor application.
2.7. Joint
The bus duct joint shall be;
a) Connection joint bolts should have proper indicator for the initial & final torque.
b) Shall be of bridge type joint design which is possible to remove any joint connection assembly to allow
electrical isolation or physical removal of a bus duct length without disturbing adjacent bus duct length
All Generator/ATS/Landlord/emergency main connections and branch connections must be fire rated busbar
Melting point of Enclosure body must be minimum 1200 degree Celsius and that of copper bar insulation must
be minimum 800 degree Celsius.
FR busduct must be fully type tested system; fire rated and tested as per IEC 60331-1
IP-68 busduct shall fully type test with IEC 60529 entire length and Joint pack area fully filled with RESIN CAST,
Outer enclosure GI with painted
3. EXECUTION
3.1. General
Bus Duct sections and fittings which are not to be installed and energized immediate should be stored in a clean
dry space having a uniform temperature to prevent condensation. Preferably, they should be stored in a heated
building having adequate air circulation and protected from dirt, fumes, water, and physical damage.
- Type test reports certified by acceptable testing authorities (KEMA, ASTA, LOVAGE, DEKRA,) shall be required
to submit for approval
- Acceptance Tests at Manufacturer’s Works
- A complete report of the above test shall be provided.
5.2 Contractor will consider minimum (2) year warranty period for full system from handing over date.
5.3 Contractor has to provide the End-User/Client proper training for operating all systems, training
schedule/agenda has to be submitted for approval in (15) days prior handing over date.
5.4 Contractor is fully responsible to obtain related authorities approval prior to start site activities in accordance
with project programmer of work.
PART 1 - GENERAL
A. Drawings and general provisions of the Contract, including General and Supplementary Conditions and
the requirements of section 260000 of the specifications, apply to this Section.
1.2 SUMMARY
A. This Section includes fast-transfer battery systems that automatically sense loss of normal AC supply and
transfer loads to battery supply on supply power failure, and that automatically retransfer to normal
supply when normal power is restored.
B. The emergency lighting system & all its components shall be designed & installed to meet the local civil
defense requirements.
C. The Central Battery System shall supply power to 230V/216V AC/DC emergency luminaries in accordance
with DIN VDE 0108 dated 10/89, DIN EN 50272-2, BGV A2 (VBG4) with individual luminaire monitoring.
The implementation of the system shall also comply with BS5266-1 as applicable to this project.
D. The system shall provide failure detection on each individual emergency luminaire, in conjunction with
special electronic ballasts that incorporate monitoring modules; without additional data cable.
E. The emergency back up time duration shall be 3 Hours.
F. The central battery system shall be composed of electronic assemblies of modular plug-in, easy to service
design. Wiring shall be arranged on factory assembled pressure terminals.
G. The central battery system shall have a large connection space that meets safety regulations, plug-in
terminals accessible from above or below protected against inadvertent physical contact in accordance
with DIN VDE 0100. Circuit protection and built-in terminal blocks for battery and mains supplies to the
substations shall be provided.
H. Emergency lighting shall fulfill the following functions,
1. Illuminate the escape routes.
2. Indicate the escape route direction clearly.
3. Provide the Exit signs on all the Exits.
4. Ensure fire alarm call points, fire fighting equipment’s & other life saving equipment’s on the
premises are illuminated.
5. Permit operations related to safety measures and inhibit any hazardous processes.
I. All products used in the emergency lighting system shall be manufactured by an ISO9001 certified
company, complying with the relevant VDE/DIN/BS/EN standards & shall bear the CE certification for
Electromagnetic compatibility. The product shall be field proven in the Middle East.
J. The number of central battery substations (if required) shall be appropriately planned for maximum
reliability and to ensure continued emergency supply. There shall be no single point of failure in the system.
The substations (if any) shall also be able to operate in stand- alone mode in the event of the central panel
malfunctioning.
K. The system shall be interfaced to the BMS for reporting the alarm and status functions of all system
components. The interface shall also be used to control the system test function, operating time test
function, block and enable manual reset and activate maintained light switch monitoring from any BMS
workstation.
1.3 SUBMITTALS
A. Product Data: Include dimensions and data on features and components for each product specified.
Include wiring diagrams and elevation view of front panel showing control and indicating devices. Include
data on ratings, and a detailed description of operating modes and any load limitations that may apply.
B. Shop Drawings:
1. Wiring Diagrams: Detail wiring and differentiate between manufacturer-installed and field-installed
wiring. Include diagrams for equipment and for system with all terminals and interconnections
identified.
2. Battery: Sizing calculations.
3. Floor Plans: Indicate final outlet locations and routings of raceway connections.
4. System Operation Description: Detailed description for this Project, including method of operation and
supervision of lighting circuits and sequence of operations. Manufacturer's standard descriptions
for generic systems are not acceptable.
5. Details of graphics display panel.
C. Field Test Reports: Indicate and interpret test results for compliance with performance requirements.
Comply with NFPA 101, DIN VDE 0108 dated 10/89, DIN EN 50272-2, and BGV A2 (VBG4).
D. Maintenance Data: For central battery to include in maintenance manuals specified inDivision 1.
E. Operating instructions: for mounting of the central battery.
F. Product certificates: Signed by manufacturers of system components certifying that products furnished
comply with requirements.
G. Special Project Warranties: As specified in this Section.
A. Test reports/certificates by recognized test laboratories (such as ASTA Certificate services, ASEFA, KEMA)
shall be submitted to prove compliance with the specifications
B. Comply with EN 60 598-2-22.
C. Systems should be implemented in accordance with IEC regulations
1.5 WARRANTY
A. General Warranty: The special warranty specified in this Article shall not deprive the Owner of other rights
the Owner may have under other provisions of the Contract Documents and
shall be in addition to, and run concurrent with, other warranties made by the Contractor under requirements
of the Contract Documents.
B. Special Warranty: A written warranty, signed by Contractor and manufacturer, agreeing to replace any
component of the system including batteries that do not meet requirements or that fail within the
specified warranty period.
1. Warranty Period: 2 years from date of taking over certificate for any componentexcept batteries. As
for batteries, full warranty applies for the first year; a pro-rata warranty thereafter for 4 years.
A. Furnish extra materials described below that match products installed and that are packaged with
protective covering for storage and identified with labels describing contents.
1. Emergency Circuit Modules: Quantity equal to 10 percent of amount installed, but not less than
one unit per type installed.
2. Selective Emergency Lighting switch: Quantity equal to 10 percent of amount installed, but not less
than one unit per type installed.
3. Emergency Lighting fittings associated mounting accessories, lamps, control gears and pictograms:
Quantity equal to 10 percent of amount installed, but not less than one unit per type installed.
4. Fuses: Quantity equal to 15 percent of amount installed, but not less than 5 units per type installed.
PART 2 - PRODUCTS
A. Mechanical Construction
1. The battery housing shall be sheet steel, powder coated housing IP21 with removable screwed
front, rear & top doors to provide complete access to the batteries. The electronics section shall
have IP21 sheet steel enclosure with transparent polycarbonate window for all central systems & IP54
sheet steel enclosure with full metal door for all substations.
2. The electronics compartment shall have large cabling compartments with cable entries from top via
four or more un-drilled removable metal flange plates. All incoming cables & looping circuits shall
be connected on protected & fused terminals as per EN/VDE0100. All outgoing luminaire circuits
shall be connected direct to relevant components via plug-in type pressure terminals 2.5 mm2.
3. Where the space required for the batteries does not permit the installation in the samestandard
enclosure, the batteries shall be installed in an identical batteriescabinet.
B. Electrical Construction.
1. The system shall be built up in a modular format with all modules being plug-in-type design. The
outgoing circuits shall be fed through changeover modules. One module shall be used for each
separate switchable outgoing circuit with maximum load of 6Amps as per DIN/VDE 0108. If circuits
are 2 Amps & below, one module with two separately switchable outgoing circuits shall be used.
Each circuit shall be protected within the system on mains & battery side via screw-in type cartridge
fuses on each module. The fuses shall be accessible via front plate of the module. The mains
supply & battery mains cables shall be protected by molded case circuit breakers (MCCBs).
2. Each panel shall have a spare fuse carrier with at least five spare fuses for each size used in respective
panel.
6. General and emergency luminaries shall be able to be controlled with the same button by using a
staircase light switching module installed in the lighting distribution system.
D. Selective Emergency Lighting Switch ON (SLS)
1. The module shall be used for selective switching ON of the emergency lighting in theareas affected
by the mains failure.
2. The module shall include 8 x 24V current loops for monitoring the sub-distribution boards of the
general lighting systems in conjunction with 3-three-phase monitoring.
3. The module shall include 8 x LED indicators for mains failure.
E. Relay Module (RM) for signaling the following operating states using potential-free contacts [required
unless BMS interface specified]:
1. Emergency/mains operation.
2. Emergency lighting/charging failure.
3. Deep discharge protection.
4. Test function ON/OFF.
5. Operating time test ON/OFF.
6. The module shall include 8 x LED indicators for the indications given above
F. Event Printer (PRN)
1. It shall be provided for the logging and storage of the operating states of the central battery
installation or any of its substations.
2. The event type and time-period for the printout shall be selectable using a menu.
3. The event printer shall be based on a built in 4-needle-print mechanism.
G. BMS Module for the integration of the emergency lighting in building automation (BMS)
1. The module shall include a suitable (depending on the system selected for the project)transceiver
for the connection to the BMS.
2. The module shall be used for the output of the following data to a BMS system:
a. Installation blocked.
b. Deep discharge protection.
c. Battery open-circuit.
d. Battery voltage.
e. Current and temperature.
f. Insulation fault.
g. Booster failure.
h. Charging module failure.
i. Bus error, mains failure.
j. Residual capacity.
k. Circuit failures.
3. The module shall be used for the input of the following data from a BMS system:
a. Start and cancel test function.
b. Start operating time test.
c. Block and enable manual reset.
d. Activate maintained light switch monitoring (MLS), via switch.
2.5 INSTALLATION
A. Clearance: According to manufacturer's written instructions, but not less than 1.0 meter in front of unit.
2.6 IDENTIFICATION
A. Identify equipment and components according to "Basic Electrical requirements” and “wires and cables”
sections.
A. Manufacturer's Field Services: Supervision of unit installation, connections, and adjustments by a factory-
authorized service representative. Report results in writing.
B. Tests: Perform tests listed below according to manufacturer's written instructions. Test unit functions,
operations, and protective features. Adjust to ensure operation complies with Specifications. Perform
tests required by BS 5266-1: 1999 & EN 60 598-2-22. Perform tests on completion of unit installation and
after building circuits have been energized. Provide instruments to permit accurate observation of tests.
Include the following tests:
1. Simulate Malfunctions: Verify protective device operation.
2. Demonstrate low-battery-voltage shutdowns, and transfers due to normal source failure and
restoration.
3. Verify emergency-supply duration.
4. Test for Successful Supply: Operate each type of load served by the unit for this Project without
symptoms of abnormal supply such as noise, vibration, or pulsation of the loador its output.
C. Retest: Correct deficiencies identified by tests and observations and retest until specified requirements
are met.
2.8 CLEANING
A. On completion of installation, inspect unit components. Remove paint splatters and other spots, dirt, and
debris. Touch up scratches and abrasions in finish to match original finish. Clean unit internally using methods
and materials recommended by manufacturer.
2.9 DEMONSTRATION
2.10 COMMISSIONING
A. Battery Equalization: Manually equalize charging of battery cells according to manufacturer's written
instructions. Record individual cell voltages.
1.1 REFERENCE
1.1.1 Conform to General Requirements for Electrical Services Divisions. 1.1.2
1.2.1 Design, Supply, installation, testing and commissioning of Telecom service shall be as per latest building design
guide TRA.
1.2.2 The Contractor shall be responsible for providing conduiting, trunking system suitable & all necessary cabling
works to the approval of TRA.
1.2.3 The Contractor shall liaise with TRA to ensure that cable entry ducts & internal conduit/trunking tray installations
are approved as per TRA requirements prior to carrying out the installation work.
1.2.4 It is the contractor's responsibility to coordinate with TRA at least six months in advance of the construction
works for arranging relocation works & to ensure that no construction work will be carried out until final
clearance issued by TRA which will be only after the completion of all necessary protection
/relocation works.
1.2.5 The contractor shall be responsible to carry out the complete wiring of the telecommunication installation
between the outlets to the) IDFs and ONU/Switches units.
1.2.6 RJ45 Socket Outlets plates shall be of a type approved by TRA and shall be supplied and installed by the
Contractor.
1.2.7 The outlet plate finish shall match the finish of other wiring accessories in the same area. All external cableducts,
manholes and draw pits shall be of a size and specification that is approved by TRA.
1.2.8 In accordance with the requirements of TRA the contractor is fully responsible for the protection/relocation of
any communication works which may be affected due to the development of the plot & undertakes that all
necessary expenses for such works will be met directly by him.
1.2.9 Noncompliance of above which may lead to damage or interruption of communication services or fallingthe
network inside the private property due to the extension/fencing etc without TRA consent will be the
responsibility of the contractor who hereby accepts the rights of TRA without prejudice to recover all such
amounts/fines/penalties through various means including legal action.
1.2.10 Electrical installations near communication facilities are strictly not allowed.
1.2.11 The Contractor shall be responsible for the supply, install, test, commission, and guarantee and maintainthe
complete telecom. system including but not limited to the following different systems/services as detailed
below.
1.2.12 This section should be read in line with the ELV specialist requirement and operator requirement, in addition to
the conditional site survey report.
1.3 TELECOMMUNICATIONSYSTEM
1.3.1 The telecommunication system shall be based on the latest standards for Fiber Optic systems and shallhave
the following subsystems:
2.1.2.1 Two cores single mode fiber optic drop cables.
2.1.2.2 Four cores single modefiber optic drop cables.
2.1.2.3 Horizontal cabling system of at least UTP Cat 6 Type.
2.1.2.4 Main Entry Box (600 x 600 x 800)
1.4.1 Design, manufacture, testing and method of installation of all apparatus and Materials furnished under
requirements of these specifications shall conform to latest publications or standard rules of the following:
2.1.2.1 EIA / TIA 568B
2.1.2.2 ISO 11801 2ND Edition
2.1.2.3 EN 50173 2nd Edition
1.4.2 Telecom & broadband services requirements of latest building design TRA guide.
1.4.3 The quality Control/Quality Assurance duties shall be performed by the Contractor. The system of quality control
verification shall be in accordance with ISO 9000 standards of quality assurance.
1.5.12 IEEE 802.5 Token Ring LAN: The purpose (relative to cabling) of this standard is to define media and distance
requirements for 4 & 16 Mbit/s Token Ring Local Area Networks (issued in October 1989).
1.5.13 ANSI X3T9.5 FDDI: It defines standard for 100 Mbit/s LAN based on optical fiber cable as well as on
Unshielded Twisted Pair (UTP).
1.5.14 BS6701: Code of practice for installation of apparatus intended for connection to certain communications systems.
1.5.15 BS7671: IEE Wiring regulations16th Edition.
1.6 SUBMITTALS
1.6.1 The Contractor shall submit workshop drawings and documents related the communication systems for Consultant
approval including all required schematic diagrams. Original catalogues for various proposed components.
1.7.1 Client shall be referred to as the purchaser. The successful bidder shall be referred to as the Vendor. The installer
shall have at least 60 trained employees of the vendor and can subcontract only by prior writtenpermission of
the Engineer.
1.7.2 Manufacturer refers to the Engineer that manufactures the components and is responsible for the designand
installation guidelines used by the vendor to complete this cabling system installation. The manufacturer along
with the vendor is responsible for the final warranty and certification of the application assurance.
1.7.3 The vendor shall show proof of a contractual relationship with the manufacturer, and shall pass through the
manufacturer's certification to purchaser.
1.7.4 All cabling, termination hardware, and connecting cords shall be sourced from one single manufacturer to
assure quality control and validity of the manufacturer's warranty.
1.7.5 The vendor will accept complete responsibility for the design, installation, certification, and support of the
cabling system. Vendor must show proof that vendor has been certified by the manufacturer’s on all of these
issues.
1.7.6 In the event that subcontractors are used for any portion of the work or technical support, the vendor shall be
responsible for all corrective action. All work shall be performed and supervised by telecommunications
technicians and project managers who are qualified to install voice, data, and image cabling systems and to
perform related tests as required by the manufacturer in accordance with the manufacturer's methods.
1.7.7 The telecommunications technicians employed shall be fully trained and qualified by the manufacturer on the
installation and testing of the equipment to be installed.
1.7.8 Evidence that the vendor is a current, certified installer of the manufacturer must be provided in writing prior
to commencing work on the structured cabling for the building.
1.8.1 Acceptable proposed Systems will be covered by a two part certification program provided by a single
manufacturer and that manufacturer's certified vendor. The first part is an assurance that the certified system
will support the applications for which it is designed during the lifetime of the certified system.
1.8.2 The second portion of the certification is a twenty year warranty provided by the manufacturer and the vendor
on all products within the system (i.e., cords, telecommunications outlet/connectors, cables, cross-connects,
and baluns). Manufacturer shall administer a follow up program through the vendor to provide support and
service to the purchaser.
1.8.3 Should the certified system cease to support the application(s) designed to run on the category of cabling in
stalled, whether at the time of cutover, during normal use or when upgrading (e.g., ATM), the manufacturer
and vendor shall commit to take prompt corrective action.
1.8.4 The cabling system must conform to the current issue of industry standard TIA/EIA–568B all performance
requirements of this document must be followed. In addition, workmanship and installation methods used shall
be equal to or better than those found in the BICSI (Building Industry Consulting Service International) TDM
manual.
1.8.5 Purchaser demands strict adherence to the performance specifications listed inTIA/EIA-568B. Manufacturer
shall maintain ISO 9001 Quality Control certification for the facilities the manufacturer of the product used in
this cabling system.
1.8.6 The selected cabling system shall be able to support video over unshielded twisted pair (UTP) cabling by means
of video baluns and be able to carry 77 broadband channels. The cabling system must conform to applicable
building and electrical safetycodes.
1.8.7 Accor Brand Standards
1.8.8 Ritz Design Guidelines & Standards
PART 2 – PRODUCTS
2.1 CIVIL REQUIIREMENTS APPLIICABLE FOR ALL TYPES OF BUILDINGS ENTRY BOX
2.1.1 Entry Box is an underground joint box built, exclusively to allow installation of TRA underground cablenetwork
to the customer’s premises.
2.1.2 The Entry Box is a reinforced concrete structure, with a heavy duty Ductile Iron Frame and Cover of rating Grade
‘A’ and size is 60x60x80 cm. The cover shall have marking as “Telephones” or as approved by TRA.
2.1.3 The location of the entry box depends on the location of existing/Proposed TRA External Line Plant and as
approved by TRA.
2.1.4 The Entry box shall be constructed at a maximum distance of 1 meter from plot line. Within the plot(customer
premise) if it is not practical, then outside the plot, touching with the boundary wall.
2.1.5 An earth rod must be provided at the Entry Box. The required earth resistance should not exceed morethan 5
Ohms.
2.1.6 For Entry Box size details please refer to TRA design guideline.
2.1.7 All Civil works underground shall be protected from water infiltration by GRP lining
2.2.1 The entry pipes are 2x100’ uPVC ducts. These ducts are to be extended from the entry box towards premises
and towards TRA line plant location.
2.2.2 Entry pipes should be laid at a depth of Min 60 cm from the proposed finished paving level. The Entry pipeshall be
protected with concrete, to prevent damages.
2.2.3 Entry pipe should be extended to the entry box and beyond to the nearest existing TRA plant location, orone
meter from plot limit or as advised by TRA.
2.2.4 The Entry pipe should be of uPVC material and of black color.
2.2.5 The open ends of the entry pipe shall be properly sealed, to prevent entry of sub soil materials and ingressof water.
2.2.6 Location of Entry pipes, shall be clearly marked, above ground for easy location.
2.2.7 contractors shall be responsible to locate the installed entry pipes on site, if requested by TRA.
2.2.8 No right angled sharp bends shall be installed through out the duct length, except one wide angle, long radius
bend (factory made) at the terminating end of the duct, inside the main Telecom room. Alternatively, at the
location of the wide angle bend, a Cable Pull Box of minimum size 600 (L) x 600 (W) x 800 (D) mm shall be
provided.
2.2.9 Entry pipes shall be assigned, exclusively for TRA Telecommunication Services.
2.2.10 Entry pipes shall be provided with a draw rope made of nylon of minimum 6mm Diameter.
2.2.11 For the number and size of entry pipes, for the various types of buildings, please refer to TRA designguideline.
2.2.12 Constructed of reinforced concrete;
2.2.13 Fitted with a ductile iron frame and cover;
2.2.14 Minimum load rating 400 kN
2.2.15 Cover to be marked ‘Telecoms’;
2.2.16 An earth rod must be provided with a resistance of less than 5 ohms.
2.1.2.1 The Distribution Boxes shall be of size not less than 60(L) X 60(H) X 30(D).
2.1.2.2 It should be installed at a height of 1500mm above the finished floor level.
2.1.2.3 The conduits leading from the floor distribution Box towards flat, shall not be less than 25mm
diameter.
2.1.2.4 Adequate safe working space is to be provided around each location.
2.1.2.5 The Distribution Boxes on a floor, shall not be linked to or serve any other floor of the building.
2.1.2.6 The Distribution Boxes location should never be near any Electrical Junction Box. Adequate safeworking
space should be provided in front of each Box.
2.1.2.7 A Single conduit of at least 25mm (1 inch) internal dia, black and of uPVC material should beprovided
from each floor Distribution Box to the Indoor equipment cabinet.
PART 3 - INSTALLATION
To deliver services from the consolidation points to the building outlets unshielded twisted pair (UTP) copper cables
must be provided. The full design is the responsibility of the building developer, however, the following minimum
requirements must be followed for the efficient and effective provision of services:
1. The cables must conform to a minimum of CAT6 with 23 AWG and as per TIA/EIA-568-B specification;
2. The wiring must be in a ‘star’ topology fanning out from the consolidation point;
3. Dual RJ45 outlets with spring load sliding shutters must be provided where ever service is required;
4. Each socket in the dual RJ45 outlet must be wired back to the consolidation Point;
5. Outlets must not be cascaded or looped and there must be no splitting of cable Pairs;
6. The maximum cable length from consolidation point to outlet must not exceed 90
7. At the consolidation point the cables must be terminated on an RJ45 patch panel And labelled with the socket
andoutletserved;
8. In each outlet each cable must be terminated to maintain the twists in each pair Up to 5 mm of thetermination;
9. Proper strain relief must be provided at the terminated ends of the cable;
10. The components of the CAT6 system must compatible and it is preferred that They are from a single manufacturer
to insure optimumperformance;
11. Design must incorporate built-in flexibility to meet the growing needs of the Occupants;
12. Test result for CAT6 to be saved and recorded for reference purpose in future, The Operators to maintain the
records for futurereference
13. Outlets and devices in public corridors should be IP54.
3.2.3 Manufacturers must approach du and Etisalat to list their brand name under preapproved Manufacturer list of du
and Etisalat.
3.2.1 All outlets should be Category 6 performance, outlets mounted in shutters, typically in dual formation in a single
or double gang white faceplate. All RJ45 outlets should be fitted with spring loaded sliding shutters to prevent the
ingress of dirt and dust.
3.2.2 Provision for number of Sockets for Telecommunication services should be made in every room includingkitchen.
Conduit with not less than 25 mm shall be connected between the socket locations.
3.2.3 Every socket must be connected with a minimum of four pair SCS Cat 6 cable, following star topology.
3.2.4 Telecommunication sockets, cables and associated facilities within the various rooms and premises are to be
provided by thecontractor.
3.3 ACCESSORIES
3.4.1 All accessory plates should be Dual or Quad white PVC plated. The use of any special faceplate, which may be specific
to any other manufacturer’s product range, such as brass finish etc should be reviewed.
3.4.2 All accessory plates should be Dual or Quad white PVC plated. The use of any special faceplate, which may be specific
to any other manufacturer’s product range, such as brass finish etc should be reviewed
3.4 Fiber Optic Cables – from main telecom room to mini ODF (Splice Cabinet) floor telecom room
The 4 core SM fiber cables must be provided from each CP unit to its respective mini ODF (splice cabinet)inside
the floor telecom room.
These 4 core SM fiber cables must be continuous lengths free from joints, branches or Patching from each CP unit
to its respective mini ODF (splice cabinet) inside the floor Telecom room.
All these 4 core SM fiber cables must be directly spliced with multicore fiber cables Using mini ODF (splicecabinet)
inside FTR.
Proper strain relief should be provided for the cable at the outlets and patch panel, avoiding strain on the
conductors. Color coding for the termination should be as per the following table:
Pair Fiber Core Port No Assign to
Residential or 1 - Blue 1-SC/APC Etisalat
commercial
unit/Tenant
Residential or 2 – Orange 2-SC/APC Etisalat
commercial
unit/Tenant
Residential or 3 - Green 3-LC/APC du du
commercial
unit/Tenant
Residential or 4 - Brown 4-LC/APC du du
commercial
unit/Tenant
3.5 PATHWAYS:
3.5.1 The containment system must be designed such that installed cables do not exceed the minimumspecified bend
radius;
3.5.2 All metal containment parts must be free from sharp edges and should be earth bonded;
3.5.3 Telecom riser openings must be sealed with a suitable fire retardant material;
3.5.4 Cable trays must be easily accessible in common areas to facilitate any future provision of additionalcables;
3.5.5 Any cable trays that are in publicly accessible areas less than 4.8 m above the floor must be covered;
3.5.6 Containment systems must not run through areas exposed to excessive heat, moisture, corrosive atmospheric
or environmental conditions, high voltages, radio frequency interference (“RFI”) or electro- magnetic
interference (“EMI”);
3.5.7 For all containment systems, a minimum separation must be maintained from sources of electromagnetic
interference.
3.5.8 The building developer shall provide main and redundant containment system to connect with main and
redundant entry points..
3.10 CONDUITS
3.8.1 The use of conduits as a horizontal raceway system should only be considered when the outlet locations are
permanent, the device densities are low and flexibility is not required.
3.8.2 The minimum size of a conduit pipe used as a horizontal pathway from the Distribution Box to the
Telecommunications Outlet should be 25mm (1 inch).
3.8.3 For the conduits, the inside bending radius should always be at least 10 times the internal diameter.
3.8.4 Minimum of one nylon draw wire must be installed in a conduit.
3.8.5 Pull boxes should be located such that they are readily accessible at all times.
3.8.6 Pull boxes to be spaced at a maximum of 15 M apart to minimize cable stress during installation and toprovide
service ability in thefuture.
3.8.7 Conduits must be free from sharp edges, to prevent cable damage during and subsequent to pulling.
3.8.8 Conduits protruding through a floor should be terminated a minimum of 50mm from the floor to preventwater or other
liquids from flowing into the conduits.
3.8.9 Maximum number of UTP cables inside a conduit, recommended for the installation of a StructuredCabling
System is as follows:
3.9.1 When the internal cable trays, risers and Ladders etc are designed, supplied and installed by others, the
maximum number of UTP cables, recommended to be installed on a tray as shown below; However this need
to be reduced in the case of bends,crossovers.
3.9.2 The formula applied is that for every 25mm x 25mm cross section, 8 cables can be accommodated. No trucking
or cable tray should be more than 75% full on installation
3.9.3 Where a FO Cable block wiring is considered, a very careful consideration must be taken, while designingthe
system. The owner shall be responsible for the design, supply and maintenance of all related items.
3.12 PATCHING
The following fiber termination components are to be provided to splice multicore SM fiber cables with 4core SM
drop cables:
• 4 port fiber terminal box (with LC/APC and SC/APC pigtails & adaptors) inside;
• 12U cabinet of tenant premises (Home/Office/Retail/Villa/Warehouse);
• Fully loaded high density or low density fiber patch panels with SC/APC
• adaptors and pigtails inside MTR– for Operators
• Wall mount mini ODF (direct splice cabinet) inside FTR are to be used to splice the
The following fiber termination components are to be provided to splice multicore SM fiber cables with4 core
SM drop cables:
• 4 port fiber terminal box (with LC/APC and SC/APC pigtails & adaptors) inside;
• 12U cabinet of tenant premises (Home/Office/Retail/Villa/Warehouse);
• Fully loaded high density or low density fiber patch panels with SC/APC
• adaptors and pigtails inside MTR– for Operators
• Wall mount mini ODF (direct splice cabinet) inside FTR are to be used to splice the multicore SM fiber cables with
respective 4 core SM drop cables
PART 4 - LABELING
4.1.1 All floor outlets, patch frames and horizontal cables should be labeled. A typewritten standard labelingsystem
is recommended. The labeling scheme shall be agreed on with the clients’ Telecom Team.
4.1.1.1 Horizontal Cable Labels.
4.1.1.2 Label all horizontal cables at both ends using a selflaminating, wrap around label.
4.2.1 Cable trays are mostly used for floors with raised tiles or raise floorings.
4.2.2 As a general guideline, Cable trays that intersect must be provided with a transitional bend radius of150mm
in all directions.
4.2.3 Exposed sheet metal edges must be provided with bushings or other means of protection such that cableswill not
be damaged during or afterinstallation.
4.2.4 Since Cable trays are usually metallic, all sharp edges, burrs and screw tips that may come into contactwith
cabling should be removed.
4.2.5 The minimum access space between the subfloor and the underside of the floor tile shall be minimum150mm
(6 in).
4.3.1 The following requirements apply to UTP cabling, As pathways and spaces used to carry or house
Telecommunications Cabling
4.3.2 The proximity of cabling to electrical facilities and equipment that generate high levels of electromagnetic
interference (EMI) should be taken into account for metallic cabling.
4.3.3 Sources of EMI include: Power Cables, Photocopy equipment, electric motors, transformers, fluorescentlighting,
arc welders and induction heaters etc.
4.3.4 To avoid EMI, the Telecommunications pathways, spaces and metallic cables shall be installed with thefollowing
clearances :
4.3.4.1 1.2 m (4 ft) from large motors ortransformers.
4.3.4.2 0.3 m (1 ft) from conduit and cables used for electrical power distribution.
4.3.4.3 12 cm (5 in) from fluorescentlighting.
4.3.5 Pathways and metallic cables shall cross perpendicular to Fluorescent lighting and electrical power cables or
conduits.
IMPORTANT NOTES
4.1.1 One set of approved ‘AsBuilt’ drawings must be submitted along with the Building Completion Certificate, which will
be certifiedby TRA.
4.1.2 TRA responsibility shall be limited to provision and Installation of Fibers, Patching / Jumpering works andOptical
Network Units (ONU).
4.1.3 The contractor are responsible for supply and installation of all internal building FO cables from ODF to ONU
locations, Provision of wall mounted or stand alone Cabinets to accommodate ONU, power, Patch Panels etc
and complete structured cablingsystem.
4.1.4 The Indoor drop 2 F fiber cable s, shall be from a popular brand and make, conforming to ITU standard G652
single mode fiber standards and shall be LSOH (low smoke zero halogen type).
4.1.5 On completion of the requirements, any comments and snags advised by TRA
4.1.6 Building Inspector, must be attended to by the Contractor or Owner of the building, soon to avoid delaysin the
issuance of the Building Completion certificate
PART 5 - EXECUTION
5.1 INSTALLATION
5.1.1 All telecommunications outlet/connectors, patch panels, cabinets, other components shall be labeled using a
mechanically imprinted label or an equivalent system. All labeling schemes must have the prior approval of the
Consultant. Regardless of the numbering scheme, every cable shall have the same permanent identifier on its
termination hardware at bothends.
5.1.2 All four pairs of each unshielded twisted pair (UTP) cable shall be terminated on a single port. The splitting of cable
pairs between different jacks is not permitted. Terminating resistors required in certain applications shall be
placed externally to the telecommunications outlet/connector.
5.1.3 Terminating cable pairs shall have a maximum of 13 mm (0.5 in.) of cable untwisted before termination. All
communication equipment shall be properly grounded in the telecommunications closets to meet the
manufacturer's requirements.
5.1.4 Cable trays shall be provided and utilized in the MC, IC, and TC's to manage cable in an orderly fashion. Cable
management should be installed in racks and on walls as per manufacturer's recommendations. Appropriate
fire barriers shall be placed around the cables in the sleeves, and unused sleeves shall be properly fire stopped.
Installation should be performed in a professional manner using the best practices in the industry. Best practices
shall include, but not be limited to, the following points:
5.1.5 All cables installed by vendor or subcontractor shall be properly contained in conduit, cable tray, racewayor duct.
All exposed cabling is to be installed and routed in a neat and professional manner. Proper manufacturer system
training provides instruction in this area. All exposed cable bundles to be tie- wrapped at a maximum of every
24 in. All cable ties used shall be hand tightened only to a point where the sheath does not kink.
5.1.6 If conduit is used, the maximum number of bends between cable pulling points shall be two ninety degree bends
over a maximum of 100 ft. Horizontal fill ratios for conduit, cable trays, raceways and ducts shall conform to
standards and manufacturerrecommendations.
5.1.7 Standards for separation distances from sources of electromagnetic interference are currently under study.
Minimum clearance between cables and power sources until the new guidelines are available are found in
TIA/EIA 569, BSEN 50174-2, BS6701.
5.1.8 All optical fiber and copper cables shall be handled, installed, and supported in accordance with the
manufacturer's guidelines. During the laying of the cable, installer shall take care not to overstress the cable.
After the cable is installed, installer shall make sure that all parts of the cable are supported properly and shall be
stress free at both ends and throughout their length.
5.1.9 Appropriate attention shall be given to the handling of copper and optical fiber cables to ensure that bending
radius conforms to the manufacturer's requirements. At no time shall the cable's static or dynamic bending
radius be exceeded. Optical fiber cables should normally be of all dielectric construction.
5.1.10 If non dielectric cables (such as armored cables) are used, proper grounding and bonding is essential and
reference shall be made to proper codes and standards such as CEC, CSA, etc. Grounding of metal shield shall
be made with a 6 AWG copper wire at all open ends of the sheath.
5.1.11 All telecommunications outlet/connectors shall be securely mounted at all work area locations and shall be
located so that the cable required to reach the work area equipment will be no longer than three meters. The
total optical attenuation through the cross-connect from any terminated fiber to any other terminated fiber
shall not exceed 2.0 dB.
5.1.12 Optical fiber splices, fusion or mechanical, shall not exceed a maximum optical attenuation of 0.3 dB when measured
in accordance with ANSI/TIA/EIA-455-34.
5.3.1 The vendor shall provide an end user’s manual describing the essential system elements, as well as the end
user’s responsibility for maintaining the integrity of the cabling system over time. This Manual shall include, as
a minimum, guidelines for system expansion and modification (i.e., moves, additions, changes of service) as well
as labeling and recordkeeping.
5.3.1.1 Vendor shall submit Manufacturer's technical documentation on all devices used in cabling system.
Manufacturer supplied end user's manual (at completion of project). Manufacturer supplied application
guidelines for required applications (at completion of project).
5.3.1.2 System Documentation: Vendor shall provide a manufacturer supplied end user manual describing the
end user’s responsibilities in maintaining the integrity of the cabling system overtime. Vendor shall
provide a copy of manufacturer supplied application guidelines describing proper implementation of
current or planned applications to be supported by the cabling system.
All UTP test cords, adapters, etc to be used for testing shall be supplied and verified by the test
equipment manufacturer to meet or exceed the requirements of TSB-67 and qualified to test CAT 6
cabling system. Following shall be included in the testing:
1. Horizontal Basic Link Model
2. Horizontal Channel Test Model
5.3.7.2 Following transmission parameters shall be tested for the installed structured cabling system using the
filed tester:
1. WIRE MAP
2. LENGTH
3. NEXT Loss (pair topair)
4. NEXT Loss (power sum)
5. FEXT
6. ELFEXT (pair to pair)
7. ELFEXT Loss (power sum)
8. ATTENUATION
9. RETURN LOSS
10. PROPAGATION DELAY
11. DELAY SKEW
5.3.8 All ‘PASS’ test result shall be down loaded into the database software that has been provided by the fieldtest
equipment manufacturer.
PART 1 – GENERAL
A. Drawings and general provisions of the Contract, including General and Supplementary Conditions and
the requirements of section 260000 of the specifications, apply to this Section.
1.2 SUMMARY
A. This Section includes fast-transfer battery systems that automatically sense loss of normal AC supply
and transfer loads to battery supply on supply power failure, and that automatically retransfer to
normal supply when normal power is restored.
B. The emergency lighting system & all its components shall be designed & installed to meet the local
civil defense requirements.
C. The Central Battery System shall supply power to 230V/216V AC/DC emergency luminaries in
accordance with DIN VDE 0108 dated 10/89, DIN EN 50272-2, BGV A2 (VBG4) with individual
luminaire monitoring. The implementation of the system shall also comply with BS5266-1 as
applicable to this project.
D. The system shall provide failure detection on each individual emergency luminaire, in conjunction
with special electronic ballasts that incorporate monitoring modules; without additional data cable.
F. The central battery system shall be composed of electronic assemblies of modular plug-in, easy to
service design. Wiring shall be arranged on factory assembled pressure terminals.
G. The central battery system shall have a large connection space that meets safety regulations, plug-in
terminals accessible from above or below protected against inadvertent physical contact in
accordance with DIN VDE 0100. Circuit protection and built-in terminal blocks for battery and mains
supplies to them substations shall be provided.
I. All products used in the emergency lighting system shall be manufactured by an ISO9001
certified company, complying with the relevant VDE/DIN/BS/EN standards & shall bear the CE
certification for Electromagnetic compatibility. The product shall be field proven in the Middle
East.
J. The number of central battery substations (if required) shall be appropriately planned for maximum
reliability and to ensure continued emergency supply. There shall be no single point of failure in the
system. The substations (if any) shall also be able to operate in standalone mode in the event of the
central panel malfunctioning.
K. The system shall be interfaced to the BMS for reporting the alarm and status functions of all system
components. The interface shall also be used to control the system test function, operating time test
function, block and enable manual reset and activate maintained light switch monitoring from any
BMS workstation.
1.3 SUBMITTALS
A. Product Data: Include dimensions and data on features and components for each product specified.
Include wiring diagrams and elevation view of front panel showing control and indicating devices.
Include data on ratings, and a detailed description of operating modes and any load limitations that
may apply.
B. Shop Drawings:
1. Wiring Diagrams: Detail wiring and differentiate between manufacturer-installed and field-
installed wiring. Include diagrams for equipment and for system with all terminals and
interconnections identified.
2. Battery: Sizing calculations.
3. Floor Plans: Indicate final outlet locations and routings of raceway connections.
4. System Operation Description: Detailed description for this Project, including method of
operations and supervision of lighting circuits and sequence of operations. Manufacturer's standard
descriptions for generic systems are not acceptable.
5. Details of graphics display panel.
C. Field Test Reports: Indicate and interpret test results for compliance with performance
requirements. Comply with NFPA 101, DIN VDE 0108 dated 10/89, DIN EN 50272-2, and BGV A2
(VBG4).
D. Maintenance Data: For central battery to include in maintenance manuals specified in Division 1.
1.5 WARRANTY
A. General Warranty: The special warranty specified in this Article shall not deprive the Owner of other
rights the Owner may have under other provisions of the Contract Documents and shall be in
addition to, and run concurrent with, other warranties made by the Contractor under requirements
of the Contract Documents.
B. Special Warranty: A written warranty, signed by Contractor and manufacturer, agreeing to replace
any component of the system including batteries that do not meet requirements or that fail within
the specified warranty period.
1. Warranty Period: 2 years from date of taking over certificate for any component except batteries.
As for batteries, full warranty applies for the first year; a pro-rata warranty thereafter for 4 years.
A. Furnish extra materials described below that match products installed and that are packaged with
protective covering for storage and identified with labels describing contents.
1. Emergency Circuit Modules: Quantity equal to 10 percent of amount installed, but not less than
one unit per type installed.
2. Selective Emergency Lighting switch: Quantity equal to 10 percent of amount installed, but not
less than one unit per type installed.
3. Emergency Lighting fittings associated mounting accessories, lamps, control gears and
pictograms: Quantity equal to 10 percent of amount installed, but not less than one unit per type
installed.
4. Fuses: Quantity equal to 15 percent of amount installed, but not less than 5 units per type
installed.
PART 2 – PRODUCTS
A. Mechanical Construction
1. The battery housing shall be sheet steel, powder coated housing IP21 with removable screwed
front, rear & top doors to provide complete access to the batteries. The electronics section shall
have IP21 sheet steel enclosure with transparent polycarbonate window for all central systems &
IP54 sheet steel enclosure with full metal door for all substations.
2. The electronics compartment shall have large cabling compartments with cable entries from top
via four or more un-drilled removable metal flange plates. All incoming cables & looping circuits
shall be connected on protected & fused terminals as per EN/VDE0100. All outgoing luminaire
circuits shall be connected direct to relevant components via plug-in type pressure terminals 2.5
ELECTRICAL SPECS Page 306 of 559 6757691
Masterspec Division 27- COMMUNICATIONS
mm2.
3. Where the space required for the batteries does not permit the installation in the same standard
enclosure, the batteries shall be installed in an identical batteries cabinet.
B. Electrical Construction.
1. The system shall be built up in a modular format with all modules being plug-in-type design. The
outgoing circuits shall be fed through changeover modules. One module shall be used for each
separate switchable outgoing circuit with maximum load of 6Amps as per DIN/VDE 0108. If
circuits are 2 Amps & below, one module with two separately switchable outgoing circuits shall
be used. Each circuit shall be protected within the system on mains & battery side via screw-in
type cartridge fuses on each module. The fuses shall be accessible via front plate of the module.
The mains supply & battery mains cables shall be protected by molded case circuit breakers
(MCCBs).
2. Each panel shall have a spare fuse carrier with at least five spare fuses for each size used in
respective panel.
E. Relay Module (RM) for signaling the following operating states using potential-free contacts
[required unless BMS interface specified]:
1. Emergency/mains operation.
2. Emergency lighting/charging failure.
3. Deep discharge protection.
4. Test function ON/OFF.
5. Operating time test ON/OFF.
6. The module shall include 8 x LED indicators for the indications given above
G. BMS Module for the integration of the emergency lighting in building automation (BMS)
1. The module shall include a suitable (depending on the system selected for the project) transceiver
for the connection to the BMS.
2. The module shall be used for the output of the following data to a BMS system:
a. Installation blocked.
b. Deep discharge protection.
c. Battery open-circuit.
d. Battery voltage.
e. Current and temperature.
f. Insulation fault.
g. Booster failure.
h. Charging module failure.
i. Bus error, mains failure.
j. Residual capacity.
k. Circuit failures.
3. The module shall be used for the input of the following data from a BMS system:
a. Start and cancel test function.
b. Start operating time test.
c. Block and enable manual reset.
d. Activate maintained light switch monitoring (MLS), via switch.
2.5 INSTALLATION
A. Clearance: According to manufacturer's written instructions, but not less than 1.0 meter infront of
unit.
2.6 IDENTIFICATION
A. Identify equipment and components according to "Basic Electrical requirements” and “wires and
cables” sections.
2.8 CLEANING
A. On completion of installation, inspect unit components. Remove paint splatters and other spots,
dirt, and debris. Touch up scratches and abrasions in finish to match original finish. Clean unit
internally using methods and materials recommended by manufacturer.
2.9 DEMONSTRATION
A. Engage a factory-authorized service representative to train Owner's maintenance personnel to
adjust, operate, and maintain units.
1. Conduct a minimum of 10 hours' training.
2. Schedule training with Owner with at least 7 days' advance notice.
2.10 COMMISSIONING
A. Battery Equalization: Manually equalize charging of battery cells according to manufacturer's
written instructions. Record individual cell voltages.
SECTION 283100 – FIRE DETECTION AND ALARM, ANALOGUE ADDRESSABLE INTELLIGENT INTERACTIVE SYSTEM WITH
VOICE EVACUATION
PART 1 - GENERAL
1. SUMMARY
a. This Section includes intelligent, interactive, analogue, addressable fire alarm systems with manual stations,
detectors, signal equipment, controls, voice evacuation (VE), emergency voice/alarm communication systems
and related devices.
b. The fire alarm system shall be interfaced with the BMS with input/output points or BACNet IP (controls form the
BMS to the Fire Alarm system are prohibited. Only monitoring and viewing facilities are to be provided).
c. Definitions in NFPA 72 and UAE fire & life safety code of practice apply to fire alarm terms used in this Section.
d. All Fire protection and audio drawings, Bill of Quantity, Design criteria and general provisions of the Contract,
including General and Supplementary.
e. Power supply up to the fire alarm panels and voice evacuation amplifiers’ racks is provided by others. (Refer to
electrical drawings)
2. SYSTEM DESCRIPTION
a. General: Non-coded, Interactive / Intelligent, addressable-analog system with manual and automatic alarm
initiation; automatic sensitivity control of detectors; and multiplexed signal transmission dedicated to fire alarm
service, voice evacuation (VE), emergency voice/alarm communication systems and extinguishing agent release.
The system shall also include interfaces with the security systems and the BMS.
3. RELATED WORKS
b. Provide in accordance with Division 23 “Heating, Ventilation and Air Conditioning (HVAC).
4. SUBMITTALS
b. Shop Drawings:
i Wiring Diagrams: Detail wiring and differentiate between manufacturer-installed and field- installed
wiring. Include diagrams for equipment and for system with all terminals and interconnections identified.
ii Battery: Sizing calculations.
iii Floor Plans: Indicate final outlet locations and routings of raceway connections. iv Sections and elevations
of installation details, equipment and raceways.
v Device Address List: Coordinate with final system programming.
vi System Operation Description: Detailed description for this Project, including method of operation and
supervision of each type of circuit and sequence of operations for manually and automatically initiated system
inputs and outputs. Manufacturer's standard descriptions for generic systems arenot acceptable.
vii Monitored input/output points schedule & sequence of operation in addition to cause to effect matrix.
viii Details of graphics display panel
ix All documents required by Civil Defense and other authorities having jurisdiction in the format required
by these parties.
c. Coordination Drawings: Plans, sections, and elevations drawn to scale and coordinating installation of smoke
detectors in ducts and access to them. Show the following near each duct smoke provision of detector
installation:
i Size and location of ducts, including lining.ii Size and location of piping.
iii Size and arrangement of structural elements.
iv Size and location of duct smoke detector, including air-sampling elements.v Size and location of
speakers and voice evacuation equipment.
d. Operating Instructions: For mounting at the FACP and voice evacuation units.
e. Product Certificates: Signed by manufacturers of system components certifying that products furnished comply
with requirements.
f. Installer Certificates: Signed by manufacturer certifying that installers comply with requirements.
g. Field Test Reports: Indicate and interpret test results for compliance with performance requirements. Comply
with NFPA 72 or BS 5839.
h. Maintenance Data: For fire alarm systems to include in maintenance manuals specified in Division 1. Comply with
NFPA 72 or BS 5839 and EN 54.
i. Submissions to Authorities Having Jurisdiction: In addition to distribution requirements for Submittals specified
in Division 1 Section "Submittals," make an identical submission to authorities having jurisdiction (Civil Defense).
Include copies of annotated Contract Drawings as needed to depict component locations to facilitate review.
Resubmit if required to make clarifications or revisions to obtain approval. On receipt of comments from authorities
having jurisdiction, submit them to Architect for review.
j. Taking over certificate: Comply with NFPA 72 and all applicable local codes (UAE fire & life safety code & FEWA
regulations)
5. SPARE PARTS
a. Furnish extra materials described below that match products installed and that are packaged with protective
covering for storage and identified with labels describing contents.
i Lamps for Remote Indicating Lamp Units: Quantity equal to 5 percent of amount installed, but not less than
one unit.
ii Lamps for Strobe Units: Quantity equal to 5 percent of amount installed, but not less than one unit.
iii Optical Smoke Detectors, Heat Detectors, combined optical smoke and rate of rise detector (with or
without built-in sounder) and Flame Detectors: Quantity equal to 3 percent of amount of each type
installed, but not less than one unit of each type.
iv Detector Bases: Quantity equal to 3 percent of amount of each type installed (including bases with built-in
sounder), but not less than one unit of each type.
v Speakers and horns: Quantity equal to 5 percent of amount of each type installed, but not less than one
unit of each type.
vi Voice Evacuation Amplifiers & Fire Fighters Telephones: Quantity equal to 3 percent of amount of each
type installed, but not less than one unit of each type.
vii Keys and Tools: One extra set for access to locked and tamper proofed components.
6. WARRANTY
a. General Warranty: The special warranty specified in this Article shall not deprive the Owner of other rights the Owner
may have under other provisions of the Contract Documents and shall be in addition to, and run concurrent with,
other warranties made by the Contractor under requirements of the Contract Documents.
b. Special Warranty: A written warranty, signed by Contractor and manufacturer, agreeing to replace any component of
the system that do not meet requirements or that fail within the specified warranty period.
i Warranty Period: 2 years from date of taking over certificate for any component of the system.
7. QUALITY ASSURANCE
a. Installer Qualifications: An experienced installer who is an authorized representative of the FACP manufacturer,
ISO 9002 certified for both installation and maintenance of units required for this Project.
b. Manufacturer Qualifications: A firm experienced in manufacturing systems similar to those indicated for this Project
and with a record of successful in-service performance. UL listing for NFPA compliant products or LPS 1014
acknowledgment by the LPCB for BS 5839 / EN 54; is a requirement.
c. Source Limitations: Obtain fire alarm system components through one source from a single manufacturer. Equipment
must either be UL listed to NFPA requirements or be certified compliant to BS5839 / EN 54. Mixing UL listed
equipment and BS / EN certified products shall not be allowed.
d. Compliance with Local Requirements: Comply with applicable building code, local ordinances and regulations,
and requirements of authorities having jurisdiction.
e. Comply with NFPA 72 for installation requirements and NFPA 72 & UL or BS 5839 / EN 54 for equipment.
PART 2 - PRODUCTS
a. General: The fire detection with integrated voice evacuation and emergency voice/alarm communication systems
shall comprise of main fire alarm control panels, optical smoke/heat sensor, heat sensor, optical smoke/heat
sensor with integral sounder units, manual call points, electronic sounders, repeat panels, interface units, fire
fighters phones, amplifiers, audio control units and short circuit isolators. Please refer the relevant fire detection
and voice alarm drawings and schematics. The repeat panels, master panel and the graphics terminal shall be
sited as shown on the drawings. All loop cabling and any other components and accessories deemed necessary
for a safe, reliable and satisfactory system shall conform to the relevant and applicable requirements and
recommendations of NFPA 72, NFPA 13, NFPA 14, NFPA 20, NFPA 25, NFPA 170, corresponding UL standards
UL38,UL268,UL268A,UL521,UL864,UL1971 (or BS 3839 and EN 54), ,ANSI/ASME A17.1 and the equipment
manufacturer.
c. Additional panel:
i Fire fighters smoke control station FSCS in accordance to NFPA 72 and UL864 and should be:
a) be designed to graphically depict the physical building arrangement, smoke-control systems and
equipment and areas served.
b) have status indicator lamps for all smoke control equipment e.g. fans, dampers etc.
c) provide control of all smoke control systems in all zones of the building.
d) where practical it should provide control by zone rather than each piece of individual equipment.
e) It should be fail safe as should all the fire life safety systems (but should not overridesafety
devices e.g. required overloads etc.)
d. System Supervision: Automatically detect and report open circuits, shorts, and grounds of wiring for initiating
device, signaling line, fire pump run/failure, jockey pump run/failure, pump power supply isolated, fire and life
safety equipment isolators, fire extinguishing system valves, water level high/low, diesel low and notification-
appliance circuits.
e. Priority of Signals: Automatic alarm response functions resulting from an alarm signal from one zone or device
are not altered by subsequent alarm, supervisory, or trouble signals. An alarm signal is the highest priority. Supervisory
and trouble signals have second- and third-level priority. Higher-priority signals take precedence over signals of
lower priority, even when the lower-priority condition occurs first. Annunciate and display all alarm, supervisory, and
trouble signals regardless of priority or order received.
f. Noninterference: A signal on one zone shall not prevent the receipt of signals from other zones.
g. System Reset: All zones are manually reset-able from the FACP after initiating devices are restored to normal.
h. Flexibility: The system shall be fully programmed to accommodate fire alarm and voice communication zones as
indicated on the drawings and schematics. The system shall be configured to allow on site modifications with the
minimum of disruption using the PC based software and built-in features to facilitate future changes or
alterations to the buildings.
i. Transmission to Remote Alarm Receiving Stations: Automatically route alarm, supervisory, and trouble signals to
a remote alarm station by means of a digital alarm communicator transmitter.
j. System Alarm Capability during Circuit Fault Conditions: System wiring and circuit arrangement prevent alarm
capability reduction when an open circuit, ground or wire-to-wire short occurs, or an open circuit and a ground
occur at the same time in an initiating device circuit, signal line circuit, or notification- appliance circuit.
k. Loss of primary power at the FACP initiates a trouble signal at the FACP and the remote annunciators. An
emergency power light is illuminated at both locations when the system is operating on the secondary power supply.
l. The system shall be of soft addressable type i.e. all the devices on the loops of the FACP shall be:
a) Allocated addresses automatically from the panel at the time of system power up on a numerically lowest
unused value basis (algorithms)
b) Given an address during commissioning, the value of which shall be stored in non-volatile memory, within the
electronics module of the outstation. This value shall be read during loop allocation and provided it is valid
shall be used to setup the outstations primary address.
c) If the devices are inserted or removed all the existing devices shall keep the same address.
m. The panel shall allocate the address in strict sequential order when the loop is powered up to speed up
commissioning and ensure that it is impossible for two devices to have the same address.
n. All devices shall be assigned up to 32 character alphanumeric label. In case of fire, fault or warning, the label of
device sensing threshold shall appear on visual display unit of the panel.
o. Basic Alarm Performance Requirements: Unless otherwise indicated by the authority having jurisdiction, project’s fire
department or local regulations, operation of an automatic alarm operation ofone smoke detector:
i Notification-appliance operation shall function as follows:
ii Identification at the FACP and graphics monitor of the zone originating the alarm. With a graphical display
of the zone.
iii Identification at the FACP and graphics monitor of the device originating the alarm.iv Recording of the
event in the system memory.
v Recording of the event by the computer of the graphics monitor which shall also print the event log
(provide serial or Ethernet interface with software).
vi The sequence of operation shall a positive alarm sequence as indicated in NFPA 2007 article
6.8.1.3 (the alarm has to be acknowledged within 15 seconds, then 180 seconds are allocated to
investigation after which either the alarm is cleared or notification is initiated and staged evacuation or
relocation starts).
vii Delayed transmission of an audible (sounders, speakers) & visual (strobes) alarm in that zone if the alarm
has not been acknowledged as cleared at the fire alarm panel, within a programmable time delay in
accordance with local codes.
p. Basic Alarm Performance Requirements: Unless otherwise indicated by the project’s security department or local
regulations, operation of one manual station, automatic alarm operation of two smoke detectorsor a single heat
detector, un-cleared or unacknowledged alarm of one smoke detector,or operation of a manual agent release station
initiates the following:
i Notification-appliance operation as a positive alarm sequence as indicated in NFPA 2007 article 6.8.1.3:
ii Identification at the FACP and graphics monitor (of the separate computer) of the zone originating the alarm
with a graphical display of the zone.
iii Identification at the FACP and graphics monitor of the device originating the alarm. iv Transmission of an
alarm signal to the remote alarm receiving stations.
v Unlocking of electric door locks (Delayed-Egress Locks and Access-Controlled Egress Doors as indicated in
NFPA 7.2.1.6.1 and 7.2.1.6.2 respectively), unless the initiating device is a manual station and the alarm
is still being investigated.
vi Release of fire and smoke doors held open by magnetic door holders unless the initiating device is a
manual station and the alarm is still being investigated.
vii Transmission of an audible (sounders, speakers) & visual (strobes) alarm in all zones.
viii Actuating the operating status of fans and other air-handling equipment serving the zone where the alarm
was initiated (refer to emergency sequence of operation), unless the initiating device is a manual station
and the alarm is still being investigated.
ix Actuating the position of smoke dampers in air ducts of system serving the zone where the alarm was
initiated (refer to emergency sequence of operation), unless the initiating device is a manual station and
the alarm is still being investigated.
x Lifts Recall in the cases requested by NFPA.
xi Recording of the event in the system memory.
xii Recording of the event by a separate computer which shall print the event log. (provide Ethernetinterface
with required software suite and licenses).
xiii Activate the integrated auto dialer to notify fire brigade with a presignal feature as indicated in NFPA
6.8.1.2
q. Alarm Silencing, System Reset and Indication: Controlled by switches in the FACP and the remoteannunciator.
i Silencing-switch operation halts alarm operation of notification appliances and activates an"alarm silence"
light. Display of identity of the alarm zone or device is retained.
ii Subsequent alarm signals from other devices or zones reactivate notification appliances until silencing
switch is operated again.
iii When alarm-initiating devices return to normal and system reset switch is operated, notificationappliances
operate again until alarm silence switch is reset.
r. Alarm Silencing, System Reset and Indication: Controlled by switches in the FACP and the remote
announciator.
i Silencing-switch operation halts alarm operation of notification appliances and activates an"alarm silence"
light. Display of identity of the alarm zone or device is retained.
ii Subsequent alarm signals from other devices or zones reactivate notification appliances until silencing
switch is operated again.
iii When alarm-initiating devices return to normal and system reset switch is operated, notification appliances
operate again until alarm silence switch is reset.
s. Remote Detector Sensitivity Adjustment: Manipulation of controls at the FACP causes the selection of specific
addressable smoke detectors for adjustment, display of their current status, reading and sensitivity settings, and
control of changes in those settings. Same controls can be used to program repetitive, scheduled, automated
changes in sensitivity of specific detectors. Sensitivity adjustments and sensitivity-adjustment schedule changes are
recorded in system memory and are printed out by the system printer.
u. Printout of Events: On receipt of the signal, print alarm, supervisory, and trouble events. Identify zone, device,
and function. Include type of signal (alarm, supervisory, or trouble), and date and time of occurrence.
Differentiate alarm signals from all other printed indications. Also print system reset event, including the same
information for device, location, date, and time. Commands initiate the printout of a list of existing alarm,
supervisory, and trouble conditions in the system and a historical log of events.
v. FACP Alphanumeric Display: Plain-English-language descriptions of alarm, supervisory, and trouble events; and
addresses and locations of alarm-initiating or supervisory devices originating the report. Display monitoring
actions, system and component status, system commands, programming information, and data from the system's
historical memory.
w. Topology: All system components and devices shall be connected to two-wire loop circuits (as shown in the typical
schematics) with fault isolator every 20 devices and at the boundary of each fire zone which- ever is greater.
Removal or disconnection of any component from the loop shall not affect the functioning and performance of other
components and the system.
ii The amplifier units (AUs) shall be rated and the speaker circuits shall be wired as shown in the schematics.
AUs shall house the power supply, battery backup and full monitoring facilities. The amplifiers and audio
units shall be modular in construction allowing for a high degree of flexibility so that the performance can
be closely matched to the requirements of the NFPA (orBS 5839 and EN54) standards of the Voice Alarms.
iii The Audio Control Unit (ACU) shall be designed to complement the fire alarm control panel, providing
manual access to the voice alarm section of the system. Controls on the ACU shall be available for up to
64 broadcast zones of the voice alarm. Standard configurations shall allow for recorded Alert and Evacuate
messages as well as an emergency microphone to be operated in each area. In addition up to four other
recorded messages shall be stored in the ACU.
iv The site shall be provided with a dedicated voice alarm system. The amplifier units shall be networked
and reported back to the central stations at the Control/Security Room.
v The VE system shall be properly integrated with the fire alarm system for the whole site.
vi The integrated VE system shall cover all normally accessible areas with the exception of areas where a
high level of background noise is present or areas where general public is restricted. In these areas
sounders connected to the fire alarm system shall be used.
vii The amplifiers units (cabinets, enclosure…etc) shall include amplifiers for local areas. The AUs shallbe capable
of complete standalone operation for the areas it is assigned should the network/interface connections fail.
viii In the event of a catastrophic failure occurring on any individual component within the AUs, pre- recorded
emergency alarm message shall still be available at the ACU.
ix Initiation of voice alarm shall take immediate priority and shall cancel all other PA operations.
Monitored output points shall be provided to disable PA amplifiers.
x The voice alarm system shall be capable of broadcasting pre-recorded emergency alarm messages and live
speech in the event of fire detection system activating.
xi The systems shall be capable of broadcasting up to 4 different pre-recorded messages to different zones or
group of zones simultaneously.
xii Evacuate signal relates to a general evacuation message and alert message corresponds to standby
instructions.
xiii In addition a FIRE DRILL and an ALL CLEAR message shall be incorporated into the operation.
xiv A fire alarm broadcast signal shall cancel any public address operation (if any) and shall override it.
xv Fireman’s microphones shall be fitted to the Audio Control Units. These shall allow direct voice
instructions to be transmitted to a single zone, selected zones or all zones. At least two microphone units
shall be provided, at the front desk and the security room.
xvi When a fireman’s microphone is operated, this shall override any automatic voice alarm signal being
transmitted to the zone selected. The Alert and Evacuate pre-recorded messages will be maintained in
other zones while live voice fire announcements are being broadcast to selected loudspeaker zones.
xvii Automatic gain control shall be provided for areas likely to have high background noise levels. xviii
xix Zoning: by floor except staircases should be individually zoned by stair. xx Back up UPS shall function
i The Fire Alarm / Life Safety System Shall provide a fully integrated Fire Fighters’ Emergency Telephone and
Communications System. A Master Telephone handset shall be provided which will provide a totally
independent 2-way communication between the Fire Alarm Control Panel and any of the Fire Fighters’
Telephone Stations or Portable Telephone jacks located as indicated on the plans for the building.
z. The system shall include interface input/output points to the BMS system which shall be coordinated with the
manufacturer/supplier of that system.
a. Description: Fabricated of metal or plastic, and finished in red with molded, raised-letter operating instructions
of contrasting color.
a) Manufactured as per BS 5839 Pt.2, Pt.3 and Pt.4. or NFPA requirements, UL listed.
b) Double-action mechanism requires two actions, such as a push and a pull after breaking theglass, to
initiate an alarm.
c) Station Reset: Key or wrench operated; double pole, double throw; switch rated for the voltage and
current at which it operates.
d) Integral Addressable Module: Arranged to communicate manual-station status (normal, alarm, trouble)
to the FACP.
e) Built-in isolator.
f) Tamper-proof shield designed to prevent false fire alarms without restricting legitimate alarms. It consists
of a tamper-proof, clear Lexan polycarbonate shield and frame that fits easily over manual pull stations.
When lifted to gain access to the actual alarm, it sounds a piercing warning horn. Immediate attention is
drawn to the pull station and pranksters will be deterred. Legitimate alarms can still be pulled.
a. General (for all detector types). Detectors shall include the following features:
i Manufactured as per BS 5445 Pt.7, Pt.5 and Pt.8, BS5839 Pt.4. or NFPA requirements, UL listed.
ii Self-Restoring: Detectors do not require resetting or readjustment after actuation to restore them to normal
operation.
iii Plug-in Arrangement: Detector and associated electronic components are mounted in a module that
connects in a tamper-resistant manner to a fixed base with a twist-locking plug connection. Terminals in
the fixed base accept building wiring.
iv Addressing is preferably automatic
v Integral Visual-Indicating Light: LED type. Indicates detector has operated.
vi Sensitivity: Can be tested and adjusted in-place after installation from control panel.
vii Integral Addressable Module: Arranged to communicate detector status (normal, alarm, or trouble) to
the FACP.
viii Remote Controllability: detectors are intelligent and interactive analog-addressable type, individually
monitored at the FACP for calibration, sensitivity, analogue reading and alarm condition, and individually
adjustable for sensitivity from the FACP.
ix Automatic drift compensation and control.x In base isolator.
xi EMI Protection 50V/m.
xii Response time less than 7 seconds.
xiii In all areas except back of the house, the detectors shall be color matched to the ceiling finish/color
indicated in the architectural layouts. An exception to this clause is where the detectors (or its installation
guidelines) carry the specific annotation “Do Not Paint”. In any case, no degradation of performance or
detectors certification, approvals and Listings should occur. Its highly preferable unless specifically
indicated by the manufacturer’s installation instructions that the detectors should be semi recessed or
decorative offering the Architect the flexibility to integrate them properly on the surfaces where they are
specified. Samples should be submitted for approval.
a. Heat Detector, Combination Type: Actuated by either a fixed temperature of 57 deg C or rate of rise of
temperature that exceeds 8.3 deg C per minute, unless otherwise indicated.
i Mounting: Adapter plate for outlet box mounting.
ii Mounting: Plug-in base, interchangeable with smoke detector bases.
iii Integral Addressable Module: Arranged to communicate detector status (detector reading, alarm, or
trouble) to the FACP.
iv In base isolator.
b. Heat Detector, Fixed-Temperature Type: Actuated by temperature that exceeds a fixed temperature of88 deg C.
i Mounting: Adapter plate for outlet box mounting.
ii Mounting: Plug-in base, interchangeable with smoke detector bases.
iii Integral Addressable Module: Arranged to communicate detector status (normal, alarm, ortrouble) to the
FACP.
iv In base isolator.
5. NOTIFICATION APPLIANCES
a. Description: Equip for mounting as indicated and have screw terminals for system connections.
i Combination Devices: Factory-integrated audible and visible devices in a single-mountingassembly.
ii The notification appliances shall be LPCB approved and to BS 5839 or as per NFPA requirements, UL listed.
b. Mechanical Bells: Electric-vibrating, 24-V dc, under-dome type; with provision for housing the operating
mechanism behind the bell. When operating, bells provide a sound-pressure level of 95 dB minimum, measured
at 1 meter, from the bell. 8 inch size, unless otherwise indicated. Bells are weatherproof whereindicated.
c. The addressable Alarm Electronic Sounders and strobes shall be loop wired (if external power supply is needed,
it shall be via a fully monitored power supply source and wiring) and loop signaled and provided with built-in short
circuit isolation and shall be sited in areas as shown in the schematics and the floor layout drawings. The sounders
shall be configured via software to operate individually or in sectored groups, totally independent of the way they
have been connected to the loops. The sounders and strobes shall have the synchronization feature to ensure that
all the sounders give alert and evacuate tones thatare totally in phase. Conventional Sounders that "free-run" and
therefore be out of phase with each other will not be accepted. The sounders shall have an output of 100dBA at 1
meter with frequencies of 970 Hz and 910 Hz. Variety of sounds shall be available.
d. Audible alarm:
i The audible alarm should not be less than 15 dBA above the ambient room noise level or less than5 dBA
above the maximum ambient noise level in public and common areas, with a minimum of 65 dBA, and a
maximum of 110 dBA, measured with all doors closed.
ii The audible alarm should not be less than 75 dBA at the pillow level in all guestrooms, with intervening
doors closed during the alarm.
e. Visible Alarm Devices: UL listed strobe lights with clear or nominal white polycarbonate lens. Mount lens on an
aluminum faceplate. The word "FIRE" is engraved in minimum 25 mm high letters on the lens. Strobes shall be
UL listed.
i Rated Light Output: 15, 30, 34, 60, 75, 94, 110 and 177 candelas.ii Strobe Leads: Factory connected to
screw terminals.
iii Strobe lights are to be integrated in voice evacuation speakers where indicated on drawings.iv Strobes
shall be compliant with UL1971 and 1638.
v Visible notification should consist of xenon clear lens strobe.
a. Description: Units are equipped for wall or floor mounting as indicated and are complete with matching door plate.
i Electromagnet: Requires no more than 3 W to develop 111 N holding force. Selection of door holders
shall be closely matching size, type and weight of door.
ii Wall-Mounted Units: Flush mounted, unless otherwise indicated. iii Rating: 24-V dc.
7. CENTRAL FACP
a. Cabinet: Lockable steel enclosure. Arrange interior components so operations required for testing or for normal
maintenance of the system are performed from the front of the enclosure. If more than one unitis required to
form a complete control panel, fabricate with matching modular unit enclosure to accommodate components
and to allow ample gutter space for field wiring and interconnecting panels.
i Identify each enclosure with an engraved, red, laminated, phenol-resin nameplate with lettering not less
than 25 mm high. Identify individual components and modules within cabinets with permanent labels.
ii Mounting: Surface.
b. Alarm and Supervisory Systems: Separate and independent in the FACP. Alarm-initiating zone boards consist of
plug-in cards. Construction requiring removal of field wiring for module replacement is unacceptable.
c. Control Modules: Include types and capacities required to perform all functions of fire alarm systems.
d. Indications: Local, visible, and audible signals announce alarm, supervisory, and trouble conditions. Each type of
audible alarm has a different sound.
e. Indicating Lights and System Controls: Individual LED devices identify zones transmitting signals. Zone lights
distinguish between alarm and trouble signals, and indicate the type of device originating the
signal. Manual switches and push-to-test buttons do not require a key to operate. Controls include thefollowing:
i Alarm acknowledge switch.ii Alarm silence switch.
iii System reset switch.iv LED test switch.
f. Manual override buttons: for smoke dampers and smoke management procedures as indicated on riser diagram
and schedule of points
g. Resetting Controls: Prevent the resetting of alarm, supervisory, or trouble signals while the alarm or trouble
condition still exists.
h. Alphanumeric Display and System Controls: Arranged for interface between human operator at theFACP and
addressable system components, including annunciation, supervision, and control.
i Visual display unit capable of displaying at least 4 lines each 40 characters backlit display.
ii Built-in 40 character thermal printer operating when the access door is open. There shall also be an option
to enable the printer when the door is closed.
iii Built-in keyboard.
i. Simple menu driven function keys with password protection shall allow users to an extensive range ofsoftware
based features such as:
i Last 100 fire events.
ii Last 255 system events.
iii Current fault and warning logs.
iv Analysis of analogue sensor information. v Interrogation of sensor cleanliness.
vi Loop map connections.
vii Enable/ disable sensors, zones, sounders, interface unit channels.viii Fire plan configuration
menus.
ix Outstation label changes. x Address allocation.
xi Status of outstation.xii Status of all cards.
xiii Printer on, off, line feed and test facilities. xiv Address allocation including soft addressing.
j. Graphics display capability by connection to a computer system by a serial or Ethernet connection (provide
software and programming).
k. Instructions: Printed or typewritten instruction card mounted behind a plastic or glass cover in a stainless- steel or
aluminum frame. Include interpretation and describe appropriate response for displays and signals. Briefly
describe the functional operation of the system under normal, alarm, and trouble conditions.
l. VOLTAGE AND POWER SUPPLY: Main FACP is to provide 24 V D.C. to all zone alarm initiating and alarm signaling
devices and is to be designed to operate from 220/230 V A.C., 50 Hz 2-wire, earthed power supply. Power supply
is to be an integral part of the main fire alarm panel, switch mode solid state design, with built in transient
protection (up to 6 kV), and including UL recognized EMI filter, spark gaps and varistors. Additional power supply
units are to be provided for the amplifiers. The power supply is to provide diagnostic LEDs to notify operator
upon AC power and/or the control unit CPU failure.
m. Monitored output relays for emergency MDBs and panels, HVAC, lifts, firefighting panels, BMS, secondary fire alarm
panels, fire doors, motorized dampers, motorized fuel valves, fuel pumps …etc as required by the standard (BS
5839 or NFPA requirements) and to the satisfaction of the project’s fire department andlocal regulations. Outputs
shall allow for segregated selective control per floor and/or area application.
n. Monitored input relays from fire pumps, firefighting panels, secondary fire alarm panels, emergency MDBs and
panels, synchronizing panel, smoke pressurization & extraction fans, fire dampers, BMS etc.
o. Interface to voice evacuation system. Hardwired schemes shall not be accepted, only a communic ation bus
providing full integration of the voice system providing multiple addressing zones and staged evacuation shall be
accepted. The operation of the alarm sounders and the voice evacuation speakers shall be coordinated such that
voice messages are not blurred by alarm tones emanating from sounders.
q. Inputs to BMS (which are monitored by the fire alarm also) shall include but not limited to:i Failure or
disconnection of power supply.
ii Failure of protective device.
iii Valve tamper at fire pumps (refer to IN/OUT points’ schedule of fire alarm system). iv Flow switches at
fire pumps (refer to IN/OUT points’ schedule of fire alarm system).v
Fire pumps power loss or phase reversal.vi Emergency Generator start failure.
vii Emergency Generator low fuel.
viii Emergency Generator low oil pressure.
ix Each stairwell pressurization fan that is running (refer to IN/OUT points schedule of fire alarmsystem).
x Each smoke removal fan that is running or high speed (refer to IN/OUT points schedule of fire alarm
system).
r. Outputs to Civil Defense Remote Monitoring System (RMS) via BMS or direct to RMS interface panel, as required
by Civil Defense Specifications for Life Safety Alarm Monitoring.
s. In addition to the above, all other necessary controls, elements and accessories shall be included to provide a
complete and efficient panel conforming to the requirements of BS 5839: part 4: 1988 and EN 54 or NFPA
standards.
a. General: Components include stand-by sealed lead-acid battery, charger, and an automatic transfer switch.
i Battery Nominal Life Expectancy: 10 years, minimum.
b. Battery Capacity: 24 hours: including supply of sounders, electronic bells, warning signs, strobe lights, control
signals, full alarm load for 30 minutes.
i Magnetic door holders are not served by emergency power. Magnetic door holders are released when
normal power fails.
c. Battery Charger: Solid-state, fully automatic, variable-charging-rate type. Provide capacity for 150 percent of the
connected system load while maintaining batteries at full charge. If batteries are fully discharged, the charger
recharges them completely within four hours. Charger output is supervised as part of system power supply
supervision.
d. Integral Automatic Transfer Switch: Transfers the load to the battery without loss of signals or status indications
when normal power fails.
e. Addressable fire alarm sounder / strobe controllers shall be remote, self-contained power supply units that
include charger, batteries (same autonomy as for main panel) and synchronizing signal for strobes compliant
with UL1971 and 1638. Each unit shall include one permanent supply line for addressable sounders and sounders-
strobe combination in addition to one switchable for strobes and conventional sounders. Both outputs shall be
monitored.
a. Description: Microelectronic monitor module listed for use in providing a multiplex system address for listed fire
and sprinkler alarm-initiating devices with normally open contacts.
b. Integral Relay: Capable of providing a direct signal to the elevator controller to initiate elevator recall or to a
circuit-breaker shunt trip for power shutdown or similar function.
a. The Repeat Panel with built-in short circuit isolation shall be sited at the indicated locations. It shall provide
system repeat facilities to repeat all of the liquid crystal display messages as well as the common indications. It
shall have essential alarm controls, menu facilities and an optional printer allowing it to take the role of the main
system indicator for the day to day running of the system. The Repeat Panel shall be loop driven and provided
with an inbuilt isolator. The Repeat Panel shall be complete with built- in battery and charger to comply with BS
5839 or NFPA standards and shall require 220/230 V AC supply. The Repeat Panel shall be located as shown in the
schematics.
a. The graphic visual display shall pictorially represent Fire, Fault and Emergency events on a visual display unit
(VDU). The purpose of this facility shall be to provide the operator with the additional visual
information over and above the text provided. All system events ie fire, fault and warning shall be automatically
printed onto the graphics printer. Operation of the graphics terminal shall normally be by selection of the
appropriate pages guided by a navigation system. However, it shall automatically track to the relevant initiating
device for the first occurrence of each type of the event.
c. The terminal shall assign a number of different graphic pages to each fire event – from a site overview of building
layout, through a floor layout, breaking the site down into increasing levels of detail. Number of graphic pages
required shall be finally determined by the client/consultant. For tender assume 20 pages per floor, based on the
drawings produced on AutoCAD by the Contractor.
d. The systems shall operate on the Windows environment. The platform specification required are desktopPCs (DELL,
IBM or HEWLET PACKARD) compatible with the following minimum specifications:
i Second Generation Quad core Core i7 Sandy Bridge processor, 3.4 GHz speed, 8MB Intel Smart cache, 8
processing threads
ii Intel motherboard, triple channel DDR3 1066/1333/1600 MHz bus, 12 USB 2.0 ports and two e- SATA
ports, 1 PCI slot, 2 PCI Express (x16 data), 1 PCI Express (x4 data), 2 PCI Express (x1 data)
iii 8 GB RAM DDR3 1066/1333 MHz, 2 channels, 21 GB/s
iv 1 TB storage min capacity, 7200 RPM (SATA II) HDDs in RAID 1 configuration.
v Graphics: Video graphic adapter, minimum 2560 x 1600 pixels, 1GB GDDR3 video memory, 1 DVI- D or
HDMI output (ATI or N-Vidia). Each DVI-D output shall be provided with DVI-D to HDMI interface.
vi Microsoft keyboard.
vii Microsoft optical mouse with rotating wheel.viii DVD+/-R/W (5x) dual layer drive.
ix Operating System for fire alarm graphics terminal: Microsoft Windows 7 Professional Edition, 64 bit
version or later.
x Back-up software similar to Acronis solutions with system image (snap-shots) creation capability and
facilities to re-deploy images to identical or different hardware on either physical or virtual machines.
xi Gigabit Ethernet network interface card. xii RS232 Interface.
xiii 23 inches LCD color monitor. 1920x1080p resolution, horizontal scanning frequency 24~82, 5 msec response
time, contrast ratio 50,000:1 and viewing angle (hor & vert) 170°, DVI-D, HDMI and VGAinputs in addition
to built-in speakers.
N.B: The above mentioned computer system hardware specifications are adequate for 8 months from the
specifications date. The contractor shall submit an equivalent time-upgraded specifications at the actual system
commissioning time. Only branded computers shall be accepted (Dell, IBM, HP).
xiv Ink Jet Printer: (Hewlett Packard, Canon or equivalent): A3, 1200 DPI, color, 8 ppm in black & whiteand 4
ppm in color minimum. It shall include two automatic sheet feeders for A4 & A3 paper sizes. The combined
text and graphics package shall be provided on the same supervisor.
a. The network interface provides for connection of a control panel to the panel’s network. It includes an integral
battery-backed power supply.
a. The T-breaker may be placed anywhere in a loop to provide connection for a spur or sub-loop. The T- breaker
uses a single address of its own.
a. The Fire Fighters’ Telephone System shall include a backlit LCD screen to show the operator the identity and
location of up to 20 waiting calls. The LCD will display call-in information in full language, without the need for
individual LEDs and switches per telephone station. The user shall connect a call by pressing a “connect” switch.
b. The LCD shall display up to 5 connected calls simultaneously. Up to 5 telephones may be connected on a
conference type call.
c. To terminate a call, the operator shall scroll the display cursor over the connected callers’ ID message, and press
a “disconnect” switch.
d. Telephone Devices
i All telephone devices shall be UL Listed for Fire Protective Service.
ii All telephone devices shall be of the same manufacturer as the Fire Alarm Control Panel specifiedto assure
absolute compatibility between the telephone devices and the control panels, and to assure that the
application of the appliances is done in accordance with the single manufacturer’s instructions.
iii Any telephone devices that do not meet the above requirements, and are submitted for use must show
written proof of their compatibility for the purposes intended. Such proof shall be in the form of
documentation from all manufacturers that clearly states that their equipment (as submitted) is 100%
compatible with each other for the purposes intended.
iv The telephone devices shall be red telephone hand sets housed within a locked recessed (flush mounted
in decorated areas) or surface mounted enclosure (in parking spaces and technical areas). The housing
enclosure shall have a stainless steel body and finish in decorated areas and steel body with red
powdercoat finish in parking and technical spaces. Enclosures shall have a locking door, concealed hinges
and Break glass insert.
v Clearly mark the housing with "FIRE FIGHTERS TELEPHONE" in large letters for easy identification. The
housing shall be available in either indoor or outdoor weather-proof & vandal proof versions,as indicated
on drawings.
vi Four state Portable Telephone Handset Receptacle 1-gang with stainless-steel faceplate shall be provided
for outlets of portable fire telephones.
a. The Audio Control Unit (ACU) shall be a mains and battery backed unit and shall be installed next to (or into) the
Fire Alarm Control Panel (please refer the schematic for the locations). These units shall be connected to the
loops of the FACPs and the voice system audio loop. These units shall initiate the broadcast of live speech in the
designated public areas using manual controls. The use of these units shall be primarily for broadcast of fire
messages and other optional auxiliary messages which are site and application specific.
b. The Audio Control Units shall be to BS5839 Part 1 and BS7443 or NFPA standards & UL listed.
c. There shall be an audible indication by an integral buzzer to announce a local ACU fault.
d. The user controls on the unit shall be key switch enabled to allow authorized use of system controls.
e. The Audio loop shall connect the ACUs to all the amplifiers units (DAs) as shown on the schematics. The audio
loop shall carry the messages and data from the master ACU to the distributed amplifier units in the system. The
messages it carries shall be from the microphone or from the auxiliary message stores.
f. The integral microphone with Press to talk button shall be located behind the enable controls door. It shall be
possible to loop connect 10 external all call microphones for fire announcements.
g. The ACUs shall be capable of storing 4 auxiliary messages (as mentioned below) that can be initiated at the ACU
for broadcast on the secure fire alarm network with each message of 45 second duration.
a. The Distributed Amplifier unit shall be mains powered and battery backed unit and shall be normally installed
near its loudspeaker circuit area. They shall amplify audio signal for broadcast to its zones of loudspeakers. The
audio signal shall be either live or pre-recorded messages. The live speech shall be from the microphone and the
prerecorded messages from the digital stores, which shall be local on the Alert and Evacuate Store Modules in
the DA.
b. Each DA zone shall consist of up to 8 loudspeaker circuits with each channel powered from separate amplifier
module, to secure the broadcast of messages.
c. The amplification of audio shall be by means of amplifier modules installed in the DAs. There shall be a number
of modules available with various power ratings to meet the loudspeaker requirements. Their frequency
bandwidth shall be in the range of 150Hz to 20Khz.
d. The DA shall meet the requirements of BS5839 Part 1, 4 and 8 or relevant NFPA standards and be UL listed. Each
of the DAs shall be given a label by the Fire Alarm Control Panel to identify its location in thesystem. The label shall
be automatically displayed along with the DA events.
e. The DA shall facilitate optional local live speech. The global speech shall be broadcasted from the ACU
microphones via the Audio loop to all the DA and its loudspeaker circuits in the system.
17. SPEAKERS
a. General: In all areas except back of the house, the voice evacuation speakers shall be matched to the ceiling/wall
color finish as indicated in architectural layouts, to the satisfaction of the Engineer. No degradation of the speaker
performance should occur. Strobes (as specified in this document) may be integrated to voice evacuation
speakers where indicated on drawings.
vi The speaker shall have the following agency listings: UL 1480, ULC S526, ULC S541, FM, CSFM and MEA
(in addition to UL 1971 and UL 1638 when provided with integrated strobe light).
vii The loudspeaker shall meet the following criteria:
a) Frequency response: 100 Hz - 8 kHz +/- 5dB.
b) Sound Pressure Levels: 90dB (1W/1m), 98dB @ rated input.
c) Dispersion Angle: 150° Conical.
d) The body shall be manufactured from steel finished with an attractive and durable, highquality,
baked epoxy polyester powder-coat.
e) The speakers shall be complete with fire dome and thermal fusible link when recessed in false
ceilings and with backbox when embedded.
f) DC block capacitors for audio circuit supervision
iii It shall be also designed to stand up to weather conditions when installed outdoors using a housing made from
durable and fire retardant, high impact plastic meeting or exceeding 94V-0 UL flammability ratings.
iv The speakers shall comply with IP65 standard for dust proof and waterproof capabilities.
v The weatherproof re-entrant speakers shall be provided with a surface mounting backbox rated for
outdoor use or a flush-mounting backbox rated for indoor use.
vi The weatherproof re-entrant speakers shall meet the following criteria:
18. WIRES AND CABLES FOR SOUNDERS, SPEAKERS, BELLS, and CONTROL SIGNALS (including detectors and
addressable devices)
a. Certified to have passed IEC 331 and 332 flame resistance and fire retardant tests or BS 7629: 1993 and BS 6387
or NEC 760 and UL 2464. The wiring is to be true class “A” with 2 hours fire rated. Conductors are to be copper
of minimum size 1.5 mm² and/or larger such that voltage drop at full load is below 5%. The wiring is to be true
class “A”.
a. Flame retardant rigid PVC heavy gauge concrete embedded (embedded conduits strictly where allowed explicitly
by structural engineer) or steel conduits for surface mounted for Pirelli FP100. MICC or FP200 GOLD cables do
not need PVC conduits. However, all connection blocks shall be fire resistant similar to “WAGO” pressure
terminals or special MICC connectors, installed in metallic red painted bo
PART 3 EXECUTION
1. EQUIPMENT INSTALLATION
a. Connect the FACP with a disconnect switch with lockable handle or cover.
c. Ceiling-Mounted Smoke Detectors: Not less than 10 cm and not more than 5 meters from a side wall to the near
edge. For exposed solid-joist construction, mount detectors on the bottom of joists. On smooth ceilings, install
not more than 10 meters apart in any direction.
d. Wall-Mounted Smoke Detectors: At least 10 cm, but not more than 30 cm, below the ceiling.
e. Smoke Detectors near Air Registers: Install no closer than 150 cm.
f. Audible Alarm-Indicating Devices: Install not less than 25 cm below the ceiling (or false ceiling). Install bells and
horns on flush-mounted back boxes with the device-operating mechanism concealed behind a grille. Combine
audible and visible alarms at the same location into a single unit.
g. Visible Warning signs: Install above exit doors at least 15 cm above top of door frame.
h. FACP: Surface mounted with tops of cabinets not more than 1830 mm above the finished floor.
A. Wiring Method: Install wiring in rigid PVC heavy gauge conduits except for fire resistant cables when
unconcealed. Conceal raceway except in unfinished spaces and as indicated. Embedded conduits are approved
strictly where allowed explicitly by structural engineer.
B. Wiring within Enclosures: Separate power-limited and non-power-limited conductors as recommended by the
manufacturer. Install conductors parallel with or at right angles to sides and back of the enclosure. Bundle, lace,
and train conductors to terminal points with no excess. Connect conductors that are terminated, spliced, or
interrupted in any enclosure associated with the fire alarm system to terminal blocks. Mark each terminal
according to the system's wiring diagrams. Make all connections with approved crimp-on terminal spade lugs,
pressure-type terminal blocks, or plug connectors.
C. Cable Taps: Use numbered terminal strips in junction, pull and outlet boxes, cabinets, or equipment enclosures
where circuit connections are made.
D. Color-Coding: Color-code fire alarm conductors differently from the normal building power wiring. Use one
color-code for alarm circuit wiring and a different color-code for supervisory circuits. Color- code audible
alarm-indicating circuits differently from alarm-initiating circuits. Use different colors for visible alarm-
indicating devices. Paint fire alarm system junction boxes and covers red.
E. Risers: Install vertical cable risers to serve the fire alarm system (sounders, bells, voice evacuation, power
supply and control devices) as indicated on riser diagram.
a. Generally, refer to section 260533 “RACEWAYS, BOXES AND FITTINGS” for related products and field installation
works.
b. Flame retardant schedule 40 rigid PVC heavy gauge concrete embedded (embedded conduits strictly where
allowed explicitly by structural engineer) or steel conduits for surface mounted installations. All connection
blocks shall be fire resistant pressure terminals or special MICC connectors, installed in red metallic boxes.
a. Refer to section 260519 “WIRES, CABLES AND RELATED ACCESSORIES” for related supporting systems products
and field installation works.
5. IDENTIFICATION
6. GROUNDING
a. Ground cable shields and equipment according to system manufacturer's written instructions to eliminate shock
hazard and to minimize, to the greatest extent possible, ground loops, common-mode returns, noise pickup,
cross talk, and other impairments.
b. Signal Ground Terminal: Locate at main equipment rack or cabinet. Isolate from power system and equipment
grounding.
a. Manufacturer's Field Service: Engage a factory-authorized service representative to inspect field- assembled
components and connections and to supervise pre-testing, testing, and adjustment of the system. Report results
in writing.
b. Pre-testing: After installation, align, adjust, and balance the system and perform complete pre-testing.
Determine, through pre-testing, the compliance of the system with requirements of Drawings and Specifications.
Correct deficiencies observed in pre-testing. Replace malfunctioning or damaged items with new ones, and retest
until satisfactory performance and conditions are achieved. Prepare forms for systematic recording of acceptance
test results.
c. Report of Pre-testing: After pre-testing is complete, provide a letter certifying the installation is complete and fully
operable, including the names and titles of witnesses to preliminary tests.
d. Final Test Notice: Provide a minimum of 10 days' notice in writing when the system is ready for final acceptance
testing.
e. Minimum System Tests: Test the system according to procedures outlined in NFPA 72. Minimum required tests are as
follows:
i Verify the absence of unwanted voltages between circuit conductors and ground. ii Test all conductors
for short circuits using an insulation-testing device.
iii With each circuit pair, short circuit at the far end of the circuit and measure the circuit resistancewith an
ohmmeter. Record the circuit resistance of each circuit on record drawings.
iv Verify that the control units are in the normal condition as detailed in the manufacturer's operation and
maintenance manual.
v Test initiating and indicating circuits for proper signal transmission under open circuit conditions. One
connection each should be opened at not less than 10 percent of initiating and indicating devices.
Observe proper signal transmission according to class of wiring used.
vi Test each initiating and indicating device for alarm operation and proper response at the control unit. Test
smoke detectors with actual products of combustion.
vii Test the system for all specified functions according to the approved operation and maintenance manual.
Systematically initiate specified functional performance items at each station, including making all
possible alarm and monitoring initiations and using all communications options. For each item, observe
related performance at all devices required to be affected by the item under all system sequences.
Observe indicating lights, displays, graphics (on separate computer), signal tones, and annunciator
indications.
viii Test Both Primary and Secondary Power: Verify by test that the secondary power system is capable of
operating the system for the period and in the manner specified.
f. Retesting: Correct deficiencies indicated by tests and completely retest work affected by such deficiencies. Verify
by the system test that the total system meets Specifications and complies with applicable standards.
g. Report of Tests and Inspections: Provide a written record of inspections, tests, and detaile d test results in the
form of a test log. Submit log on the satisfactory completion of tests.
h. Tag all equipment, stations, and other components at which tests have been satisfactorily completed.
a. Cleaning: Remove paint splatters and other spots, dirt, and debris. Touch up scratches and marred finish to match
original finish. Clean unit internally using methods and materials recommended by manufacturer.
9. DEMONSTRATION
1.1 INTRODUCTION
A. This document sets forth the specification for Communication System Infrastructure for
B. The Contractor shall hold the prime responsibility of coordinating the complete
installation including obtaining necessary inputs from Infrastructure and other
discipline installers and ensure the entire installation performs as required and
achieve the design intent in totality.
C. The following table summarises the specification sections which forms the primary
scope for the Contractor; unless separate instructions are issued for additions or
deletions.
Section Section Description
27 00 00 Communication Systems
27 02 00 Telephony System
27 05 10 Communication Pathways
1.3 DEFINITION
A. The following terms and abbreviations used in these specifications / Drawings shall mean:
Contractor The Specialist Contractor appointed to carry out the entire Contract
Scope of Work under this Contract
BS British Standards
CP Code of Practice
1. The latest edition of Local Telecom and Mobile service provider regulations.
2. IEEE/IETF Standards
3. BS/EN Standards
4. TIA/EIA Standards
7. NFPA Standards
B. The Work shall conform to the current editions including all amendments. In case of
contradiction/discrepancy, the most stringent standards, rules and regulations shall
apply.
C. If Contractor wishes to use installations or Equipment other than the specified ones
and conforming to different standards, then such proposals shall be presented to the
Engineer and Client to obtain necessary approvals before proceeding with any
installation.
B. Contractor shall arrange a meeting between all associated disciplines and engineer
immediately after award of the contract for a detailed discussion and verification of the
telecommunication network engineering methods, service intake details, containment
and equipment mounting details, and provide a framework for communication and co-
C. Contractor shall discuss with service provider on the space allocated for the main
telecommunication room is sufficient enough to host both fixed line and mobile
communication equipment for the facility.
E. Contractor shall coordinate with telecom service provider on the floor telecom and
distributed antenna system optical distribution frames to ensure the infrastructure
complies with local regulation. Any cost savings because of optimization shall be
transferred back to the client.
F. Contractor shall coordinate with telecom service providers for the service entry points
and ensure all necessary provisions including primary and redundant entry routes are
provided as required by the service providers.
G. Contractor shall obtain pre–approval from telecom and lead mobile service providers for
the complete passive infrastructure design for telecom and mobile services.
H. Contractor shall coordinate with electrical contractor and produce the electrical load
calculations for main telecom rooms, main gsm room, and floor optical distribution
frames for review and approval. Any alternations required shall be immediately
addressed with the engineer and shall be carried out without any additional cost to the
client.
I. Contractor shall study the layouts, schematics, details, and specifications to understand
the design intent completely. Contractor shall consider his offer for the complete design
and all other associated works in fully compliance with local authority guidelines and
regulations. No variations shall be accepted at any stage of the project for noncompliance
and omissions
K. Contractor shall coordinate with mobile service provider for the roof mobile service room
requirements and ensure necessary provisions are in place as required by the telecom
service provider.
L. Contractor shall coordinate with telecom service provider and engineer on site regarding
the containment requirements and produce cable tray sizes and its calculation for
M. Contractor shall coordinate with telecom service provider on the number of fibre feeds
required from mobile ODF’s to the main telecom room.
N. Contractor shall coordinate with DU and Etisalat regarding the GSM boosting if required
and will be responsible for their installation.
P. Any apparatus, appliance, material or work not shown in the drawings but mentioned in
the specification or vice versa, any incidental accessories or work necessary to make the
work complete in all respects and ready for operation, even if not particularly specified;
shall be done so by the contractor without any additional costs.
1.5.2 COMMUNICATIONS SYSTEM INFRASTRUCTURE
c. Telephony Infrastructure
B. Ethernet based Communication System Network Infrastructure for the facility shall be
classified into four different network types to address various communication
requirements of all the IP enabled systems for the facility.
D. Contractor shall arrange a meeting between all associated disciplines and engineer
immediately after award of the contract for a detailed discussion and verification of the
building communication network engineering methods, containment and equipment
F. BAN, BGN, BSN and SSN utilizes independent edge and core network layers for
communication. The passive infrastructure for these networks shall also be considered in
alignment with the active network layer distribution. The inter-network communication
shall be through a secured firewall should there be integration of systems across
networks.
I. BAN, BGN, BSN and SSN horizontal consolidations will have edge switches strategically
distributed and primarily located in the IDFs on every floor and the core switches for the
respective networks shall be located in the Data center on Mezannine floor.
J. BAN will be a converged network intended for all Hotel systems including property
management system, billing systems etc. System integration, if required, across networks
shall be achieved through
a secured firewall. Contractor shall confirm with Engineer and Client to conclude the
services that falls under BSN based on operational requirement.
K. BGN will be a converged network intended for wireless access network providing high
speed internet access among other guest services. HSIA system will provide its service
over this network including fixed internet access, if necessary. System integration, if
required, across networks shall be achieved through a secured firewall. Contractor shall
confirm with Engineer and Client to conclude the services that falls under BGN based on
operational requirement.
L. BSN will be a converged network intended for all systems including but not limited to all
Building Management Systems, Audio Visual systems, IP Master Clock System, Digital
Signage Systems etc. System integration, if required, across networks shall be achieved
through a secured firewall. Contractor shall confirm with Engineer and Client to conclude
the services that falls under BSN based on operational requirement.
M. Security Systems Network (SSN) for the facility is a fully isolated passive and active
infrastructure. The system integration across networks is achieved through a secured
firewall. System integration, if required, across networks shall be achieved through a
N. All horizontal cabling and cable terminations for BAN, BGN, BSN and SSN shall be based
on Cat6A standards unless otherwise specified by the Engineer and/or the Client.
O. All backbone cabling and cable terminations for BAN, BGN, BSN and SSN shall be based
on Single mode OS2 unless otherwise specified by the Engineer and/or the Client.
P. There shall be multipair Cat3 backbone cabling provided for analogue telephone services
to guestrooms. This shall run from the data center through the main telecom riser
terminating in the IDFs of all floors having guestrooms.
Q. Location, quantity and height of network outlets shown are indicative. Final quantity of
the primary and secondary network outlets, floor box locations etc. shall be subject to the
approval from Engineer and Client.
R. Communication cabling contractor shall coordinate with respective stake holders on site
and position the network outlets accordingly in terms of location, mounting height, and
quantity.
S. Finishes of all network interface plates are subject to Architect and Interior Designer
approval. Contractor to submit samples of all exposed face plates for approval prior to
procurement.
V. Contractor shall coordinate with all other disciplines for the internal and external
pathways, slab openings, service entry points, power requirements, ventilation
requirements, local authority requirements and all other associated coordination
required for the successful installation and completion of the project.
W. The locations of equipment shown are indicative. The exact location must be coordinated
and verified by the contractor with other disciplines during construction. The same shall
be reflected on the coordinated and updated detailed shop drawing and shall be
submitted to the engineer for approval.
A. All systems within the Project shall be integrated based on the design requirements,
operational parameters and functional requirements; through open standards.
C. The Contractor shall produce a comprehensive system interface and integration design
documents to present the actual implementation scenarios.
D. The documents shall, as a minimum, include the following with all application
integration parameters;
C. Only after obtaining a written permission from the Engineer shall any remedial work
is carried out.
1.8 PROGRAMME
A. The Contractor shall produce the Work program based on the programming requirements
mentioned elsewhere in the Project Document and Main Contractor’s programme.
The following shall be included in the Program as a minimum:
1. Mobilization;
3. Approvals;
5. First Fix – First fit-out that includes all fixed cabling installation work.
7. Second Fix – Final fit-out that includes field equipment for all systems, head-
end equipment, Communication Racks, accessories, cable terminations etc.
Installation work and all relevant finishing.
1.9 PERMITS
A. The Contractor shall obtain all necessary permits prior to commencement of Work and
obtain current record drawings of existing services already installed if required.
B. All applications for permits shall be made in writing to authorities at least 7 days prior
to the execution of the Work. Where any relevant authority requires longer
notice/application period, the Contractor shall comply with the authority’s
requirements.
C. The Contractor is fully responsible for obtaining the necessary permits from the
authorities for his Work as well as for any connected work with others.
1.10 MATERIAL SUBMITTAL
A. The Contractor shall furnish submittals in accordance with Client standards and
relevant subsections within this Specification.
B. On award of the Contract, The Contractor shall provide a list of the items which the
Contractor proposes to furnish. All submittals shall be made within fourteen (14) days
of the award of the Contract or earlier as directed by Engineer.
C. The Contractor shall submit in triplicate, the technical specification/literature for each
item of the material/equipment the Contractor intends to use for the Work to the
Engineer.
D. In case the technical literature is not available, then a sample shall be submitted. In
the absence of either of these, typed technical data shall be submitted duly supported
by telex / letter from the manufacturer for confirmation.
E. It is mandatory to submit the samples of all exposed interface wall plates, keypads
etc. for Architects/ Interior Designers approval. No material shall be ordered without
the approval from the concerned.
F. Each copy of the submittal shall be numbered and signed with the technical
specification/literature clearly highlighting/indicating the model, type and capacity of
the equipment offered. The Engineer shall retain two of the copies and return one,
either Approved or Not Approved, to the Contractor. The Contractor shall address all
comments and re-submit further information or alternative material/equipment
within 05 days for items that are Not Approved.
1. Submittal Number
2. Type of Material/Equipment
3. Name and address of the Manufacturer and Local Agent
4. Country of Origin
5. Catalogues/Technical Specification attachments
6. Date of Approval
7. Date of Order / Order Number
8. Mode of Delivery (Air, Land or Sea)
9. Estimated Time of Arrival (ETA) on Site
10. Status as on date of Report
B. The Contract Drawings do not indicate every detail of the Work. The Contractor shall
be responsible for checking the position, location, installation requirements,
accessories etc., on SITE and with manufacturers. All dimensions are indicative and
shall be verified with the Architectural and Structural Drawings during construction.
The Contractor shall provide an installation complete in all respects and in satisfactory
working order. If any item is discovered later to be short supplied or not in working
order, The Contractor shall be liable to make good the same to the satisfaction of the
Engineer.
C. Any apparatus, appliance, material or work not shown on the Drawings but
mentioned in the specification or vice versa, or any incidental accessories or work
necessary to make the Work complete in all respects including operation , even if not
particularly specified shall be supplied and installed or carried out by the Contractor
without any additional costs.
D. The Contractor shall provide all necessary access panels, access doors, platforms, cat
walks etc., required due to SITE conditions or necessitated by the locations of the
controls equipment/accessories, switch-gears, panels whether or not shown on the
Contract Drawings at no additional cost to Client.
4. Contractor to coordinate on site and select the shortest path available for
routing for all communication cables, this is to ensure that none of the
service cables shall exceed the permissible standards.
5. It is very important to have pre- approval for all the equipment from the
Engineer, Architect and Interior Designer in order to produce aesthetically
pleasing environment and at the same time not compromising on the
technical parameters.
B. The Contractor shall submit the Shop Drawings for Engineer’s approval. The
Contractor shall produce (as a minimum) the following in the Shop Drawings:
1. Actual conduit routes with junction boxes indicating the size of conduit,
number and size of wires it is carrying, where it is rising up or bending down
etc.
3. Reflected ceiling plans showing coordinated services, light fittings and other
ancillary equipment such as fire alarm, diffusers etc.
5. Sectional views for coordinating ELV wiring and other services i.e., Air-
conditioning, Drainage & Plumbing to Engineer’s requirements.
3. Technical literature;
5. Manufacturer's name, address, telex no., Fax no. Telephone no., contact
person. - Local as well as overseas;
specified time, then Engineer shall make own arrangements to rectify the fault at the
Contractor’s expense.
A. The Contractor shall ensure that any Sub-Contractor appointed for the Work shall
have the valid license or approval from the relevant Authorities/Organisations. The
grade of license shall also be in accordance with the requirement of this Project. A
copy of the license/approval from the service provider/authority shall be submitted
to the Engineer.
C. The Contractor shall submit the qualifications and experience particulars of the
Project Manager, Project Engineer, Supervisor and technician’s to be employed on the
project and obtain approval from Engineer.
D. Once the approval is obtained, the Contractor shall not replace the staff from site. In
case replacement of personnel becomes necessary, re-approval should be obtained
and the new staff shall continue with the old staff for a minimum period of 10 days
before the latter is withdrawn from the site. In such cases, the proposed replacement
personnel shall have a minimum of 5 years local experience. Engineer will reject any
application with less than 5 years of experience.
1.18 WARRANTY
A. The Contractor shall provide warranty for the Work in accordance with this
Specification that all plant/equipment/material shall operate free of any defects due
to defective material and bad workmanship and that any part found defective during
this period shall be replaced/rectified free of charge by the Contractor.
B. If the defects are not rectified within a reasonable period, the Engineer may proceed
to do so by another agency at the Contractor's entire risk and expense without
prejudice to any rights of the Engineer.
C. The guarantee for the various materials or equipment under this Contract
shall commence after taking over certificate and be warranted for a minimum period
of 24 calendar months or standard manufacturer warranty whichever is more.
PART 2 PRODUCTS
B. All materials/equipment for the Work shall be procured only through the appointed
agent, who shall be the authorized agent and be able to supply the spare parts etc.,
C. In case of any item/s that require to be purchased directly from abroad, for valid
reasons, then the Contractor shall specify this clearly in the submittal and obtain
approval from Engineer.
D. The Contractor shall supply all materials in new condition upon project taking over
certificate. The Contractor shall supply all the necessary skilled and non-skilled labour
to complete the ICT services in accordance with the program of work.
A. As part of the scope the Contractor shall deliver the below systems
a. A two-channel radio communication system with 6 hand terminals. The quantity of the
hand terminals will be confirmed by the Client at the time of implementation.
B. Any item supplied differs from that shown on the submittal catalogue copy or the
sample submitted, shall also be rejected at site. In such cases, the Contractor shall
make a new submittal for the item and obtain approval from Engineer. Any time delay
caused due to the above shall be borne by the Contractor.
C. The Contractor shall remove the rejected materials/equipment from SITE and replace
with approved materials/equipment at the Contractor’s own expenses. In the event
the Contractor fails to do so, the Engineer shall carry out such work and deduct all
costs from the Contract price.
2.6 SAFETY
A. The Contractor shall comply with all safety procedures at Site to protect manpower and
machinery. The Contractor shall provide all the means to achieve the safety
standards required and protect the manpower, materials and equipment in
accordance to the Main Contractor’s Occupational Health and Safety Requirements.
B. The Engineer will advise the Contractor at the time of commencement of the Contract
the list of equipment to be inspected and the Contractor shall give the Engineer the
required notice of the date on which the plant/equipment will be ready for testing.
C. The Engineer will signify his intention to attend the tests or accept the Contractor’s
test sheets. The Contractor shall supply all the test certificates in original to the
Engineer at the time of handing over the Work.
PART 3 EXECUTION
PART 1 GENERAL
B. The system shall include complete end to end hardware and software required for the
operation of the system.
C. Contractor shall obtain clarification on all matters to understand the actual intent of
this document or in which a conflict appears to have arisen; prior to the finalisation of
the Contract. Any information sought and the cost implications, if any, after the
finalisation and successful appointment shall not be considered as a ground for
variation in Contract.
D. Contractor shall clearly detail all pricing for components, cabling, installation,
engineering, training, testing, commissioning, setting to work and comprehensive
warranty.
E. The design shall cater for several IP and Analogue Telephone Handsets as required for
the operations of the hotel.
G. For backend operations, office spaces and front of house service areas shall be
supplied with IP Telephones.
I. Contractor shall produce the physical samples of Telephone handsets for approval by
the Client.
J. Final quantity and location and typed of the handsets shall be subject to the
confirmation from the Client and considering the operational requirement.
L. Contractor shall ensure installer(s) of the network equipment are certified to the
highest level by the manufacturer of the system installed.
M. Connectivity for the telephony system shall be provided through the building’s
converged Building Communication LAN.
N. The telephony system shall transmit voice and video signals throughout the building
using the open standard Internet Protocol (IP v4) or Internet Protocol (IP v6)
O. Electrical power for the IP telephones (handsets) shall be provided by the converged
network equipment using Power-over-Ethernet (PoE) technology.
P. The IP Telephone system shall integrate with other systems within the building based
on industry standard open protocols.
A. The following standards and documents of other organizations are referred to in this
Part and shall be complied with:
1. SIP
2. H.323
3. G.711
4. G729/G.729A
7. TIA
8. IEEE
9. NFPA
1.2 SUBMITTALS
A. The Contractor shall supply and install, free of charge, all software revisions or
upgrades necessary to enable the continued successful operation of the systems
described herein.
B. The Contractor shall provide all required information, manuals, drawings etc.
appertaining to the installation. This shall comprise, but not be limited to, the
following:
2. Operations manuals;
7. Training material;
D. A system manager manual shall be provided. This manual shall contain details of the
system configuration and the operation of the software. With the agreement of the
Engineer standard product manuals may be substituted at least in part for this
requirement.
PART 2 PRODUCTS
2.1 PRODUCTS
A. The Contractor shall supply all components required for a fully operational telephony
system utilising VoIP technology and capable of supporting analogue telephones. This
system shall provide voice services throughout the required areas and utilise the
connectivity of the Building Communication LAN. The guestrooms in the hotel are to
have IP phones and the rest of the telephony solution, including all BOH offices shall
be IP based.
B. The Contractor shall supply a hybrid VoIP telephony solution capable of supporting
analogue telephones. The solution shall consist of the following components as a
minimum:
4. Management Consoles
5. The system shall be fully integrated with Video conference system for the
meeting rooms, Board room.
6. The system shall be fully Integrated with IP SIP based intercom system
Client.
1. Caller ID;
2. Music On hold;
3. Redial;
4. Conferencing
6. Speed dialling;
11. Call Pickup Facility (answer a call from another extension in the same
‘group’);
1. Fault Indication
E. The Telephony system shall support a minimum of 16 Telecom Interface lines with the
capability to add 30% capacity in the future and provision shall be available to connect
E1 /T1 interface if required by the Client.
F. The Telephony system shall be configurable from a Graphical User Interface (GUI) on
the management console. Using this GUI a normal user with necessary privileges shall
be capable of configuring all aspects of the telephony system.
G. The Contractor shall assign an appropriate Class of Service for voice traffic such that it
is appropriately prioritised within the network.
I. Voice gateway shall be equipped with analogue interface cards for terminating
analogue lines from ISP , the minimum ports shall be 16 and system shall be capable
of upgrading in case if more lines needs to be added in future. System shall also have
the capability to accept EI/TI lines in case if that is required by the Client.
J. The voice gateway should be of highly modular platform with several types of module
slots to add connectivity and services for varied branch-office network requirements.
K. The voice gateway shall offer an industry-leading breadth of LAN and WAN
connectivity options through modules to accommodate field upgrades for future
technologies without requiring a platform replacement.
1. Telephony IP Extensions
4. Fax Services
2.2 HANDSETS
A. The Contractor shall supply different types of telephone handsets for areas as required
by the
Client.
B. Contractor shall have a pre-approval from the Client on the model and type of the
handsets.
D. Electrical power for IP telephones (handsets) shall be provided by the Active Network
equipment using IEEE 802.af Power over Ethernet (PoE) Technology, as a minimum.
E. The number of handsets and type shall be determined by the Client in discussion with
the Engineer/Contractor.
3. Wall-mount capability
Attribute Specification
PoE class 1
3. Compliant with military 810F standard and includes a rubber casing to shield
the phone from damage caused by drops and shocks
4. wireless handsets should work over the IP wireless infrastructure within the
building
2.3 EMERGENCY TELEPHONE – LIFT LOBBY
PART 3 EXECUTION
A. The Contractor shall submit the Testing and Commissioning (T&C) procedures
together with the T&C schedule for approval. The submission shall be made at least
two weeks before the commencement of T&C.
C. Upon completion of such T&C procedure, the Contractor shall complete and sign a
testing and commissioning certificate in known format, to the effect that agreed T&C
procedures have been duly carried out.
D. Before carrying out any test, the Contractor shall ensure that the installations comply
with the statutory requirements and regulations.
E. The Contractor shall prepare checklist and T&C procedures to meet the requirements
of the particular network Installation.
F. The Contractor shall provide all the necessary staff, labour, materials and equipment
for a thorough test and examination of the installation.
3.2 TRAINING
A. Training of personnel designated by the Engineer shall be carried out to enable to take
over, operation and maintenance of the Telephony system.
B. The Contractor shall submit the training agenda and training manual.
C. Separate training shall be provided for maintenance team, and operator’s team.
D. The Contractor shall submit a detailed training program which shall include theoretical
and practical training for personnel to be deputed by the Client, at the end of the
guarantee period, in addition to the Client’s personnel participation in the installation
and testing stages as specified earlier, and maintenance during the guarantee period
of three years.
END OF SECTION
PART 1 GENERAL
1.1 GENERAL
A. The Contractor shall supply and install conduits , trunkings and cable tray system
complete with draw wires both internal and external for the complete,
Communication Systems , Telecom Service Provider, Mobile Service provider,
Security Systems, Audio Visual and other systems as covered under the
Communication , Telecommunication ,Security and Audio Visual related scope of
works.
1.1 ON SITE COORDINATION
A. Contractor shall coordinate closely on site with main contractor and telecom service
provider for all the external pathways, external and internal distribution of
containments, cable junction boxes, excavations, and support bases required for
delivery of telecom services to the facility.
C. Contractor shall coordinate with telecom / mobile service providers for any sort of
signal reinforcement in roof for distributed antenna system and ensure necessary
provisions are provided as required by mobile service provider
D. The location, height and size of containments reflected in the drawings are indicative.
Contractor shall produce cable tray calculations and ensure that cable tray fill ratio
shall not exceed 25 %.
E. Contractor shall coordinate closely on site for all the external and internal pathways,
external and internal distribution of containments, cable junction boxes, excavations,
and support bases required for the implementation of complete communication
infrastructure.
G. Contractor shall coordinate on site and ensure that all the external and internal
communication, telecommunication, security and audio visual systems installations
are in full compliance with local authority guidelines and international standards.
H. Contractor shall coordinate closely on site for all the external pathways, external
distribution of containments, cable junction boxes, excavations, and support bases
required for the external systems/equipment.
I. Contractor shall coordinate on site to determine the location and size of the telecom
service entry points.
L. Pathways shall be designed and installed to meet applicable local and national building
regulations and electrical codes or regulations.
M. Grounding / Earthing and bonding of pathways shall comply with applicable codes and
regulations.
N. Pathways shall not have exposed sharp edges that may come into contact with
communications cables and that can also be detrimental to health and safety.
O. The number of cables placed in a pathway shall not exceed manufacture specifications,
nor, shall affect the geometric shape of a cable.
P. Communications pathways, spaces and metallic cables, which run parallel with electric
power or lighting, which is less than 6kVA, shall be installed with a minimum clearance
of 0.6 m (2 ft).
Q. Communications pathways, spaces and metallic cables, which run parallel with electric
power or lighting, which is more than 6kVA, shall be installed with a minimum
clearance of 1 m (3 ft.).
S. The Contractor shall observe the bending radius and pulling strength requirements of
all communication cables during handling and installation.
U. Continuous conduit runs installed by the contractor should not exceed 30.5 m (100 ft.)
or contain more than two (2) 90 degree bends without utilizing appropriately sized pull
boxes.
V. All horizontal pathways shall be designed, installed and grounded to meet applicable
local and national building and electrical codes.
W. The number of horizontal cables placed in a cable support or pathway shall be limited
to a number of cables that shall not distort the geometric shape of the cables. Under
no circumstances shall cables in the horizontal pathway be bundled. This is to minimize
“alien” cross talk.
Y. Horizontal distribution cables shall not be exposed in the work area or other locations
with public access.
A. Conduit installations shall be concealed within the building fabric and/or concealed in
suspended ceiling voids.
B. Conduit/cable tray and trunking installations shall conform to the requirements of the
Specifications. Unless otherwise specified, the minimum size of the conduit installed
shall be 50mm diameter.
C. The Contractor shall ensure that all cable trays, baskets and trunking is made from
galvanized steel. All tray work shall have performed edges.
E. All containment shall be fully supported throughout their entire length and be
mechanically fixed to the building infrastructure. In no circumstances shall the
Contractor use self-adhesive fixings.
F. All changes in direction of containment shall be formed with proper bends conforming
to the cable manufacture specifications.
G. Where conduit is used the Contractor shall ensure that this is made from LSZH
materials in order to limit the fire hazard by limiting the formation of acrid smoke and
toxic gases in the event of a fire.
H. Where containment passes through walls, partitions and risers designated as fire
resistant, the gap shall be filled with an intumescent material after the installation and
inspection of the cables. All intumescent material shall be clearly labelled and shown
on the drawings.
I. The Contractor shall note that all containment routes are indicative. It shall be the
responsibility of the Contractor to verify the containment routes and coordinate these
with the installers of other services.
2.2 CONTAINMENT SYSTEMS
B. Where containment systems are to be installed beneath the false floor the Contractor
shall ensure that the containment is fixed a minimum of 25mm above the fixing
surface.
D. Prior to the installation of any cables within the containment system the Contractor
shall ensure that the entire containment route has been installed and is free from
sharp edges.
A. The Contractor supply & install, complete with all required accessories an overhead
ladder racking system and when required an optical fibre raceway system to support
the Communication infrastructure. The overhead management systems will permit
the distribution of the Communication Cabling Infrastructure.
B. The ladder racks shall have the following specifications as a minimum,
a. Ladder rack shall be manufactured from 3/8” wide by 1-1/2” high tubular steel
with .065” wall thickness.
b. Ladder rack (side stringers) will be 9’-11½” long. Cross members will be welded
in between stringers on 12” centres beginning 5-3/4” from one end so that
there are 10 cross members per ladder rack. There will be 10-1/2” of open
space in between each cross member.
c. Ladder rack will be delivered individually boxed, and available in 6”, 12” & 18”
widths.
e. Cable straps used for attaching cable bundles to the ladder rack cross
members must be reusable with a hook and loop-style closure, at least ¾”
wide, and sized for cable bundles that are 2”, 3” or 4” in diameter.
f. Radius drops used to create a radius to form cables over as the cables exit or
enter the ladder rack will be manufactured from aluminium extrusion. The
extrusion will be formed in a 90° arc with a minimum bend radius of 3”. Radius
drops will attach to either the side stringer or the cross member of the ladder
rack using a clevis pin. Radius drops will include 1-1/2” high cable spools that
attach to the top of the radius drop to guide cables. One radius drop is
required per cabinet.
h. Cable spools used to separate ladder rack into multiple cable pathways will be
made from a black flame retardant ABS. Cable spools will attach to the cross
j. Touch-up paint used on ladder rack and ladder rack system components will
be colour-matched to the finish on the ladder rack or component.
B. The Optical Fibre Raceway system shall have the following specifications as a minimum,
a. The Optical Fibre Raceway system shall be a system of channel, fittings, and
brackets designed to segregate, route, and protect fibre optic cabling with
nominal dimensions of 4” x 4”.
b. Channel and fittings shall be assembled using pre-assembled couplers. A
selection of spill-out options shall be available that easily attach using a
vertical tee or spill over. A spill-out is required for each cabinet within all ICT
Rooms with Telecom , Mobile , Security , Building Network , Esharah service
consolidations , Security Equipment Rooms ,Main Server Room, Main
Telecom, Mobile and Esharah Rooms
c. Fittings shall maintain a minimum 2" bend radius to protect against signal loss
due to excessive cable bends. Available system colour shall be yellow.
d. The optical management system shall be supported from the ladder rack using
adjustable height brackets attached to the ladder racking.
C. Design Load (Allowable Load): Panel supported on actual under structure system shall
be capable of supporting a point load of 1250 lbs applied on a one square inch area at
any location on the panel without experiencing permanent set as defined by CISCA.
The loading method used to determine design (allowable) load shall be in conformance
with CISCA Concentrated Load test method but with panel tested on actual under
structure instead of steel blocks.
D. Safety Factor: Panel supported on actual under structure system shall withstand a
point load of no less than (2) two times its design load rating on a one square inch area
anywhere on the panel without failure when tested in accordance with CISCA A/F,
Section 2, “Ultimate Loading”. Failure is defined as the point at which the system will
no longer accept the load.
E. Ultimate Load: Panel supported on actual under structure system shall be capable of
supporting a point load of at least 2500 lbs applied through a load indenter on a one
square inch area at any location on the panel without failure (i.e. minimum safety
factor of 2) when tested in accordance with CISCA A/F, Section 2, “Ultimate Loading”.
F. Rolling Load: Panel supported on actual under structure system shall be able to
withstand the following rolling loads at any location on the panel without developing
a local and overall surface deformation greater than 1mm (0.040”) when tested in
accordance with CISCA A/F, Section 3, “Rolling Loads”. Note: wheel 1 and wheel 2 tests
shall be performed on two separate panels.
G. Impact Load: Panel and supporting under structure (the system) shall be capable of
supporting an impact load of 68 kg (150 lbs) dropped from a height of 90 cm (36”) onto
a 640mm2 (one square inch) area (using a round or square indenter) at any location
on the panel when tested in accordance with CISCA A/F, Section 8, “Drop Impact Load
Test”.
H. Panel Drop Test: Panel shall be capable of being dropped face up onto to a concrete
slab from a height of 90 cm (36”), after which it shall continue to meet all load
performance requirements as previously defined.
I. Panel Cut-out: Panel with a 200 mm (8”) diameter interior cut-out supported on actual
under structure shall be capable of maintaining its design load strength with a
minimum safety factor of 2 anywhere on the panel without the use of additional
supports.
J. Flammability: System shall meet Class A Flame spread requirements for flame spread
and smoke development. Tests shall be performed in accordance with ASTM-E84-
1998, Standard Test Method for Surface Burning Characteristics for Building Materials.
K. Panels shall consist of a top steel sheet welded to a formed steel bottom pan filled
internally with a lightweight cementitious material. Mechanical or adhesive methods
for attachment of the steel top and bottom sheets are unacceptable.
M. Perforated steel airflow panels designed for static loads of 360 kg (800 lbs.) shall be
interchangeable with standard field panels and shall have adequate open surface area
for air distribution.
PART 3 EXECUTION
A. Tie wraps shall be used at appropriate intervals to secure cable and to provide strain
relief at termination points. These wraps shall not be over tightened to the point of
deforming or crimping the cable sheath.
B. Hook and loop cable managers should be used in the closet where reconfiguration of
cables and terminations may be frequent.
3.2 GROUNDING
A. All grounding / earthing and bonding shall be done to applicable codes and regulations.
B. Contractor shall supply, install, test and commission a complete structured grounding
system within the property. Jumpers with compression terminated dual hole lugs shall
be used to permanently attach all equipment cabinets, cooling units, cable trays, cable
ladders, distribution boards and other metallic objects to the Telecom Grounding Bar
as per the requirements of ANSI-J-STD-607-B. A Telecom Main Grounding Busbar shall
be provided at 600 mm above finished floor height in each Telecom Room and all Main
Equipment Rooms.
C. The ground/earth system must be designed for high reliability. Therefore, the
grounding / earthing system shall meet following criteria:
A. Properly installed firestop systems shall be installed to prevent or retard the spread of
fire, smoke, water, and gases through the building. This requirement applies to openings
designed for telecommunications use that may or may not be penetrated by cables, wires,
or raceways. B. Fire stops shall be done to applicable code.
3.4 WORKMANSHIP
A. All work shall be done in a workman like fashion of the highest standards in the
communication and security industry.
B. All equipment and materials are to be installed in a neat and secure manner, while
cables are to be properly dressed.
C. Workers must clean any debris and trash at the close of each workday.
END OF SECTION
1.1 GENERAL
A. The Work of this Part is integral with the whole of the Project Documentation and is not intended
to be interpreted outside that context.
B. This Part of the Work shall be read and executed in conjunction and coordination with all other
Sections of this Specification and other Services/Trade Contractors.
C. This Part specifies the general requirements for Communication Systems Passive Infrastructure
System installation that will support the different Network systems within the facility.
D. The Contractor shall provide complete communications infrastructure including passive network
infrastructure, active network infrastructure, Wireless Network infrastructure and IP Telephony
infrastructure in accordance with the requirement of the Project.
E. The Contractor shall supply and install all equipment cabinet associated with passive
infrastructure including cable containment, copper cables, and cable terminations (patch panels),
as specified and shown on the Project Drawings. The specification for equipment cabinets is
covered under a separate section within the overall package (Section 27 11 00).
A. Ethernet based Communication System Network Infrastructure for the facility shall be classified
into three different network types to address various communication requirements of all the IP
enabled systems for the facility.
B. Contractor shall arrange a meeting between all associated disciplines and engineer immediately
after award of the contract for a detailed discussion and verification of the building
communication network engineering methods, containment and equipment mounting details,
and provide a framework for communication and co-ordination for the complete building
communication network scope of works for the project.
C. AGB Systems Network (ASN) and Building Service Network (BSN) are on one combined physical
network with multiple local seperations. Security Systems Network (SSN) is a separate physical
network. These are the type of Communication System Networks that has been identified to
address the various communication requirements of all the IP enabled systems.
D. Communication systems for all the three networks utilize two different passive infrastructure
backbone to address the various communication requirements of all the IP enabled systems that
comes under the respective networks. Contractor shall refer the communication system passive
infrastructure schematics pertaining to all the three networks to understand the infrastructure
details , primary and secondary horizontal and backbone l infrastructure , primary and secondary
pathways etc.
E. ASN/BSN and SSN utilizes a fully isolated active infrastructure at the, distribution layer, edge layer
and at the core layer. The three networks communicate through a secured firewall for the
required integration of systems across two networks. Contractor shall refer the communication
system active infrastructure schematics pertaining to all the three networks to understand the
infrastructure details.
F. Passive Infrastructure details reflected in the schematic for the distribution of communication
services are indicative and to translate the design intent .Contractor shall discuss with respective
service providers and client IT team to understand the service requirements and provide the
infrastructure accordingly. Any cost savings as a result of optimization shall be transferred back
to the client. .
G. Active Infrastructure details reflected in the schematic for the distribution of communication
services are high level concept to translate the design intent. It is very important that contractor
shall discuss with client IT team to understand the service requirements and provide the low level
integration schematics, details and associated calculations for client review. All Active design shall
be subjected to the approval from Premier Inn IT Team.
H. ASN/BSN and SSN horizontal consolidations will have edge switches strategically distributed and
primarily located in the Telecom rooms and the core and distribution switches for the respective
networks shall be located in server room at podium level as detailed in the schematics and
layouts.
I. BSN will be a converged network intended for all systems including but not limited to all Wired
and Wireless Data Network application for the tenant floors, Wired and Wireless Data Network
application for the Building BOH supporting staffs and Facility Management Team, IP Telephony
System for the tenant floors, Building BOH supporting staffs and Facility Management Team. The
system integration if required shall be achieved through a secured firewall. It is very important
that contractor shall discuss with Premier Inn IT Team to conclude the services that falls under
BSN network based on operational requirement.
J. ASN will be a converged network intended for all systems including but not limited to all Wired
and Wireless Data Network application for the AGB Network, all Building Management Systems,
IP master Clock System, lighting control system, PA/BGM, Fire alarm system, hotel management
system, point of sales, HSIA wireless network, Digital Signage systems etc .The system integration
if required shall be achieved through a secured firewall. It is very important that contractor shall
discuss with Premier Inn IT Team to conclude the services that falls under ASN network based on
operational requirement.
K. Security Systems Network (SSN) for the facility is a fully isolated passive and active infrastructure.
The system integration across networks is achieved through a secured firewall. The system
integration if required shall be achieved through a secured firewall. It is very important that
contractor shall discuss with Premier Inn IT Team to conclude the services that falls under SSN
network based on operational requirement.
L. All horizontal cabling and cable terminations for ASN/BSN and SSN shall be based on Cat6A
standards unless otherwise specified by the Premier Inn IT Team.
M. All backbone cabling and cable terminations for ASN/BSN and SSN shall be based on Single mode
0S2 unless otherwise specified by the Premier Inn IT Team.
N. Location, quantity and height of network outlets shown are indicative. Final quantity of the
primary and secondary network outlets, floor box locations etc shall be subject to the approval
from Premier Inn IT Team.
O. Communication cabling contractor shall coordinate with respective stake holders on site and
positon the network outlets accordingly in terms of location, mounting height, and quantity.
P. Finishes of all network interface plates are subject to Architect and Interior Designer approval.
Contractor to submit samples of all exposed face plates for approval prior to procurement.
Q. Contractor is responsible for completing installation with all works completed to acceptable
working order and absolute satisfaction of the engineer and client. If any item is found to be short
supplied or not in acceptable working order, the contractor shall be liable to make good the same
to the satisfaction of the engineer and client without any additional cost
R. Any apparatus, appliance, material or work not shown in the drawings but mentioned in the
specification or vice versa, any incidental accessories or work necessary to make the work
complete in all respects and ready for operation, even if not particularly specified; shall be done
so by the contractor without any additional costs.
S. Contractor shall coordinate with all other disciplines for the internal and external pathways, slab
openings, service entry points, power requirements, ventilation requirements, local authority
requirements and all other associated coordination required for the successful installation and
completion of the project.
T. The locations of equipment shown are indicative. The exact location must be coordinated and
verified by the contractor with other disciplines during construction. The same shall be reflected
on the coordinated and updated detailed shop drawing and shall be submitted to the engineer
for approval.
PART 2 PRODUCTS
d. Terminates with an ergonomic and easy to use Z-tool to ensure fast and
simple terminations.
i. Allow installation from the front or rear of the faceplate, and allow for the
jack to pass through the faceplate without re-termination
B. Face Plates
1. All faceplates installed, as part of this specification shall have these minimum features
listed below, however it is very important to note that finishes of all interface
plates shall be subject to the interior designers /architects approval.
C. Patch Cords
1. All 10g Cat 6A patch cords which shall conform to the following minimum
performance standards:
a. Be Category 6A component compliant with operational bandwidth to
500MHz
e. Utilize patented metallic isolator shields pairs inside plug for optimum NEXT
performance and a 360 degree crimp for providing excellent plug-to-cable
strain relief without causing pair deformation
g. Use bend relief compliant boots (with optional color-coded icons) to ensure
proper
Category 6A performance and feature a latch guard to protect against snagging
h. Use modular plugs, which exceed FCC CFR 47 part 68 subpart F and IEC
60603-7 specifications, and have 50 micro-inches minimum of gold plating
over nickel contacts
i. Be resistant to corrosion from humidity, extreme temperatures, and
airborne contaminants
k. Be available in Black, White, Red, Gray, Yellow, Blue, Green and Orange
a. Cables shall have a sheath made from a Low Smoke Zero Halogen (LSZH)
material and construction comprised of 4-pairs of (23AWG) solid bare
copper conductors utilizing a centre isolation member to maintain pair
geometry for optimal NEXT performance.
b. Have a rip cord installed under the jacket for jacket removal
g. The cable and Patch cords shall be available in Plenum, Non-Plenum and
LowSmoke, Zero Halogen (LSZH) and Outside Plant compatibility.
h. The LSZH version must comply with the following Fire Safety standards:
1. Single mode OS2 optical fibre cables LSOH-1 shall be utilized for backbone
applications.
b. The OS2 optical fibre glass shall be manufactured from ultra-pure synthetic
silica glass. Single mode fibres manufactured from natural quartz will not
be accepted.
c. Shall contain a Rip Cord applied longitudinally under the cable jacket for
easy cable jacket removal
d. Shall contain a lightweight Central Strength member located in the middle
of the fibre bundles.
2. The multimode fibre shall meet a minimum of one of the DMD templates listed
within this document, accounting for the wider inner and outer mask
specifications when compared with TIA 492AAAc and IEC 60793-2-10 standards.
Published documentation on this and Third party verification of the DMD test
results and testing methodology must be provided with the bid response.
a. Shall contain a Rip Cord applied longitudinally under the cable jacket for
easy cable jacket removal.
a. Adequate quantity of multipair backbone cabling shall be provided for supporting the
analogue telephones in the guestrooms on each floor.
I. Fibre Optic Patch Panels
1. The fibre optic patch panels shall permit or shall be capable of an upgrade to an
intelligent panel. The process of the upgrading shall not disrupt the existing live
network or require the re-termination of cables or the re-patching of installed fibre
patch cords.
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3. The Intelligent or Intelligent Ready fibre optic patch panels shall be compatible with
any standards compliant LC patch cord, and shall detect the insertion/removal of
any standards compliant plugs into a port.
8. Fiber optic interface shall be subject to the approval from Client IT team.
b. Utilize 50/125µm duplex multimode fibre cable that is OFNR riser grade and
meets the requirements of NEC/NFPA 70 Section 770-51(B)
e. Use cable and connectors that are complaint with colour coding
specifications as listed in ANSI/TIA-568-C.3 and ANSI/TIA-598-C
b. Utilize duplex single mode fibre cable that is OFNR riser grade and meets
the requirements of NEC/NFPA 70 Section 770-51(B)
d. Use cable and connectors that are complaint with colour coding
specifications as listed in ANSI/TIA-568-C.3 and ANSI/TIA-598-C
3. LC Duplex Adaptors
c. Include Red, Blue, Black and Clear coloured icons for port identification
L. Reference Standards
1. The following standards and documents of other organizations are referred to in this Part,
and shall be complied with or exceeded:
a. ANSI/TIA-568-C.0-1-2010 and addenda ”Generic Telecommunications cabling for
Customer
Premises”
j. IEC/TR 61000-5-2 - Ed. 1.0 and amendments “Electromagnetic compatibility (EMC) - Part
5:
Installation and mitigation guidelines - Section 2: Earthing and cabling”
n. All applicable requirements of the laws, codes, ordinances and regulations of the
authorities having jurisdiction
M. Submittals
2. The Contractor shall detail equipment assemblies and indicate dimensions, weights, required
clearances, method of field assembly, components, and location of each field connection
including but not limited to:
3. The Contractor shall submit the manufacturer’s product data for the following and including
but not limited to:
e. Interface plates
f. Cat6 A RJ-45 Interface Modules
4. Product data submittal by the Contractor shall include the following as minimum:
b. Name and address of the manufacturer and country of origin of the product;
f. System architecture.
N. Specialist Contractor
1. In order to preserve the integrity of the design there shall only be a single specialist contractor
for the implementation of complete scope of works, no section or division of the
Communication Cabling Infrastructure package shall be split among different Contractors
2. The Specialist Contractor shall hold the prime responsibility of coordinating the complete
installation including obtaining necessary inputs from other discipline installers to ensure the
entire installation performs as required and achieve the design intent in its totality.
O. Administration and Documentation
1. Labelling
a. Horizontal and backbone cables shall be labelled at each end. The cable or its label shall
be marked with its identifier.
e. Each port on the connecting hardware shall be labelled with its identifier.
2. Drawings
a. As-built drawings shall be supplied by the contractor showing the locations of and
identifiers for all:
i. Horizontal cable routing and
outlets/connectors
b. All records shall be created by the installation contractor and turned over at the taking
over of work
c. The format shall be computer based and both soft copies and hard copies shall be part of
the asbuilt package. The minimum requirements include:
i. Cable records must contain the identifier, cable type, termination positions at
both ends, splice information as well as any damaged pairs/conductors.
ii. Connecting hardware and connecting hardware position records must contain
the identifier, type, damaged position numbers, and references to the cable
identifier attached to it.
iii. Test documentation on all cable types shall be included as part of the As-built
package.
d. All reports shall be generated from the computer-based program used to create the
records above.
These reports shall include but not limited to
e. All Operation and Maintenance manual for the complete system shall be submitted along
with all necessary and associated certifications
P. Warranty
4. Either a permanent link or channel model configuration may be applied to the horizontal
and/or backbone sub-systems of the complete passive infrastructure system. Applications
assurance is only applied to a channel model configuration. All channels are to be qualified
for linear transmission performance up to 500 MHz to ensure that high-frequency voltage
phase and magnitude contributions do not prove cumulative or adversely affect channel
performance.
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5. System Warranty
a. A five (5) year warranty available for the 500 MHz category 6A structured cabling system
shall be provided for an end-to-end channel model installation which covers
applications assurance, cable, connecting hardware and the labour cost for the repair or
replacement thereof.
6. Product Warranty
PART 3 EXECUTION
B. It is also a requirement that any additional testing required to apply for the manufactures
warranty is also completed.
D. Any components that fail the testing procedures shall be corrected and retested. The
Contractor shall supply all test results including any failed tests for review by the Engineer.
E. Test Results shall be provided in both hard and soft copy. If any specific software is
required to view the test results, a licensed copy of this shall be provided to the client.
F. All balanced twisted-pair field testers shall be factory calibrated each calendar year by the
field test equipment manufacturer as stipulated by the manuals provided with the field
test unit. The calibration certificate shall be provided for review prior to the start of
testing.
G. Auto test settings provided in the field tester for testing the installed cabling shall be set
to the default parameters
H. Test settings selected from options provided in the field testers shall be compatible with
the installed cable under test.
I. Any link not meeting the requirements of the standard shall be brought into compliance
by the CONTRACTOR, at no charge to the client.
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J. Copper Testing
1. All 500 MHz category 6A field-testing shall be performed with an approved level
111e balanced twisted-pair field test device.
4. All installed 500 MHz category 6A channels shall perform equal to or better than
the minimum requirements as required by the relevant standards.
K. Fibre Testing
1. Fibre horizontal cables shall be 100% tested for insertion loss and length.
2. Insertion loss shall be tested at 850 nm and 1300 nm for 50/125µm and
62.5/125µm multimode cabling in at least one direction using the Method B (1-
jumper) test procedure as specified in ANSI/TIA/EIA-526-14A.
3. Insertion loss shall be tested at 1310 and 1550 for Single mode cabling in at least
one direction using the Method A.1 (1-jumper) test procedure as specified in
ANSI/TIA/EIA526-7.
4. Length shall be recorded using an OTDR, optical length test measurement device
or sequential cable measurement markings.
a. All fibre testing shall be performed on all fibres in the completed end to end system.
b. Testing shall consist of a bi-directional end to end OTDR trace performed per
TIA/EIA455-61 or a bi-directional end to end power meter test performed per
TIA/EIA455-53A.
c. The system loss measurements shall be provided at 850 and 1310 nanometres for
multimode fibres and 1310 and 1550 nanometres for single mode fibres.
a. (Allowable cable loss per km) (km of fibre in link) + (0.4dB) (number of connectors) =
maximum allowable loss.
7. A mated connector to connector interface is defined as a single connector for
the purpose of this RFP.
8. Loss numbers for the installed link shall be calculated by taking the sum of the
bidirectional measurements and dividing that sum by two.
3.2 TRAINING
A. Training of personnel designated by the client shall be carried out to enable to take over,
operation and maintenance of the data network. The Contractor shall submit the training
agenda and provide a training manual.
B. The Contractor shall submit a detailed training program which shall include theoretical
and practical training for personnel to be deputed by the Employer, at the end of the
guarantee period, in addition to the Client’s personnel participation in the installation and
testing stages, and maintenance during the guarantee period of three years.
END OF SECTION
PART 1 INTRODUCTION
1.1 GENERAL
A. This document sets forth the specification for Equipment Cabinet and Environment
Monitoring system for Communication System Infrastructure only within the ICT rooms
(IDFs), server room, Security Equipment Room, Security Control Room, Main Telecom
Room and Main GSM Room for the hotel.
PART 2 PRODUCTS
A. The cabinets shall have vented front and rear doors, hinged opening with lift-off
capability, quick release opening and a lock and key. It shall be available with fully
perforated front and rear doors allowing 78% air flow to maximize thermal efficiency.
B. The consideration of racks and thermal loading shall consider future expansion and
changes.
C. For all free-standing racks front doors shall be perforated single door and rear door shall
be perforated double doors.
D. Blanking panels shall be installed in all unused rack and cabinet spaces to maximize and
improve the functionality of the controlled air system. Vented panels shall be added to
the front cabinet rails thereby preventing the recirculation of hot air to the equipment
inlet.
E. Doors shall be reversible to open from the right or left and interchangeable front or rear
and feature a swing handle with keyed lock
F. Free standing equipment cabinet in the distribution rooms shall have top panel of one-
piece solid panel with four large brush grommets over cable openings, one per corner,
front doors of these cabinets shall open to 120° when bayed, 145° when not bayed, rear
doors of these cabinets shall open to 180°.
G. All Equipment cabinet shall have Vertical Exhaust Duct which includes the duct and a front
panel with two cable openings and large brush grommets, one per corner. The vertical
exhaust duct shall feature a brush sealed opening for the passage of power cables, front
doors of these cabinets shall open to 120° when bayed, 145° when not bayed, rear doors
of these cabinets shall open to 180°.
H. Inlet air filters shall be used to extend the service life of digital equipment; most
processing equipment have their power supply fans in the rear, without any filtered front
air intake.
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I. All Equipment cabinets shall have removable side panels: that shall be lift-off, quick
release key and of a lockable type.
J. The cabinets shall be constructed of a rigid aluminium frame with removable steel side
panels and doors. The equipment mounting channels shall accept 19 inch rack mountable
equipment. All cabinets shall have fully adjustable rails. Side panels shall have cable brush
port openings to allow rack to rack patching
K. Cable entry shall be provided such that there is the possibility of providing cable access
from the bottom or top of the equipment cabinet.
L. Management of cables inside the cabinet shall be given particular care. AC power cables
or speaker cables shall not be run parallel within close proximity to signal wires (within
2”), unless the wires are twisted. Speaker wires can act as AC cables in high-power
situations, so the same care shall be taken in keeping signal wires away from close parallel
runs. However, speaker and AC wires can be run in closer proximity. Bend radius for
twisted-pair cables is standardized at 12” (3” diameter). This shall be taken into
consideration during the internal wiring layout of a rack.
M. Vertical cable containment shall be provided on both sides of the cabinets such that there
is no impediment to the location of equipment and ensure patching can be easily and
tidily managed. Cabinet shall accept a variety of Zero-U vertical cable management and
patching products
N. Vertical cable management shall be provided to aid in the tidy installation of patch cables.
These shall be installed to the left and right-hand sides at both the front and rear of the
cabinet. Velcro shall be provided to manage the infrastructure.
O. Tie wraps shall not be used in any circumstances throughout the infrastructure
installation.
P. Rise bases shall be used mandatorily in event of cables routed from the bottom of the
equipment cabinet for equipment rooms without raised floors.
Q. Cables shall be dressed throughout an enclosure using cable ties or hook-and-loop straps.
R. All cabinets shall be fitted with horizontal or vertical ground strips which in turn shall be
connected to the Main Earth Terminal (MET) within the room. The doors, side panels and
Power Distribution Units shall all be individually connected to the cabinet earth bar.
S. Where cabinets are mounted on a solid floor, the cabinets shall be fixed to a plinth which
raises the cabinets by a minimum of 100mm. The plinth shall be fixed to the fabric of the
building in a suitable manner e.g. inside the plinth by the use of the manufacturer’s
proprietary attachments or other suitable means.
T. The cabinet shall have a top lid that offers multiple cable entry points as well as features
for the installation of a ventilation fan, blank panels and cable entry brush guards.
U. Where cabinets are installed on raised floors the Contractor shall utilize a plinth of an
appropriate height for the false floor. This plinth shall be stabilized by fixing to the fabric
of the building.
V. Contractor shall ensure proper planning of the cooling air path for the cabinets so that no
“hotspots” occur, and that the waste heat is effectively removed.
W. The cabinets shall be equipped with casters. The casters shall be capable to withstand the
maximum loading capacity of the racks.
X. The size of the cabinets for the telecommunication and mobile services shall be subject
to the local guidelines. However, Contractor shall ensure that all cabinets are from the
same manufacturer and all the specifications as mentioned in this section are complied.
Y. Contractor shall refer the contract drawings to identify the rack sizes allotted for
communication systems.
Z. The Contractor shall produce the rack elevations for all individual racks for the entire
project.
A. All Communication and Security System equipment cabinets shall be equipped with
Intelligent power distribution units (IP-MPDU)
B. All intelligent Power Distribution units shall provide control, switching and measuring of
individual power outlets, input current monitoring, and determine safe levels of loading
on a per-phase basis.
C. The IP-MPDU shall provide accurate measurement of current, voltage, active power,
apparent power, power factor, crest factor, and accumulated energy at the input and at
each output.
D. The IP-MPDU shall have built in sensor pods for temperature, humidity, pressure and
leakage measurements
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E. The IP-MPDU shall be accessible through Building Communication Network and shall be
completely configured and managed through the central power and environment
management system software
F. The IP-MPDU shall have a communication 10/100 Mbps Ethernet RJ-45 connector, RS-232
serial (RJ-45 connector) Web-browser GUI and command-line interface (CLI): Http/Https,
Tlsv1, Sshv2, Telnet, Snmpv2c and V3 (Get, Set, Traps), Ipv4 and Ipv6, Ldapv3/Ldaps,
Tacacs+, Radius, Ftp/S.
G. Contractor shall size the intelligent power distribution units based on the final equipment
Bill of quantity and load schedule. Equipment bill of quantity shall include, but not limited
to, all communication, security, audio visual and control field and management
equipment for the entire project.
H. Contractor shall produce the final IPDU schedule for the entire project comprising of all
systems for Engineer’s review and approval. Contractor shall ensure procurement is
initiated only upon the approval of the schedule.
2.3 ENVIRONMENT MONITORING SYSTEM
A. Environment Monitoring System (EMS) shall be provided for all ICT rooms (IDFs) with
service consolidations, server room, Security Equipment Room, Security Control Room,
Main Telecom Room.
B. The EMS shall monitor analogue and dry contact outputs from devices such as
temperature sensors, humidity sensors, gas detectors, smoke detectors, fire suppression
systems, surveillance products (IP cameras), leak detection systems, power monitoring
systems, uninterruptible power supplies (UPS), power distribution units (PDU), HVAC
units and access keypads.
C. The EMS shall analyse the feedback from input devices according to user instructions and
take actions based on the outputs. Actions shall include: digital relay outputs; SNMP traps;
email, pager or cell phone notification via SMTP/SMS; web pages; and front panel LED
notification.
D. Each EMS input shall have associated with it 2 high alarm levels and 2 low alarm levels.
The alarm levels shall be user configurable. The actions taken when an alarm level is
reached or exceeded shall also be user configurable, and shall include a combination of
the following: illuminating a front panel LED; energizing or de-energising a relay output,
SMTP/SMS (email, cell phone or pager), SNMP traps, Modbus, or BACnet.
2. Probes shall also be placed around critical devices, because the temperature
inside a rack-mounted device could be as much as 20 degrees higher than the
surrounding area.
4. Airflow sensors: This is required to ensure air is flowing through the racks in
addition to monitoring A/C vent intake and outtakes.
5. Moisture and humidity sensors shall monitor for leaks inside cooling equipment,
potential leaks that come from nearby pipes, or water caused by a flood or
disaster. Water sensors shall be placed at the lowest point (wherever water
would tend to puddle) on the floor, and underneath any pipe junctions. Air-
conditioning condensation trays shall also be equipped with sensors to detect
overflow.
8. Power Consumption & Switching: Determine how much power a specific device
or power strip is consuming to help keep an eye on overall energy usage and
prevent overloading of power circuit breakers. Turn outlets on or off on alarm
or manually through the web-based GUI or central management software.
10. The software shall allow for complete switching and metering of all power
distributions and provide different levels of versatile reports based on
operational requirements.
11. The software shall allow seamless integration with Integrated Security and
Building management systems.
END OF SECTION
PART 1 GENERAL
1.1 GENERAL
A. This section describes the basic requirements for the supply, installation, testing and
commissioning of fully operational Audio Visual System for the hotel.
C. Contractor shall coordinate all items with Engineer to ensure that all items are furnished
in accordance with Owner standards.
D. The Work of this Part is integral with the whole of the Project Documentation and is not
intended to be interpreted outside that context.
F. All Audio Visual processing equipment shall be from the same manufacturer.
G. Before proceeding with the procurement; system Contractor shall coordinate with the
Client and have the approvals on the control points, coordinate with the Architect/ID
Designer for the finishes of all the field interfaces and control points.
H. This Part of the Work shall be read and executed in conjunction and coordination with all
other Sections of this Specification and other Services/Trade Contractors.
1.2 REFERENCES
I. ITU-R BT.601
J. SMPTE 292M
K. CEA-770.3-C
L. RS-170A
M. INFOCOMM
N. Comply with all rules and regulations of IEE, CE, IEC, BS, and PAEW and all local Municipal
and Statutory Authorities having jurisdiction.
1.3 SCOPE OF WORKS
A. The written specification, Audio Visual System Drawings, System details and Schematics
drawings shall be collectively referred to herein as the reference documents.
B. Contractor shall provide, based on the Contract Documents, a complete, turnkey system,
tested and ready for acceptance testing. The Contract documents are developed to the
extent required to properly convey design intent, signal flow, and system infrastructure.
It shall be Contractor’s responsibility to supply additional equipment, as required, in order
to provide a complete and working system.
C. In case of conflict between the written specifications and the drawings, Contractor must
seek clarification from the Engineer. In the event that the Contractor fails to obtain such
clarification, the interpretation of the Engineer shall prevail.
D. Contractor shall obtain all licenses and permits necessary for the execution of any work
pertaining to the installation within this scope of work.
E. The Contractor shall be responsible for checking the position, location, installation
requirements, and accessories etc., on site and with manufacturers.
F. Location of AV field equipment shown are indicative as represented in the layouts, details
and schematic drawings.
G. Finishes of all exposed Audio Visual media interfaces, equipment and its final locations
shall be subject to the confirmation from architect and interior designer.
H. Details and elevations reflected in the tender drawings are indicative. Contractor shall
produce comprehensive details and elevations of all Audio Visual equipment including,
but not limited to, the media interfaces, media floor boxes, input transmitters, output
receivers, interface plates, video walls, Video displays, Video conference cameras , Audio
speakers, Control touch panels, event recording cameras etc.
I. Before proceeding with the procurement; system Contractor shall coordinate with the
Client and have the approvals on the final shop drawings to be coordinate with the
Architect/ID Designer for the finishes of all the field interfaces and control points.
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1.4 SUBMITTALS
A. Submit the necessary complete sets of documentation indicating type, size, rating, style,
catalogue number, manufacturers’ names, photos and catalogue data sheets for all items
to ensure compliance with specifications.
B. This documentation shall be subject to the approval of the Engineer and no equipment
and interfaces which are shown on drawings, schematics and specifications be procured
without necessary approvals,
2. Final Bill of materials substantiating the design with part number, make and
country of origin of all components;
A. Submit point-to-point wiring diagrams and typed wire lists identifying every connection
for information. Indicate locations of all components. Identify cables by types, colours,
and wire numbers.
B. Submit system plans showing all device locations, elevations and details.
C. Submit conduit riser diagrams showing connection of all devices, required conduit sizes
along with types and quantities of cables to be used and cable identification tags.
E. Submit fully dimensioned construction details of all panels, plates and other custom
fabricated items or modifications
F. Submit mounting and support details for distributed display devices, and all other items
mounted overhead complete with parts lists and dimensions.
G. Include a full plan view, front elevation, and side elevation of each item with
corresponding support structure and mounting hardware.
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I. Submit electronic copies of any custom programming including source codes. Include
printed copies of all control screens, wiring pages, etc.
1.6 SAMPLES
A. Submit label samples to indicate product, characteristics, and locations in the Work.
B. Samples shall be reviewed for colour and appearance and workmanship. Compliance with
all other requirements is the exclusive responsibility of the Contractor. C. Furnish samples
of the following:
1. All exposed interface plates and panels for approval of colour, engraving, text
size and material.
2. All media interface panels, motorized monitors, and motorized microphones for
the meeting tables.
3. All exposed Audio Visual equipment such as ceiling speakers, Media interface
plates, Touch panels, keypads etc.
B. Contractor shall comply with applicable requirements of the laws, codes, ordinances and
regulations of the authorities having jurisdiction; and also obtain necessary approvals
from all such authorities.
C. Contractor shall maintain a full set of Shop Drawings at the Project site marked up to
indicate actual locations, signal drop calculations and, in general, the true state of the
installation.
D. Furnish one initial set of shop drawings along with the results of all source quality control
tests and field quality control tests to the Engineer for use during acceptance testing and
equalization.
F. Submit shop drawings on all items. Show details of manufacture and installation details
including connections with and relation to adjoining materials. Include roughing-in
dimensions and characteristics of all mechanical and electrical services that are required.
G. Take field measurements where possible to assure proper fitting of the work.
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I. Provide first class materials and assemblies in every respect and equal to or better grade
or quality specified.
J. Manufacture of complete units and assemblies shall reflect the highest type of
craftsmanship and supervision and shall be done with precision type tools and equipment
to produce items reflecting first class manufacturing methods.
K. Skilled craftsmen and mechanics especially trained for type of work required shall perform
installation in a careful and accurate manner.
L. Installer must examine substrate and conditions under which the equipment is to be
installed. Do not proceed with the work until unsatisfactory conditions have been
corrected.
M. Provide all rods, plates, hangers, bars, nuts, screws, anchors, brackets, rivets, welds, lugs
and like accessories and fastenings of every kind or nature as may be required to complete
work of this section in each and every detail and in join work of others.
N. Exposed parts shall be of the same metal and finish as that metal to which it is applied,
expect and unless noted otherwise. Do all bracing, blocking, cutting, fitting, drilling,
tapping etc. to complete the work of this section and to join work of others.
O. Provide templates and patterns with necessary accessories and duplicates to other trades
when required for proper coordination.
A. The main principle driving the Audio Visual and control systems for the Project is to
provide high quality, latest technology, and simple to manage systems with minimal
support from the technical staff.
B. All sources, Displays, signal extenders and control equipment for the entire project shall
be utilizing the latest industry standards at the time of procurement.
C. All Audio-Visual equipment for the associated rooms and areas shall be controlled from a
control system located in respective IDF room for each floor utilizing password protected
Wireless Control Panel.
D. All the Audio-visual system for the Project shall be connected to the Building
communication Network.
E. Details and elevations reflected in the drawings are indicative. Contractor shall produce
comprehensive details and elevations of all Audio Visual equipment including, but not
limited to, the media interfaces, media floor boxes, input transmitters, output receivers,
interface plates, video walls, displays and any other component as appropriate.
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F. Details and product specifications included in this section of this document is generic and
it is the responsibility of the Contractor to carry out vendor specific detailed engineering
of the systems based on specific products proposed for inclusion in each system.
G. Contractor shall submit detailed design and engineering calculations to substantiate the
equipment selected, this shall be to the satisfaction of Engineer.
H. The selection of complete Audio Visual and Control equipment for the project shall be to
the latest technology and models available in the market at the time of tender.
I. Contractor shall coordinate with fire alarm Contractor for required zone interfaces in
order to display pre-programmed emergency message on all the displays.
J. Contractor shall arrange for a meeting with all relevant disciplines to discuss mounting of
all Audio Visual equipment in the conference table, pathways for the cables, and
ventilation and cooling for all equipment within the conference table. Finishes and
locations of all Audio Visual interface equipment shall be coordinated with architect and
interior designer.
K. Any apparatus, appliance, material or work not shown in the drawings but mentioned in
the specification or vice versa, any incidental accessories or work necessary to make the
work complete in all respects and ready for operation, even if not particularly specified;
shall be done so by the Contractor without any additional costs.
L. Contractor shall have approval for the all products and accessories before proceeding for
procurement. If any product or accessory are found to be installed without necessary
approval then engineer reserves the right to the get the equipment replaced to his
satisfaction without any additional cost to the Client.
M. Contractor shall comply with applicable requirements of the laws, codes, ordinances and
regulations of authorities having jurisdiction; and also obtain necessary approvals from all
such authorities.
N. Contractor shall study the layouts, schematics, details, and specifications to understand
the design intent completely. Contractor shall consider his offer for the complete design
and all other associated works in fully compliance with local authority guidelines and
regulations. No variations shall be accepted at any stage of the project for noncompliance
and omissions.
PART 2 PRODUCTS
A. Contractor shall ensure sufficient interface provisions are available in the media interface
as required by the Client.
B. Media interface and associated connectivity panels shall be from a premium brand and
the finishes shall be subject to the Interior Designers approval.
C. The Media panels shall be equipped with a minimum but not limited to the following
interfaces (USB, Bluetooth, and HDMI).
D. It shall capable of USB fast-charging for any phone or tablet, Bluetooth and HDMI.
A. The selection of complete video walls displays for the project shall be to the latest
technology and models available in the market at the time of procurement.
B. As a minimum video wall displays used for the Project shall have the following
specifications ,
1. Video wall displays shall be utilizing the thinnest bezel LED in the industry
(current at the time of procurement) for 24x7 operation with minimum
installation depth. Video wall system shall be front serviceable.
2. The video walls shall have a extremely high fill-factor and advanced monitoring
capabilities with and Native HD and UHD resolutions
3. Video wall displays shall supports a wide range of processing options to display
that allows sources to be scaled across the entire video wall or any section of
the video wall.
4. The Input ratings for the LED Display shall be 100-240 V~, 50/60Hz, 2.4A, 240
watts.
5. Entire video wall shall be capable to be controlled with a single remote control
and the video wall shall have the required interfaces in order to integrate with
Audio Visual control systems.
6. The Video Wall Displays shall include mounting system that features built-in
precise alignment capabilities and in-wall service position
8. Contractor shall consider all associated accessories for the full operation of the
video wall.
9. The LED video wall must be made up of 1.5mm pixel pitches with a single display
module size and architecture easily divisible into 16:9 walls.
10. LED video wall shall include slim LED modules with an integrated mounting
system and distributed video connections and redundant power supplies.
11. The LED video wall shall meet the safety standards like IEC 60950-1, CAN/CSA
C22.2 No. 60950-1, ANSI/UL 60950-1, EN 60950-1, IEC 62471-1.
12. The install depth of the Video Wall shall be compliant with Slim, ADA (Americans
with Disabilities Act ) compliant design
13. LED video wall shall be fully installed and aligned from the front with no rear
access.
14. All replaceable video wall components shall be accessible and replaceable from
both front and rear access.
15. Contractor shall produce the power consumption and heat dissipation details of
video wall and coordinate for all requirements on site.
A. General purpose LED displays shall be provided in areas designated in the drawings
C. The display dimensions are based on the location as per the drawings.
A. High quality public address, background and foreground music shall be provided from for
the Hotel.
B. All backend equipment including the central sources shall be placed in the AV rack located
in Data Centre.
D. Music system shall be interfaced with PA/VA and security system in order to override and
turn off the music system in event of an alarm or emergency based on the policies
assigned.
E. The system shall automatically override the all the running sources during call for prayer
irrespective of the music zones. The system shall be interfaced with Audio visual controller
in order to enable automated controls.
1. The DSP system shall provide appropriate balanced mic/line inputs and balanced
mic/line outputs on plug-in barrier-strip connectors based on the requirements.
Inputs and outputs shall be analogue, with internal 24-bit A/D & D/A converters
operating at a sample rate of 48 kHz. All internal processing shall be digital (DSP).
Connections shall allow sharing of digital audio within multi-unit systems.
Software shall be provided for creating/connecting DSP system components
within each hardware unit.
5. The networked audio input expansion device shall be rack mountable and
provide audio and control via Cobra Net.® It shall receive Power over Ethernet
(Poe) utilizing a single (CAT6) network cable to a rear panel RJ45 connector. The
audio input device shall provide four sets of dual RCA connectors plus removable
terminal block connectors for line-level inputs, two microphone/line inputs with
phantom power, six Cobra Net outputs, four control inputs, and four control
outputs. The input device shall provide local digital audio signal processing and
local storage of configuration data. The input device shall indicate signal and clip
with LEDs on the front panel.
6. Cobra net or other multi-channel digital buss option via UTP cable, Minimum of
six (6) analog audio inputs.
1. All power amplifiers for the BGM System shall be digital networked multi-
channel amplifiers .It shall be CobraNet® enabled and can support up to multiple
Cobra net amplifier based on the output requirements. These amplifier cards
shall be four channels with 300W per channel and 8 Channels with 150W per
channel. 70V, 100V and low-impedance outputs shall be available.
4. Intuitive software shall provide audio system design via PC. Two RJ-45
connectors on the rear panel of the system shall be provided for redundant
connectivity to control data and audio over a single Ethernet cable.
I. CEILING AUDIO SPEAKERS (TYPE 1)
2. The loudspeaker shall have a nominal rated impedance of 8 ohms and shall be
wired in parallel with a line voltage matching (step-down) transformer with a
selector switch appropriate for various output taps. The loudspeaker input
connections shall allow for direct connection to 70 volt, 100 volt or low-
impedance amplifiers.
5. The locations of speakers shown in the contract drawings are indicative and to
translate the design intent, contractor shall carryout a comprehensive analysis
and
produce the final distribution along with necessary engineering calculations for
Engineers review and approval.
6. Contractor shall produce the physical sample of ceiling speakers for Engineers
review and approval.
J. HORN SPEAKERS (TYPE 2) FOR PARKING AREA
2. The Horn Speaker shall have a nominal rated impedance of 8 ohms and shall be
tapped in 70 V at 15W, 7.5W, 3.8W, 1.9W. 0.9W and 100V at 15W, 7.5W, 3.8W,
1.
3. The Horn Material shall be ABS and it is highly weather-resistant, with stainless
steel bracket and hardware.
4. Each loudspeaker shall have a Frequency response of 400 Hz – 7.5 kHz and a
maximum continuous acoustic output of 117 dB SPL, referenced to a full
bandwidth pink noise input at 1 meter at the loudspeaker’s rated power. The
input connection shall consist of a three-terminal barrier strip. The loudspeaker
shall meet numerous standards for combination music and evacuation systems
around the world.
5. The Paging Horn Speaker shall meet the Standards like IP-65 rating per IEC529,
UL Registered per UL1876.
6. The locations of speakers shown in the contract drawings are indicative and to
translate the design intent, contractor shall carryout a comprehensive analysis
and produce the final distribution along with necessary engineering calculations
for Engineers review and approval.
7. Contractor shall produce the physical sample of ceiling speakers for Engineers
review and approval.
PART 3 EXECUTION
A. The Contractor shall submit the Testing and Commissioning (T&C) procedures together
with the T&C progress chart for approval. The submission shall be made at least two
weeks before the commencement of T&C.
B. Where tests are required to be witnessed by the Engineer, the Contractor shall give due
advance notice (usually not less than three days) and provide details of date, time and
type of tests to be performed.
C. Upon completion of such T&C procedure, the Contractor shall complete and sign a testing
and commissioning certificate in known format, to the effect that agreed T&C procedures
have been duly carried out.
D. Before carrying out any test, the Contractor shall ensure that the installations comply with
the statutory requirements and regulations.
E. The Contractor shall prepare checklist and T&C procedures to meet the requirements of
the particular network Installation.
F. The Contractor shall provide all the necessary staff, labour, materials and equipment for
a thorough test and examination of the installation.
3.2 TRAINING
A. Training of personnel designated by the Engineer shall be carried out to enable to take
over, operation and maintenance of the Audio Visual system.
B. The Contractor shall submit the training agenda, training manual. Separate training shall
be provided for maintenance team, and operator’s team.
C. The Contractor shall submit a detailed training program which shall include theoretical
and practical training for personnel to be deputed by the Employer, at the end of the
guarantee period, in addition to the Employer’s personnel participation in the installation
and testing stages as specified earlier, and maintenance during the guarantee period of
three years.
END OF SECTION
1.1 GENERAL
A. The Contractor shall supply, install, test and commission all active equipment in this
section which shall include all hardware, software, licenses, power cables, ground wiring,
Management Software and any other items deemed necessary to facilitate a fully
functioning system.
B. The Contractor shall supply and install, free of charge, all software revisions or upgrades
necessary to enable the continued successful operation of the systems described herein.
C. The installer/integrator of the network equipment shall be certified to the highest level
by the manufacturer of the network equipment.
D. The Building Communication LAN includes the following local area networks.
F. Contractor shall ensure that all the active network elements supplied are the latest and
current model at the time of installation. Appropriate product models with highest
performance and functional characteristics shall be proposed and delivered for each
network component.
G. Contractor shall be responsible for the complete low level design and configuration of the
network and shall ensure the network performance requirements is discussed and agreed
with the Client.
H. The testing and commissioning of the Active Network Infrastructure shall be based on the
approved performance parameters as agreed with the Client.
I.
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b. Uplink details
f. Bandwidth calculations
g. VLAN details.
h. Rack Elevations
C. Product Data: Submit the manufacturers’ product data for the following but no limited to
b. Internet Routers
c. Distribution switches
d. Access Switches
f. Firewalls
b. Name and address of the manufacturer and country of origin of the product;
E. The Contractor shall provide all required information, manuals, drawings etc.,
appertaining to the installation for incorporation into the Health and Safety file. This shall
comprise, but not be limited to the following:
b. Operations manuals;
g. Training material;
i. Names, addresses, telephone numbers and fax numbers of all relevant contacts;
j. Decommissioning instructions.
F. An operator manual will be produced that covers all aspects of the operation and basic
fault finding and troubleshooting on the system. This shall comprise at least the following:
G. A System Manager manual shall be provided. This will contain details of the system
configuration and the operation of the software. In agreement with the Engineer standard
product manuals may be substituted at least in part for this requirement.
A. The Building Communication LAN shall be capable of handling IPv4, IPv6 traffic and
logically separated into a number of Virtual LANs (VLANs) to support multiple traffic
streams.
B. BAN/BGN/BSN and SSN are two separate networks. BAN/BGN/BSN are a single physical
network with multiple local separations.
C. BAN, BGN, BSN and SSN shall follow two-tier architecture – access (edge) and core layers.
D. All the end points each will connect to respective network access layer which in turn will
link to either the distribution or the core layer through dedicated 10G uplinks.
E. The network components for BAN, BGN, BSN and SSN shall be installed in the data centre.
Full redundancy shall be provided at the Core layer for all the networks.
F. All uplinks from access layer to the core layers shall be fully redundant (primary and
secondary links). Contractor shall submit bandwidth calculations based on services on
each network
G. All Ethernet switches shall be capable of being configured for IPv4, IPv6 and RFC1918 Class
B or Class C addressing and masking.
H. Core switches shall be capable of switching traffic at layer 3 and layer4 of the OSI layer.
I. All switches shall be capable of IEEE-802.3x full duplex flow control. Rate auto sensing and
auto negotiation shall be provided on each port of the proposed system.
J. The network management system for the Building Communication LAN shall have the
capability to turn off power (PoE) to specific ports if required.
K. The network management system for the Building Communication LAN shall have the
capability to turn on PoE and PoE+ to specific ports based on the requirements.
L. The Building Communication LAN shall be capable of deploying an IEEE802.1q based VLAN
and VLAN tunnelling means of layer 2 traffic separations using static VLAN tagging and
dynamic tagging with authentication mechanisms such as IEEE802.1x.
N. The Building Communication LAN shall be capable of configuring Quality of Service (QoS)
using Diffserv Code point bits in an appropriate manner to ensure that real time traffic for
applications such as voice telephony is prioritized over other data traffic types.
NETWORK SECURITY
B. In order to secure the network, appropriate mechanisms shall be put in place to monitor
and control access to it. Passwords, network and host based firewalls, network intrusion
detection systems, access control lists, and data encryption as a minimum shall be the
measures adopted.
E. The Building Communication LAN shall not be prone to any known and preventable
external hacking or fraud. In particular this shall encompass any Direct Inward System
Access (DISA) fraud. For example, if DISA is used for remote maintenance, proper security
measures shall be required.
the best practices outlined in ISO/IEC 27002. The implementation of these security
techniques shall conform to ISO/IEC 27003. G. The following reference standards shall be
adhered to:
A. The Building Communication LAN shall provide detection of any kind of known and
preventable external hacking or intrusion but shall not be limited to the following:
f. Shall perform and propagate its analysis as quickly as possible to the concerned
authority
NETWORK REQUIREMENTS
A. During the design phase of the contract, the Contractor shall provide network
h. Uplink details
l. Bandwidth calculations
n. Rack Elevations
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B. All active devices shall include all software required for interconnectivity.
C. All active devices shall have fully functional network management options installed and
configured.
a. Core switches
b. Access switches
c. Internet Router
d. Firewall
e. Patch cords
A. All Building Communication Network equipment shall be compatible with VLANs based
on both port and MAC addresses. VLANs shall be configurable from a centralized
administrative console.
B. All LAN equipment shall support automated VLAN creation, assignment and
administration capabilities.
C. The network design shall utilize IEEE 802.1q based VLAN and VLAN tunnelling means of
Layer 2 traffic separation using dynamic VLAN tagging with Authentication mechanisms
such as IEEE802.1X supported to provide port based authentication. Any unused ports on
the Access switch shall have the capability of being deactivated.
D. BAN, BGN, BSN and SSN shall utilize Virtual LANs (VLANs) to enable respective networks
to be logically partitioned for different systems. The Contractor shall discuss and agree
with the Client on the configuration of various VLANs
E. Contractor shall design and configure VLAN structure that allows the separation of traffic
types and departments based on the final system design and Bill of Quantity, whilst
allowing certain authorized individuals to gain access to information on any VLAN.
1.7 SYSTEM CONTROL AND MANAGEMENT
B. All proposed Ethernet switches shall be capable of being managed via SNMPv2 and
SNMPv3 over the network.
C. Appropriate Management Information Base shall be available for the Ethernet switches
supplied.
D. The status and alarm notification capability of each piece of active data equipment shall
be achieved using standard in-band Management Information Base and Remote network
monitoring interrogation and communication.
E. All Active equipment shall be fully integrated with the Integrated Building Management
system.
1.8 SYSTEM PERFORMANCE
A. The Building Communication LAN shall be designed and built to provide a minimum
availability level of 99.9%.
B. For the system to be considered ‘available’; better than 95% of all supported services on
that system shall be fully operational.
C. The Building Communication LAN equipment shall have a life expectancy in excess of 10
years with the capacity to be upgraded as technology advances.
1.9 RESILIENCY AND SECURITY
A. There shall be no Single Point of Failure (SPOF) in the complete active network design.
B. All switches shall have a generic configuration enabling their simple replacement. All ports
shall be configured appropriately for the equipment connected.
A. IP addressing scheme shall follow the Internet Protocol version 4 (IPv4) and Internet
Protocol version 6 (IPv6) standards. Private IP addresses and subnets for the equipment
will be assigned by
the Contractor in coordination with the Engineer and as required by the equipment
manufacturers/suppliers.
C. All network components shall provide support for, and support migration to Internet
Protocol version 6 (IPv6).
1.11 QUALITY OF SERVICE (QoS)
A. All Networks shall be enabled with Quality of Service (QoS) to ensure that each traffic
class is appropriately prioritized according to the following traffic characteristics:
a. Latency
b. Jitter
d. Bandwidth
B. The Network shall support IEEE 802.1p Class of Service (CoS) and Differentiated Services
Code Point (DSCP) and provide support for, at a minimum, the following traffic classes:
A. Traffic shaping shall be based on either of the following Class-Based Traffic Shaping,
Generic Traffic Shaping or Frame Relay Traffic Shaping;
D. Control access to bandwidth when the access rate exceeds the speed;
E. Shall be responsible for classifying, marking, metering, and shaping or policing the packets
entering the network.
1.13 SWITCHING LATENCY
A. BAN, BGN, BSN and SSN shall provide minimum latency to real time applications,
especially for critical systems, applications and security systems.
B. The worst case switch latency of a real time packet shall not be more than 50 μsec in a
Gigabit Ethernet link
1.14 WLAN REQUIREMENTS
A. The Contractor shall supply a network authentication system. This shall be capable of controlling
access to the wired and wireless network based on number criteria. B. These criteria should include
(but not be limited to):
i. User authentication
ii. Status of antivirus
iii. Status of personal firewall iv. Device type
v. Device manufacturer
C. Actions that can be taken as a result of authentication (or failure) should include (but not be
A. Access Points should be positioned throughout areas that require Wireless LAN coverage, as
required, to achieve a complete reliable coverage throughout and as specified in the design.
B. Access Points shall be powered using PoE.
C. The positioning of access points shall be coordinated with other disciplines including Architecture
and ID at site to ensure the best possible RF coverage while preserving the aesthetic qualities of
the interiors. D. All access points shall be installed within ceiling voids where possible and shall
not be visible.
E. The channel and RF transmitter power settings shall be automatically configured by the Wireless
Access Point Controller.
PART 2 PRODUCTS
A. The Contractor shall supply, install, test and commission Core Network switches switch
that shall be located in the Data Centre.
B. Contractor shall refer the schematics and layouts to identify and calculate the uplinks to
the core network switches. The uplink details mentioned in the schematics and details are
indicative and to translate the deign intent .Contractor shall carryout a comprehensive
analysis of the complete network and produce the uplink details and final bandwidth
calculations for Engineers review and approval.
C. The core layer shall support 10/100/1000 Megabit Ethernet, 10 Gigabit Ethernet and 40
Gigabit Ethernet port densities while providing high levels of network resilience.
F. The Contractor shall provide hardware and software for the Core switches that meets, but
not limited to, the following specification:
s. ICMP (RFC792)
z. IGMP snooping (RFC 2236 and RFC 3376) aa. VLAN Trunking Protocol (RFC 782)
(AutoQoS)
A. The Contractor shall provide hardware and software for the Access Layer of the Building
Communication LAN that meets, but is not limited to, the following specifications:
a. All access switches shall be Ethernet based and capable of deploying IEEE-802.3af
compliant 10/100/1000 Base-T twisted pair RJ-45 access ports capable of connecting
to Cat 6a patch cables.
b. The Access Switches shall be leading Layer 2 edge switches providing improved ease
of use, highly secure business operations and improved sustainability.
c. The Switches shall include Flex Stack switch stacking capability with 1 and 10 Gigabit
connectivity, Power over Ethernet Plus (PoE+) and Universal Poe (UPOE).
d. 10 and 1 Gigabit Ethernet uplink flexibility with Small Form-Factor Pluggable Plus
(SFP+), providing business continuity and fast transition to 10 Gigabit Ethernet
e. Capability to stack the access switches into a single logical unit, using resilient stack
interconnect cables that does not utilize access/network ports;
f. The ability to auto-configure each switch in the stack with the capacity to serve as
stack master;
g. All access switches shall be capable of deploying 1G and/or 10G uplink modules.
i. All access layer Ethernet switch ports shall provide IEEE802.3at based Power over
Ethernet (PoE) electrical energy to power all 802.3af and 802.3at compatible devices.
k. Scalable architecture to allow the addition of user ports and network uplink ports as
and when required;
l. Field replaceable power supplies and fans, which are hot swappable and offer a
redundant external power supply option;
n. Virtual LAN means of Layer 2 traffic separation with IEEE 802.1q based Static and
Dynamic
VLAN tagging;
r. IEEE 802.1p Class Of Service (CoS) and differentiated services code point (DSCP) to
ensure that real time applications are appropriately prioritized over other traffic;
t. Link Aggregation Control Protocol (IEEE 802.3ad) to allow high speed aggregate
uplink bandwidth and for configuration across different members of the stack for
high resiliency;
y. Capable of being managed via SNMPv2c or SNMPv3 over the Network; appropriate
MIBs shall be available for the Access switches.
B. Each Access Switch shall include the following modules/interfaces (unless specified
otherwise):
A. Provide suitable Firewalls and routers to provide connections to the Internet via an
Internet Service Provider (ISP).
B. Contractor shall provide details of the router proposed and how they will enable a resilient
connection to be maintained.
C. The Contractor shall be responsible for configuration of the Router and Firewalls, and shall
develop a security policy with the client for the network infrastructure and configure the
Firewall and Routers so as to support this policy.
D. The Contractor shall liaise with the local ISP to make all arrangements necessary to
provide voice, data and video Internet access.
2.4 INTERNET ROUTERS
A. Internet Routers shall be provided to connect to the telecom service provider network
b. Stateful packet inspection firewall to help minimize web and email threats
c. Intrusion prevention system, providing protection from attacks, worms, and viruses
by detecting and stopping these threats before they can affect the network
d. Content filtering to restrict access to undesirable websites and help guard against
malware and phishing attacks
j. VPN access
k. Inter-VLAN routing
2.5 FIREWALL
A. Redundant (primary and secondary) firewalls shall be provided at the Network Perimeter
for BAN, BGN, BSN and SSN as appropriate.
B. Redundant (primary and secondary) firewalls shall be provided at the Datacentre Layer
for BAN, BGN, BSN and SSN as appropriate.
C. Perimeter firewall for SSN is required only in the instance of connecting the security
network to the external authorities like Ministry of Interior.
D. The firewall shall have the following characteristics as a minimum:
a. Contractor shall submit the threat analysis and full details of the proposed system
b. Shall deliver high-performance firewall, SSL and IPsec VPN, and rich networking
services in a modular, "plug-and-play" appliance.
i. UL 60950
ii. CSA C22.2 No. 60950 iii. EN 60950 IEC 60950 iv.
AS/NZS60950.
E. Firewall specifications shall be submitted to the Engineer and Client for approval before
proceeding for procurement.
F. Contractor shall refer the schematics and details. The details mentioned demonstrate the
design intent.
G. Contractor shall be responsible for the low level system design and configuration
including throughput calculations for Engineer’s review and approval.
2.6 HIGH SPEED INTERNET ACCESS
A. The Contractor shall make all necessary arrangements for delivery of high speed internet
service from the Telecom Service Provider.
B. Contractor shall install Operator compliant HSIA appliance for the distribution of internet
services within the facility.
A. The Contractor shall supply Wireless Access Points capable of providing 802.11-WLAN coverage.
As a minimum these shall conform to the following specifications:
C. WAPs will be supplied either with internal antennas or externally connected antennas to ensure
the overall coverage requirements are met.
D. The testing and commissioning plan shall include a wireless coverage map and active
demonstrations of the various traffic types expected on the wireless LAN.
A. The Contractor shall supply Wireless Access Point Controllers capable of managing the supplied
type and volume of Wireless Access Points utilised.
B. The Wireless Access Point Controllers shall meet (but not be limited to) the following
specifications:
i. Resilient operation;
PART 3 EXECUTION
END OF SECTION
PART 1 - GENERAL
1.1 Reference
Conform to General Requirements for Electrical Services of Division 26 and 27.
1.2.1 The contractor shall supply, install, test, commission, guarantee & maintain with
sufficient allowance made to include any future transmissions within the foreseeable
future without degradation of the system parameters a complete new MATV system
of an approved manufacturer consisting of the following to the related building:
a) Numbers satellite dishes complete with their feed horn & LNB selection of
channels and dishes shall be advised by the Engineer during construction
time.(number of satellite to be as per operator requirements)
b) All necessary splitter boxes, line amplifiers, cabling, conduits, cable trays, TV/FM
outlets etc, (recommended IF distribution).
1.2.2 The contractor shall also provide all necessary provisions to connect the MATV system at
the head end station to a minimum 2 more numbers of blocks in future.
1.2.3 It is the intention of these specifications to provide a complete MATV system. The major
items of equipment shall be furnished in the quantity indicated. Any item of
equipment or hardware that may not be specifically shown on the drawings or
specified herein but required for system installation shall be furnished by the
Contractor.
1.3.1 The satellite dishes shall be installed at the roof while the head end station shall be
installed within the Electric room at the roof. Form the head end station the TV signal
shall be distributed through trunk feeder to the various splitter boxes and then to the
TV/FM outlets through distribution coaxial cable. Line amplifiers shall be provided at
each output line of the splitter which are feeding the signal to outside for all other
buildings.
In accordance with CENELEC SPECS. TC 209. All parts of the system (Multi‐Switchers)
Amplifiers, tap offs, distribution boxes, sockets) shall be CE certified and tested and
CE. Marking shall appear on the packaging and/or included in the operating
instructions.
For compliance with the legal EMC (Electromagnetic Compatibility) requirements and
to prevent interference between TV cable networks and radio services, components
with shielding rate defined in European standard EN 50083–2 shall be used for
distribution items including connecting cables for terminal equipment. The
components shall bear the Class A label.
Conform to an overall minimum total signal cross‐modulation ratio of 57dB with the
maximum output for all present and future programs set with an allowance of at least
3dB output under all known conditions.
A pre‐planning site survey will take into account the following factors, which must be
satisfactory as agreed by a representative of the authority:
Adequate signal levels (not less than 55 for IF signal) at all outlets to provide the
specified signal/noise ratio or an agreed satisfactory subjective result. Clean signals
free from reflections and co‐channel interference effects. Regard to be paid to any
very high level local field strengths leading to possible immunity and pre‐image
problems. Possibility of interference from any source that may interfere with the
system performance.
1.4 Submittals
station. Distance from the head end stations hall be indicated along with dB
losses.
b) TV/FM socket outlets layout plan indicating the routing of cables from head end
station to floor distribution boxes and from floor distribution boxes to final
outlets.
PART 2 – PRODUCTS
2.1 Selected
Channels for the
System
The system shall facilitate the reception of all free available programs from a total of 8
polarities from the following satellites or any other as per operator requirements:
The system shall be designed to function on field strength levels of local transmissions. A 13
Amp.
Fusible Test power socket shall be installed in the cabinet for a future connection of signal test
equipment to aid the service requirement. Spurious variation shall be within the limit ref. DIN
V VDE 0855 part 10 and 12:
For active components:
0.01 MHz . . . . . . . 470 MHz Shielding rate > 75 dB.
470 MHz . . . . . . . 950 MHz Shielding rate > 70 dB.
950 MHz . . . . . . . 1750 MHz Shielding rate > 55 dB.
For coaxial cables:
0.01 MHz . . . . . . . 30 MHz Shielding rate > 75
dB. 47 MHz . . . . . . . . 108 MHz Shielding rate >
b. Return loss shall not be less than 14dB at any point of the system.
d. The system shall be such that the short or open circuit at any outlet socket will not significantly
affect signals at other outlets (tap‐off system).
4.1 General:
The system shall include, but not necessarily be limited to the following:
4.1.1 ( 3 ) Nos. 1.2 m solid aluminium dishes for Asiasat 3A, Hotbird and Nilesat
satellites.
Contractor to provide latest Lynk Reach server with all required Head ends, interfaces,
accessories, etc and connections to meet the operator requirements.
5.1 General:
5.1.1 The IF signals from the dish satellite respectively shall be fed into the IF distribution
network described hereafter.
5.1.2 The system shall utilize distributing all available IF signals in Asiasat 3A, Hotbird and
Nilesat dishes to all the outlets of the building.
5.1.3 The switching between different polarizations planes from the LNB’s shall be done
from the domestic receiver at the outlet sockets. Domestic receivers shall be provided
by contractor.
5.1.4 Outlets shall be connected separately (radial) to switcher, loop connection is not
permitted.
5.1.5 All equipment shall be double shielded and in conformity with VDE or similar
standard.
5.1.6 The system shall have 100% connectivity for digital signal reception.
5.2.1 Multi Switchers shall have ( 13 ) cable system, where 12 cables are used for the IF
frequency and 1 cable for RF frequency.
5.2.2 The Multi Switcher shall be cascadable with provision for 4 or 8 subscribers per
switcher.
5.2.3 Switcher shall have the total frequency range from 47 MHz to 2150MHz.
5.2.5 Switcher shall have (min. 6 dB) through pass attenuation for IF frequency (950 –
2400MHz).
5.3.1 Cascadable Post Amplifiers shall be used as necessary along the line to compensate
for the signal loss on the co‐axial cable. Specifications are as follows:
5.3.3 Proper arrangements shall be made to dissipate the heat generated during normal
working of the amplifier.
5.4 Cables:
5.4.1 Cables used within the system shall have polyethylene dielectric.
5.4.2 Cables used for wiring the aerials and dish satellites shall be ultra violet resistant.
5.4.3 All the cables shall be with the following minimum shielding rates:
5.5.1 Sockets shall be of broadband type with operating frequency range from 4 MHz up
to 2400 MHz.
5.5.2 Sockets shall have Sat/TV/FM triple outlet in rigid metallic structure with cover
similar to the wiring accessories.
PART 6 - EXECUTION
6.1 Installation
The complete TV system shall be installed and commissioned by the equipment
manufacturers approved licensed supplier.
The system shall be capable of being expanded to receive other TV channels available From
ARAB‐SAT TV on both right hand and left hand polarization's (RHCP).
The equipment cabinet and power units as installed initially shall be capable of supporting
future expansion up to 50% of installed channel capacity (on both RHCP & LHCP) by simple
integration of Receivers, Modulators, and Channel Amplifiers into the cabinet.
6.2 Testing and Commissioning
Commissioning of the system shall fully comply wit the requirements of BS 6330 section 7.
The system shall be tested and commissioned in accordance to BS6259 and in accordance
to testing and commissioning procedure approved by the Engineers Visual and
performance test shall be carried out on the system and all test results shall be recorded
on the attached forms issued herewith for guidance only.However, the final forms shall be
arranged to contain any additional information required by the above standards or
requested by the Engineers.
The general standard of workmanship shall be checked, paying Particular attention to the
security of fixings and the neatness and quality of cable terminations. A functional test
should be carried out to check that the system Operates satisfactorily.
END OF SECTION
1 SCOPE OF WORKS
1.1 GENERAL
A. This document covers the scope for Integrated Security System.
B. Integrated security systems for the Project are covered under the following sections
d. 283100 – Fire Detection and Alarm with Emergency Voice Evacuation System.
C. All electronic safety and security systems itemised above shall be centrally configured,
managed and monitored through an Integrated Security Management System (SMS)
as per the design.
D. The SMS shall also be integrated with the Integrated Building Management System for
monitoring and selective controls.
E. All required Access levels, Security policies, Video management, Alarm and Map
management, visitor management and any other security system related
management shall be established through Integrated Security Management system
F. Security Systems Network (SSN) for the facility shall be a fully isolated passive and
active infrastructure. The system integration across networks shall be achieved
through a secured firewall.
G.All Security systems Network IDFs (SSN IDFs) shall be connected to the primary and
redundant core switches utilizing fiber optic cables with adequate level of
redundancy. Core Network switches and backend network services including systems
servers for SSN Network shall be located within the Mezannine Floor Data Centre.
H.All Security systems for the facility shall be monitored and policies pertaining to the
security systems shall be managed from the Security Control Room located in Ground
Floor. Security Control room shall be operational 24/7 and 365 days with ideal
number of staff and shifts based on security operational procedures for the facility.
I. Secondary monitoring stations shall be installed in the Security Gate House and
Reception on the Ground floor of the building with access to specific number of
cameras that shall be configured based on the operational requirement for the facility
The system shall be flexible enough to add additional monitoring stations for other
areas/personnel based on the operational requirement adopted for the facility.
J. The following table summarises the specification sections which forms the primary
scope for the Contractor; unless separate instructions are not issued for additions or
deletions. Contractor shall refer all the sections and specifications to ensure the scope
of works under this section and associated sections are addressed as appropriate.
Section Section Description
27 00 00 Communication Systems
27 02 00 Telephony System
27 05 10 Communication Pathways
28 23 00 IP CCTV System
283100 Fire Detection and Alarm with Emergency Voice Evacuation System.
K. The Contractor shall hold the prime responsibility of coordinating the complete
installation including obtaining necessary inputs from Communication Infrastructure
and other discipline installers and ensure the entire installation performs as required
and achieve the Client requirements in totality.
L. Contractor shall comply with applicable requirements of the laws, codes, ordinances
and regulations of the authorities having jurisdiction; and also obtain necessary
approvals from all such authorities.
M. The location of all security field devices indicated in the drawings are
indicative. Contractor shall discuss the operational requirement with the Client and
obtain approval before finalising the installation.
N.The Contractor shall closely coordinate with Lift Contractor and Engineer immediately
after award of the contract for a detailed discussion in terms of complete integration
of Lift systems with the Integrated Building Security systems.
O. Contractor shall coordinate with Lift Contractor on public help points inside all Lift
cars .Contractor shall ensure that the public help points are not duplicated. If the
public help points inside Lift cars are supplied as part of Lift package then security
Contractor shall omit
the same from their bill of material and ensure that the public help points supplied
by Lift Contractor is compatible with integrated security system.
P. Quantity of access control readers shown on the Lift lobbies for initiating the Lift calls
are indicative .The final quantity shall be subjected to the number of Lift call points
required for individual floors based on Lift design strategy. Contractor shall coordinate
with Lift Contractor for the same.
Q. Contractor shall also coordinate the Integration of Access control readers with Lifts
for Lift calls, Installation of Access control readers for Lift cars to authorise floor
selection, Installation of Security Distribution Hubs for Lift control in Lift machine
room and at Lift termination point for Lifts without machine rooms.
R. Contractor shall closely coordinate with ID, Door Contractor and Engineer
immediately after award of the contract for a detailed discussion on the installation
of electronic locks for all kind of doors, access control readers especially on the door
frames for glass doors and all other security related field equipment’s
S. The Contractor shall arrange a meeting between all other Discipline Contractors and
Engineer immediately after award of the Contract for a detailed discussion and
verification of the system engineering methods, generally provide a framework for
communication and co-ordination for the complete security systems for the facility in
order to avoid any discrepancy at the later stage of the project .
T. Contractor shall have approval for the all equipment and interfaces proposed before
proceeding for procurement. if any of the equipment’s are found to be installed
without necessary approval engineer reserves the right to the get the equipment
replaced at his satisfaction without any additional cost.
U.Contractor shall coordinate closely on site for all the external and internal pathways,
external and internal distribution of containments, cable junction boxes, excavations,
and support bases required for the complete internal and external security system
equipment’s
V. Contractor shall coordinate on site and ensure that all the external security equipment
installations are in compliance with local authority guidelines.
W. The locations of equipment for all security systems indicated on the contract
drawings are only indicative. The exact position must be verified by the Contractor
and indicate on the detailed shop drawing submission showing the latest detailed
architectural background drawings, fully coordinated with other services layout
drawings.
X. The Contractor shall be responsible for checking the position, location, installation
requirements, and accessories etc., on site and with manufacturers.
Y. The Contractor shall provide an installation complete in all respects and in satisfactory
working order. If any item is discovered later to be short supplied or not in working
order, the Contractor shall be liable to make good the same to the satisfaction of the
Engineer and Client.
Z. Any apparatus, appliance, material or work not shown on the contract drawings but
mentioned in the specification or vice versa, any incidental accessories or work
necessary to make the work complete in all respects and ready for operation, even if
not particularly specified shall be supplied and installed by the Contractor without
any additional costs.
A. The overall design intent and operation methodology adopted for the facility is
translated into the security systems design. All security systems shall be fully
integrated with the complete security system components specified under Section 28
00 00 Integrated Security System.
B. As part of the security systems design for the facility, various control points are
introduced to restrict pedestrian and vehicle movements. This has been done
identifying various user categories expected to access the facility and can be
considered within the operational profile should it be desired.
C. The Security Control Room in the Ground Floor forms the hub of security surveillance
and operations which provides security operations staff with situational awareness to
take necessary actions to tackle a security related incident.
D. Client shall develop a security management plan for the facility to have a holistic
approach to managing security risks and threats. As part of the security management
process, local and global security risks should be monitored on a daily basis. To
effectively manage this, a security and safety team shall be assigned responsibility and
accountability for security management.
Various control points are introduced to restrict and control pedestrian movements within
the facility. A comprehensive control shall only be achieved through mixing security systems
with operational procedures including security staff. Following are control points identified
in terms of pedestrian access.
iv. IP Cameras
C. Security Interface for areas including stairwells leading to ground floor external areas
and entry to basement and upper levels of the facility
i. ACS Card Reader for Entry and Exit ii. Public Help
vi. All door and lock status shall be monitored. vii. Fail Safe
Operation for Exit (Escape Route) viii. Fail Secure Operation for
Entry.
i. ACS Card Reader for Entry (Designated areas) ii. Push To exit iii.
AHJ codes).
ii. Manage all the visitors accessing the facility based on the
operational principles set for the facility.
i. ACS Card Reader for Entry into the guest rooms ii. Free exit
monitored.
i. ACS Card Reader for Entry and Exit ii. Public Help Point to
monitored.
and local codes and standards including, but not limited to, the most recent editions
of the following: a. NEMA Standard;
f. BS 7150 Code of Practice for Intruder Alarm Systems with mains wiring;
k. ASTM F 2656-07 Standard Test Method for Vehicle Crash Testing of Perimeter
Barriers.
B. Contractor shall comply with applicable requirements of the laws, codes, ordinances
and regulations of the Authorities Having Jurisdiction; and also obtain necessary
approvals from all such authorities.
B. All items proposed for this section shall be listed. Items shall be identified by tag
number, description, function, manufacturer, model number, descriptive literature
and statement as to whether items is “as specified or equivalent”.
1.5 SUBMITTALS
C. The Contractor shall submit internal wiring and containment schematic Drawings
clearly showing all equipment and tag numbers on all panels.
D. The Contractor shall submit panel graphic Drawings where applicable, and include
material specifications lists where applicable.
a. Indicate device locations with identification tags, wire runs and wire designations
on floor plan Drawings. Wire runs shall be shown as single lines, drawn
horizontally and vertically between devices and processing equipment, and shall
be tagged to indicate type, gauge and conductor quantity. Wire quantities shall
be tallied as they are combined when travelling together in single conduit runs
and clearly delineated on the plans.
b. Reference the Security Conduit Drawings (SC) for schematic conduit provisions
by Electrical Contractor.
d. System riser diagram with all devices, wire runs and wire designations.
e. Schematic diagrams in detail for each system showing all equipment (typical),
interconnects, data flow, etc.
f. Wiring diagrams for each subsystem defining the interconnection of all inputs
and outputs for all equipment. Diagrams shall indicate exact equipment counts.
h. Plans and elevations of the security console(s) and equipment racks quantifying
all equipment to be mounted therein and including notes detailing their
fabrication. All materials, methods for construction and finishes shall be fully
detailed.
B. Provide final documentation to serve the diverse needs of personnel concerned with
operation, procurement, installation and maintenance.
B. Training manual shall include CV's of trainers, brief description of the installed system,
preventive and breakdown maintenance procedures and training mode.
C. The manufacturer shall be ISO-9002 and ISO 9001 certified for Quality Assurance in
Production, Installation and Servicing.
E. The Contractor shall allow for demonstrating the capabilities of the proposed
manufacturer / systems integrator through a visit to an existing installation of similar
complexity.
B. Any item supplied differs from that shown on the submittal catalogue copy or the
sample submitted, shall also be rejected at site. In such cases, the Contractor shall
make a new submittal for the item and obtain approval from Engineer. Any time delay
caused due to the above shall be borne by the Contractor.
C. The Contractor shall remove the rejected materials/equipment from SITE and replace
with approved materials/equipment at the Contractor’s own expenses. In the event
the Contractor fails to do so, the Engineer shall carry out such work and deduct all
costs from the Contract price.
B. Should the Contractor wish to rectify such damage in order to utilize the plant or
materials for the Project, the matter shall be brought to the attention of the Engineer,
who in turn shall conduct a proper survey after which the necessary instructions will
be issued.
C. Only after obtaining a written permission from the Engineer shall any remedial work
is carried out.
1.16 SAFETY
A. The Contractor shall comply with all safety procedures at Site to protect manpower and
machinery. The Contractor shall provide all the means to achieve the safety
standards required and protect the manpower, materials and equipment’s in
accordance to the Main Contractor’s Occupational Health and Safety Requirements.
B. The Engineer will advise the Contractor at the time of commencement of the Contract
the list of equipment to be inspected and the Contractor shall give the Engineer the
required notice of the date on which the plant/equipment will be ready for testing.
C. The Engineer will signify his intention to attend the tests or accept the Contractor’s
test sheets. The Contractor shall supply all the test certificates in original to the
Engineer at the time of handing over the Work.
C. If the Contractor fails to attend to any such faults as mentioned above within the
specified time, then Engineer shall make own arrangements to rectify the fault at the
Contractor’s expense.
1.19 WARRANTY
A. The Contractor shall provide warranty for the Work in accordance with this
Specification that all plant/equipment/material shall operate free of any defects due
to defective material and bad workmanship and that any part found defective during
this period shall be replaced/rectified free of charge by the Contractor.
B. If the defects are not rectified within a reasonable period, the Engineer may proceed
to do so by another agency at the Contractor's entire risk and expense without
prejudice to any rights of the Engineer.
The guarantee for the various materials or equipment under this Contract shall
commence after taking over certificate and be warranted for a minimum period of
24 calendar months.
PART 2 PRODUCTS
A. Contractor shall only propose products from the approved list of manufacturers. Under
no circumstances shall products outside the list be proposed. Any such product
included in the tender return will not be evaluated and shall stand rejected.
PART 3 EXECUTION
3.1 INSTALLATION
A. The Contractor shall be fully responsible for obtaining all necessary permits and
approvals from the authorities for his work as well as for any connected work with
others.
C. During the installation, and up to the date of issuance of the certificate of taking over
certificate, the Contractor shall be under obligation to protect his finished and
unfinished work against damage and loss. In the event of such damage or loss, he shall
replace or repair such work at no cost to the Client.
D. The Contractor shall provide an installation complete in all respects and in satisfactory
working order. If any item is discovered later to be short supplied or not in working
order, the Contractor shall be liable to make good the same to the satisfaction of the
Engineer
B. The locations of equipment for all security systems indicated on the contract drawings
are only indicative. The exact position must be verified by the Contractor and indicate
on the detailed shop drawing submission showing the latest detailed architectural
background drawings, fully coordinated with other services layout drawings.
C. The contract drawings do not indicate every detail of the work. The Contractor shall
be responsible for checking the position, location, installation requirements, and
accessories etc., on site and with manufacturers.
D. Location tests shall be carried out with appropriate tools to determine the best
location which gives optimum coverage of the areas.
E. The location of automatic gate barriers and vehicle scanning system indicated in the
drawings are indicative and to translate the design intent. It is very important that
Contractor shall discuss the operational requirement of gate barriers and install the
barriers accordingly in line with security house location. It is important that Contractor
shall comply with applicable requirements of the laws, codes, ordinances and regulations
of the authorities having jurisdiction; and also obtain necessary approvals from all such
authorities
F. Contractor is deemed to have studied the contract drawings, schematics, details, and
specifications and understood the design intents completely. Contractor shall consider
his pricing for the entire design and all other associated works in fully compliance with
local authority guidelines and regulations. No variations shall be accepted at any stage of
the Project.
B. All equipment, cabling etc. shall be installed in locations as indicated on the floor plans
and drawings attached to this Specification or as instructed by Engineer on site.
C. All cables should be run inside conduit or trunking which should be provided by the
electrical Contractor.
E. In the installation of equipment and cable, consideration shall be given not only to
operational efficiency, but also to overall aesthetic factors.
G. Contractor shall ensure that all external infrastructure layouts and road plans are referred
in order to allocate the correct location for the external security equipment’s.
H. Contractor shall coordinate with electrical Contractor for required power supplies based
on the operational requirements of the proposed systems.
I. Contractor shall coordinate on site for the final locations of Automatic gate barriers and
Vehicle scanning system and ensure that installation meets client’s operational
requirement and local authority guidelines.
system. Marking codes used on cables shall correspond to codes shown on drawings and
on run sheets. K. The Contractor shall provide tags as approved by Engineer for all cables
and equipment.
3.4 TESTING AND COMMISSIONING
A. A proposed Factory Acceptance Test shall be submitted to the award of the contract
for review by the Engineer. The report shall include all tests and results including
failures and nonconformance.
B. Before Acceptance Tests are scheduled, the Contractor shall perform his own system
checkout. He shall furnish all required test equipment and shall perform all work
necessary to determine and/or modify performance of the system to meet the
requirements of this specification. This work shall include the following:
c. Check all control functions, from all controlling devices to all controlled devices,
for proper operation.
d. Adjust, balance and align all equipment for optimum quality and to meet the
manufacturer's published specifications. Establish and mark normal settings for
all level controls on equipment and record these settings in the "System
Operation and Maintenance Manual".
e. Maintain documentation of all performance tests for reference during the System
Acceptance Tests.
B. The Contractor shall provide all necessary facilities and instruments for the witnessing
and checking of such tests, but this shall not relieve the Contractor of his responsibility
for testing and satisfying himself of the adequacy of the installation beforehand.
C. Contractors testing and commissioning report shall be submitted for Engineer review
and Site Acceptance test shall be based on the test results submitted to Engineer.
Engineer has the option to verify the test results for all devices or choose devices at
random for verification of test results submitted by the Contractor.
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3.6 MAINTENANCE
A. Apart from his contractual responsibilities for making good inherent defects, the
Contractor shall furnish full comprehensive maintenance service free of charge on the
entire equipment supplied and installed under this Contract from the completion of
the installation under this Contract, until twelve month after the issue of the
Employer's taking over certificate of the works as a whole.
C. During the stage of “Beneficial Use”, “Trial-Run” and Defects Liability Period, the
Contractor shall also repair or replace all passive, active electronic, electrical and
mechanical parts of the equipment wherever this is required and shall use only
genuine standard parts produced by the manufacturer of the equipment concerned.
In the case if standard parts being not readily available, a substitute may be accepted
for emergency subject to the condition that the whole system shall be safe in use and
must be replaced with the standard part as soon as possible all at the Contractor's
expense.
E. During the Defects Liability Period the Contractor shall provide the facility of 24-hour
“call-out” whereby at any time of the day or night, to despatch skilled engineer to
repair any equipment that has broken down, failure and/or damage. The engineer
must arrive on site within 2 hours after received the report of failure.
3.7 TRAINING
A. The Contractor shall provide on-the-job training by a suitably qualified instructor to
instruct them in the operation and maintenance of the systems.
B. In the event the Contractor does not have qualified instructors on staff for certain
sophisticated equipment, a manufacturer's representative for such instruction will be
provided by the Contractor at no additional cost.
C. All training shall take place after the systems are operational, but before the
acceptance tests. There shall be a minimum of (three days) of technical training on the
systems included in this specification.
END OF SECTION
INDEX
1.0 General
2.0 System function
3.0 Card readers
4.0 Access control and security management software
5.0 Electric door hardware
6.0 vehicle barriers
7.0 General notes
1.0 GENERAL
The Contractor shall allow for the supply, installation, testing and commissioning of an Access Control
System complete wherever system is available.
System contained but not limited to proximity readers , inbuilt RF transmitters, magnetic locks / solenoid
locks, magnetic door contacts, power supply units, egress push buttons, PC loaded with access control
software, programmer card ,RF transmitters with inbuilt proximity tags to interfere with gate barrier,
cables and accessories to form a fully operational system.
The access control computer shall be located at the control room as shown in the drawings& according to
the approval of the Engineer. The card readers shall be provided for the doors as shown in the layout
and schematic drawings. All doors shall be provided with magnetic locks and push buttons which has
to install in the secured area to release locks for exit.
500 RF transmitters with inbuilt proximity tag shall be supplied with the system and shall be suitable for
printing custom designs by the client.
The doors leading access to the building shall be monitored using recessed magnetic contacts and shall be
linked to the controller for monitoring by the PC.
All entry & exit door shall have magnetic locks which shall be interfaced with fire alarm system.
Door contact shall be installed on the door& interface with fire alarm system.
The system controller and power supplied shall be installed in the electrical room or above false ceiling
subject to Eng. approval.
Installation of equipment, termination of cables, programming, testing and commissioning shall be carried
out by a specialist sub-contractor representing the manufacturers and having at least five years’
experience in the field.
Accessories used with the system shall be as required by the equipment manufacturer. It will be the
responsibility of the specialist sub-contractor to point out any deficiencies in the system design to the
Engineer and to quality the same at the time of tender. Any request for cost variation at later stages
will not be entertained.
Access Control system shall be fully interfaced with car gate barrier if any.
Contractor has to provide any containment required in order interface with other systems.
The system shall monitor the condition of inputs connected to Access Control Readers,
which is a part of the system. The system shall be able to be programmed to apply a variety
of conditions to the way in which these inputs are monitored and shall annunciate the
condition of such inputs in accordance with the programming.
The system shall be able to software integrate with CCTV system such that in case of an
alarm, the corresponding camera can automatically pop up on to the alarm monitor.
The system shall monitor the condition of the various devices forming the system as a
whole and shall record and annunciate such information.
The system shall produce and maintain a log of all events that occur in the system as
programmed from time to time.
The system shall provide a means for an operator to extract from the system information
relative to the events recorded.
The Access Control System shall integrate with Building Management System through
Industry Standard protocols such as BACnet, DDE, NetDDE, OLE, OPC, ActiveX.
The method, form and type of recording and enunciation of the information and device
conditions mentioned above, and the individual device and overall system operation, shall
be in accordance with information detailed in various clauses there under.
The card reader shall monitor the status of door contacts, exit push button; reader tamper
etc. if a door is proper open, readers shall sound an audible alarm 10 seconds prior to
generating a door held open alarm.
Access events shall to be logged on the CPU providing user identity, time, and command
type and door number for each event.
Smart Card Readers should be provided wherever necessary. It shall have the following features.
3.1.1 The Card Reader technology shall be contact less smart card reader designed with the
practical site installation requirements in mind.
3.1.2 The concealed fixings shall allow the reader to be mounted directly on to a flush or surface single
gang back box. The reader shall also be capable of mounting directly to metal surfaces
such as turnstiles etc. with no effect on the reader operation.
3.1.3 Shall support reader output to suit the specific application required, i.e. 26 to 40 bit.
3.1.4 The reader shall also operate in the standalone and RS485 formats as an encoder, writing data
to the card either from its own programmed memory or from a PC or other such device.
3.1.5 The reader shall have single piece design for easy installation and shall be upgradeable from
conventional proximity or swipe readers.
3.1.6 IP65 standard finish for external readers for the gate car barriers.
3.1.7 A single LED that changes color from red to green is also acceptable.
3.1.8 The reader shall be available in card only and card plus PIN pad versions. Furnish and install in
the style and quantities as shown on the drawings.
3.1.9 For High Security Areas provide Biometrics Smart Card Readers, if required.
3.2.1 The systems shall use Smart cards that conform to the ISO standard thickness and credit
cards size.
3.2.2 Cards shall be encoded at the Site as per the Client’s requirement. Each card shall be
encoded with a facility code unique to the security system, and individual card number.
3.2.3 The encoded information shall be highly secure from alteration by external
magnetic field.
3. 2.4 the cards shall be constructed of top quality, highly durable and resilient PVC plastic or a
PVC/Polyester composite material for use with Smart readers.
3.2.6 Card data must be immune to corruption or loss during normal day to day use.
All cards supplied shall be encoded with a facility code, unique to this site. The facility code shall
3.3.1 The Contact less smartcard shall not need a direct contact to the reader.
3.3.2 The card which shall have no contact plates for the data to be exchanged with the
reader as specified in ISO 7816. It shall communicate using wireless technology with
the reader.
3.3.3 Data shall then be transmitted bi-directionally by this signal providing a fast and very
efficient data exchange.
3.3.4 The Card shall feature Quick transaction time, simple usage and robustness as standard.
3.3.5 Subject to the style of reader used the card shall transmit data over a distance of up to 10 cm.
3.3.7 The Card shall support 16 memory sectors for multiple applications.
3.3.8 The Card shall be protected by two software keys per sector for read and write.
3.3.9 The Card shall support High speed read/write communication (106 Kbit/s)
3.3.11 shall support High security protection of data held within the memory sectors.
3.3.13 The Smart Card shall be capable of storing the complete two-dimensional structure of the fingerprint
image.
3.3.14 the cards shall be constructed of top quality, highly durable and resilient PVC plastic or a
PVC/Polyester composite material for use with Smart Card readers.
General Requirements
The controller shall be modular in design and shall embody the fundamental design concepts of simplicity,
flexibility and power in the following ways:
• Shall be based on distributed intelligence concept which provided system speed and integrity
3.4.1 Each controller shall be able to drive up to eight Card readers of any technology.
3.4.2 The controllers shall be connected via flexible multi drop RS 485 interface which can
connect almost unlimited number of controllers.
3.4.3 The controller shall be capable of handling 100 card holders. This shall be able to expand
up to 200 card holders if required.
3.4.4 The transaction buffer should hold up to 8000 events. This should be expandable to 16000
events if required.
3.4.6 The access parameters for each reader shall be configurable from the software.
3.4.8 The plug in input output module shall support configurable input/ output control.
3.4.9 Controller and modules shall meet the requirement of European EMC directive
89/336/EEC.
3.4.10 the remote controller panel shall concentrate" activity data and send it on to the central
computer. The remote controller shall also transmit control and access information
throughout the system, when required.
3.4.11 the controller panel shall be housed in a locked, tamper protected metal cabinet.
3.4.12 It shall have RS 232 interface for a PC or a printer. It shall provide un-interruptible power
source for the entire system with 0.5A power for each locking device.
3.4.13 the controller shall have sufficient auxiliary alarm inputs for connecting the magnetic door
contacts of the external doors.
4.1.1 The operating system used by the Central Control and Management Computer System
shall be Windows based.
4.1.2 The central controller shall be easy to use, make extensive use of graphical
site plans and shall require a minimum of operator training before they can
operate the system proficiently.
4.1.3 The central controller shall allow for speedy activation of operator functions through the
selection of on-screen icons.
4.1.5 The software shall support 100 cardholders in standard and expandable to 200 if required.
4.1.6 The central software shall have the ability to control minimum of 200 doors.
4.1.10 the software shall give a holiday calendar for three years with 40 holidays per year.
The screens shall provide easy entry and display of holidays for last year, this year
and next year of three holiday types.
4.1.11 Provide for ID badging facility along with the Security Management Software. The ID
badging facility shall include Card printer, Software, Camera and Scanner.
4.1.14 the software shall have the capability of software integrating with standard CCTV vendors.
4.2 Security
4.2.3 The software shall support local as well as global anti pass back.
4.2.5 Variable password security levels shall be possible. Each operator shall have a unique
password. It shall be possible to define permission to each operator to use different
functions and databases.
4.3 Alarms
• Door open
• Door forced
• Alarm input
• Tamper
• Controller tamper
• Communication failure
4.3.1 In alarm Acknowledge option the operator shall be prompted to take actions and enter
comments before clearing alarms
4.3.2 Alarm conditions shall be displayed with sound if required on floor plans of building.
4.4.1 History log with automatic deletion of time expired data shall be possible.
4.4.2 The system shall be able to print full or selectable history reports.
4.4.3 Selective card transaction tracing shall be possible i.e. Nominated cards shall be traced at
all doors and all cards shall be traced at nominated doors.
4.4.5 Database backup and restore shall be possible in order to protect the data.
4.4.7 It shall be able to produce time recording reports. i.e reports showing the hours a cardholder
was IN per day and over a defined period.
4.5.1 The system shall have basic visitor card function which uses validation date
function
4.5.2 Cards shall be pre entered for a valid period in the future and it shall be possible to disable
cards during a defined holiday period.
4.5.3 Card shall be able to disable temporarily and the disabled cards shall be
traced as alarm cards.
4.5.4 Up to eight issues level shall be possible for each card number.
4.7 System
4.7.1 The software shall support automatic system configuration by which it generates a system
list by polling the installed controllers.
The access control doors shall be fitted with appropriate door hardware such as Electric
Release/Bolt or Magnetic Lock based on the type of door and to the Engineer’s approval.
The exit shall be through Heavy Duty push buttons and shall be recorded at the Security
Management Software.
All Doors shall be equipped with Door Contact Switches for Door Monitoring.
A. Magnetic locks and solenoid locks shall operate on fail safe principle. During fire alarm
condition the locks shall remain unlocked. Necessary interface and co-ordination with
other system shall be taken care of by the Electrical contractor.
The entry reader shall be located adjacent to the entry barrier. The reader shall be mounted in
such a way that the driver shall be able to display the card for access without leaving the
car. The exit barrier shall be controlled by loop. Necessary safety loop shall be provided at
the entry and exit barrier as required.
1- The reader shall be weather proof.
2- Minimum reading angle shall be 45 degc
3- Operating temperature – 20 C to 70 deg C
4- Storage temperature – 20 deg.C to 80 deg. C
5- Relative humidity – 90% without condensation.
f. Provide detailed maintenance schedule covering full D.L.P Period; schedule has to be
submitted during the (T & C) period for review/comments.
2. Contractor will consider min (2) year warranty period for full system from handing over date.
3. Contractor has to provide the End-User/Client proper training for operating all systems, training
schedule/agenda has to be submitted for approval in (15) days prior handing over date.
4. Contractor is fully responsible to obtain related authorities approval prior to start site activities in
accordance with project programmer of work.
5. Contractor has to submit MEP Room’s layout with all equipment well-coordinated with all
allocated & stamped by specialist.
6. Temporary & suitable power supplies have to be provided for testing& commissioning like
(certified generator, UPS, .Etc.)
7. Contractor is fully responsible to provide the required instrument for testing &commissioning with
the latest system technology in the market & as per engineer requirement.
PART 2 PRODUCTS
B. The Automatic Gate Barrier System shall be fully integrated with other security systems
and the overall system shall be managed by the Integrated SMS.
C. Automatic Gate Barrier shall be crash tested and certified by a certifying agency such as
DOS, DOD, ASTM, BSI (British Standards). Contractor shall submit for consideration
different products with suitable crash testing certificates for the Engineer’s approval.
The product approval shall be based on evidence presented and only the best product
matching the requirements shall be selected.
D. The automatic gate barrier system shall be suitable for vehicular access that features an
adjustable electronic anti-crushing safety. Hybrid Barrier Gate shall be provided for
continuous heavy-duty use.
c. Control unit
i. Provided with one lockable service door to provide access to the power switch,
controller and control wiring for service.
ii. Lock is secured with a double cam to secure the hood and the front access
a. Motor: 36 VDC brushless motor, 200 W @ 6.000 Rpm, immersed in oil bath
b. Hydraulic pump
i. Internal Diameter: 25 mm
d. Balancing lever: keeps the pistons and the boom balanced in every position thanks to
a balance spring attached on one of the two plunging pistons.
G. Control Unit: Integrated 24 VDC controller with 2 digits display, 8 digital inputs, 4
programmable digital outputs
b. Integrated Loop Detectors: 2 double channel loop detectors, with high sensibility
c. Digital inputs:
g. 4 self-resetting fuses
j. 8 Quick plugin connectors: encoder, motor, BUS, radio receiver / decoding card,
battery, power supply, lamp and beam sensor.
ii. 1 network 16-pin slot for GSM, Wi-fi and LAN connectivity.
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o. Master/Slave manageable
a. Encoder: absolute magnetic encoder, integrated and mounted directly on the shaft
for optimal control in any position.
I. Performance
i. Beams:
l. Dimensions:
m. Weight
n. Materials
i. External case:
ii. External case: treated with Epoxy Zinc Primer 60-100 microns microns, then
powder coated.
q. Colour
J. Features:
d. Built-in position sensors with no limit switches providing beam position status and
selflearning control to optimum braking and eliminate boom beam bouncing, sagging
or rotating of position.
a. Beam: extruded aluminium shop finished with white powder coat with red reflective
tape strips LED light (IP65), equipped with a rubber profile on the bottom
a. Beam: extruded aluminium shop finished with white powder coat with red reflective
tape strips, equipped with a rubber profile on the bottom
Aluminium 6060
to 7, 3 m. 2.2 ACCESSORIES
b. Back-up batteries: compatible for emergency operations during lack of power supply.
c. GMS, Wi-Fi and Ethernet module that allows for a complete gate status, control
query, reconfiguration and management from a remote location.
d. Key switch
h. Foundation plate
i. Heater
j. Skirt kit
l. Articulated kit
i. Resistance force:
c. 55 N for 7 m beam
p. Anti-panic system: for manual opening of the beam in the event of power cut
PART 3 EXECUTION
3.1 GENERAL
A. Installation shall include the delivery, unloading, setting in place, installation of
external systems, fastening to walls, floors, ceilings, counters, or other structures
where required, interconnecting wiring of the system components, equipment
alignment and adjustment, and all other work whether or not expressly required
herein which is necessary to result in complete operational system.
B. During the installation, and up to the date of issuance of the taking over certificate,
the Contractor shall be under obligation to protect his finished and unfinished work
against damage and loss. In the event of such damage or loss, he shall replace or repair
such work at no cost to the Client.
A. Locations of all security devices especially external security devices indicated on the
drawing are not final. Contractor shall carry out location tests to find position of the
devices.
B. Location tests shall be carried out with appropriate tools to determine the best
location which gives optimum coverage of the areas.
C. The location of automatic gate barriers, vehicle scanning system and fixed bollards
specified in the drawings are indicative. The Contractor shall discuss the operational
requirement of gate barriers and install the barriers accordingly in line with security
house location.
D. The Contractor shall comply with applicable requirements of the laws, codes,
ordinances and regulations of the authorities having jurisdiction; and also obtain
necessary approvals from all such authorities.
E. The Contractor shall have approval for the all the equipment and interfaces proposed
before processing for procurement. If any of the equipment are found to be installed
without necessary approval Engineer reserves the right to the get the equipment
replaced at his satisfaction without any additional cost.
F. Contractor shall comply with applicable requirements of the laws, codes, ordinances
and regulations of the authorities having jurisdiction; and obtain necessary approvals
from all such authorities
G. Contractor shall study the contract drawings, schematics, details, and specifications
to understand the design intent completely. Contractor shall consider his solution
design and all other associated works in full compliance with local authority guidelines
and regulations. No variations shall be accepted at any stage of the project.
B. All equipment, cabling etc. shall be installed in locations as indicated on the floor plans,
drawings and specification or as instructed by Engineer on site.
C. All cables shall be run inside conduit or trunking which shall be provided by the electrical
Contractor.
E. For the installation of equipment and cable, consideration shall be given not only to
operational efficiency, but also to overall aesthetic factors.
G. Contractor shall ensure that all external infrastructure layouts and road plans are referred
to allocate the correct location for the external security equipment.
H. Contractor shall coordinate with Electrical Contractor for required power supplies based
on the operational requirements of the proposed systems.
I. Contractor shall coordinate on site and ensure that automatic vehicle scanning system
units are interfaced with the drainage pumps.
on run sheets. K. The Contractor shall provide tags as approved by Engineer for all cables
and equipment.
c. Check all control functions, from all controlling devices to all controlled devices,
for proper operation.
d. Adjust, balance and align all equipment for optimum quality and to meet the
manufacturer's published specifications. Establish and mark normal settings for
all level controls on equipment and record these settings in the "System
Operation and Maintenance Manual".
e. Maintain documentation of all performance tests for reference during the System
Acceptance Tests.
B. The Contractor shall provide all necessary facilities and instruments for the witnessing
and checking of such tests, but this shall not relieve the Contractor of his responsibility
for testing and satisfying himself of the adequacy of the installation beforehand.
C. Contractors testing and commissioning report shall be submitted for Engineer review
and Site Acceptance test shall be based on the test results submitted to Engineer.
Engineer shall have the authority to verify the test results for all devices or choose
devices at random for verification of test results submitted by the Contractor.
3.6 MAINTENANCE
A. Apart from his contractual responsibilities for making good inherent defects, the
Contractor shall furnish full comprehensive maintenance service free of charge on the
entire equipment supplied and installed under this Contract from the completion of
the installation under this Contract, until twelve month after the issue of the
Employer's taking over certificate of the works as a whole. Maintenance shall include
systematic and periodical examination, adjustment and configuration of equipment
which shall be submitted to the Employer for approval.
B. During the stage of “Beneficial Use”, “Trial-Run” and Defects Liability Period, the
Contractor shall also repair or replace all passive, active electronic, electrical and
mechanical parts of the equipment wherever this is required and shall use only
genuine standard parts produced by the manufacturer of the equipment concerned.
In the case if standard parts being not readily available, a substitute may be accepted
for emergency subject to the condition that the whole system shall be safe in use and
must be replaced with the standard part as soon as possible all at the Contractor's
expense.
D. During the Defects Liability Period the Contractor shall provide the tower of 24-hour
“call-out” whereby at any time of the day or night, to despatch skilled engineer to
repair any equipment that has broken down, failure and/or damage. The engineer
must arrive on site within 2 hours after received the report of failure.
3.7 TRAINING
A. The Contractor shall provide on-the-job training by a suitably qualified
instructor to instruct them in the operation and maintenance of the systems. In the
event the Contractor does not have qualified instructors on staff for certain
sophisticated equipment, a manufacturer's representative for such instruction shall be
provided by the Contractor at no additional cost.
B. All training shall take place after the systems are operational, but before the
acceptance tests. There shall be a minimum of (three days) of technical training on
the systems included in this specification.
END OF SECTION
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1.1 GENERAL
a. This section describes the basic requirements for the supply, installation, testing and
commissioning of a fully operational CCTV system comprising of: IP cameras, Video Management Server
Software, Video Recording Server Software, network Video Recorders, Console, Monitors & Personnel
Computers, Control Keypads, necessary software licenses and all associated cabling as indicated in the lay
out and schematic drawings. Cameras with accessories, recording, viewing software shall all be of the
same make for system compatibility between hardware and software equipment and shall be capable of
fault free up-grade.
b. It is the responsibility of the contractor to obtain clarification on all matters in which doubt exists
as to the exact intent of this document or in which a conflict appears to have arisen. Such information
must be obtained before the closing and lodging of tenders.
c. The contractor shall comply with all of the legal regulations, including all regulations of municipal,
city, local,SIRA regulations and other government agencies having jurisdiction concerning the work of the
contractor. The contractor shall obtain SIRA APPROVAL FOR THE SYSTEM
d. The contractor shall give all notices and comply with all laws, ordinances, codes, rules and
regulations bearing on the conduct of the work. If the contractor performs any work, which is contrary to
such laws, ordinances, codes, rules and regulations, he/she shall make all changes to comply therewith
and bear all costs arising there from.
e. The contractor shall be responsible for ensuring the correct cabling in a 1 + 1 redundant manner
is provided within the lift travelling cable for each of the service defined within the security specification
and that all space and power provisions are required as per the Employer requirements.
a. The system shall include IP cameras distributed as indicated in the Contract Drawings. Cameras
shall be generally of dome type housing. IP cameras shall be provided in all locations where the cable
length is within 90mt. from the nearest edge switch.
b. The DPS Certified Integrator shall ensure that The CCTV components and system shall have been
thoroughly tested and proven; manufacturer shall be able to provide the test certificates of the hardware
c. The DPS Certified Integrator shall ensure that the manufacturer has at least 5 years of experience in
CCTV IP industry, shall have all relevant references, the same details shall be presented to the Employer
when requested.
d. The DPS Certified Integrator shall have a minimum of 8 – 10 years of experience in installation
similar IP CCTV systems in the region and specifically 5 years’ experience with Security Implementations
in accordance with (Department of Protective Systems) Law 24 of 2008, the references of which will be
submitted to the Employer as part of the Tender Submission.
e. The DPS Certified Integrator shall ensure that all systems and components shall be provided with
an explicit manufacturer warranty of minimum 2 yrs on all CCTV hardware components including the
hard disk arrays.
f. The DPS Certified Integrator shall ensure that the manufacturer propose products with latest technology,
no end of life / obsolete models shall be offered.
g. The DPS Certified Integrator shall ensure that all the outdoor cameras are IP66 design rated
suitable for outdoor environment.
h. The DPS Certified Integrator shall ensure that the manufacturer possess ISO certification or
follows a quality assurance internal program and shall provide a valid certificate or documentation to
prove such, along with the submittal.
i. The DPS Certified Integrator shall ensure that the manufacturer shall have at least one local regional
office.
j. The DPS Certified Integrator shall ensure that all the cameras proposed shall be CE and UL certified and
POE (power over Ethernet) enabled.
k.The DPS Certified Integrator shall ensure that the proposal must include all required software licenses
to operate the system with no mandatory re-occurring fees. The software shall also be expandable with
no limitations on the size of the system and should have the capability to interconnect to a central
location. The software must be open protocol and non-proprietary and have a proven install base in the
region.
l. The DPS Certified Integrator shall ensure that where cable length exceeds 90m but is within 250m, - POE
extenders are to be provided of in industrial grade build for outdoor use... For cameras with cable length
more than 250m, four-core multimode fibre optic cable 50/125 micron shall be provided between the
camera and the telecom room. Fibre Optic transmitters / receivers required for these cameras shall be
provided by the CCTV subcontractor. Alternatively contractor can provide a single POE extender unit
capable of reaching 1000m range using a shielded CAT6 cable of customized length.
m. The DPS Certified Integrator shall ensure that all containment systems are provided with a
minimum of 30% expansion capacity.
n. The DPS Certified Integrator shall ensure that the video encoders are housed in the 19” equipment
cabinet provided by the Structured Cabling Contractor.
o. Data outlets required for the IP cameras and video encoders shall be provided by the structured
cabling system sub-contractor. CCTV sub-contractor shall coordinate with the structured cabling sub-
contractor to ensure that the data cables are provided at the final locations of the cameras.
p. The DPS Certified Integrator shall ensure that the CAT6 cables are directly terminated into the
back of the CCTV cameras removing the necessity to install data points if this can be achieved. No cables
shall be exposed.
q. The Camera locations shown on the Contract Drawings are indicative only. The specialist
subcontractor shall carry out a survey using a portable camera and a monitor to identify the best position
of each camera to achieve optimum coverage and to ensure compliance with (Department of Protective
Systems) Law 24 of 2008. This survey shall be carried out once the structure is in place and before
proceeding with containment Works.
r. The recording system shall be managed by network Video Recording Management applications residing
on servers in the Data Centre. The servers shall be of redundant configurations and shall be located in
the Data centre room at the lower ground floor. The network Video recording system shall facilitate
management of distributed recording devices as well as Workstations and monitors.
s. The DPS Certified Integrator shall ensure that all elements of the Security Network and specifically the
CCTV system is fully redundant with dual servers for the Video Recording System and the Video
Management System.
t. The DPS Certified Integrator shall ensure that dual controllers are provided for the CCTV storage. All hard
disks must be of an enterprise class and relevant RAID configurations must be assumed in the overall
storage calculations.
u. The main monitoring station for the CCTV system shall be in the security room. The monitoring
station shall include 4 x 50” LCD monitors mounted on the wall allowing multi-screen displays. Two
monitors shall be configured to view multi-screen displays of selected sensitive cameras for continuous
monitoring. The third monitor shall act as the alarm monitor, popping up images from cameras in alarm.
It shall be possible to manage display configurations; selection of camera for panning, tilting or zooming
using a single keyboard and the fourth monitor shall be configured to view pre-programmed groups of
cameras in sequence mode. The monitoring stations shall have video wall management capability
embedded into the video management software offered.
v.The Workstations at the operator console in the CCTV monitoring room shall be dedicated CCTV
Workstations. One shall be used for live streaming video of any specific camera and Site maps, the
second one shall be for playback of recorded videos. It shall also be possible to playback image on the
alarm monitor on the wall.
w. The operator console shall be provided with a colour laser printer to take print outs of still images
associated with an alarm.
x.For storage calculation purposes all cameras shall be assumed to be recorded on a continuous basis.
Storage devices and servers shall be accommodated in the designated Security room.
y.The DPS Certified Integrator shall ensure that video from a maximum of -55 cameras shall only be
recorded in one recording device.
1.3 SUBMITTALS
PART 2 PRODUCTS
General requirements:
1. The DPS Certified Integrator shall ensure that recording devices shall be capable of storing recorded
images for a period of 31 days. Storage requirements shall be calculated based on the following
assumptions: All alarm triggered recording shall be at 25fps, SVGA and continuous recording shall be
at 12 fps SVGA. Specialist subcontractor shall submit memory storage calculations to the approval of
the Engineer.
2. The Contractor shall allow within their pricing, the cost for supply, installation, testing and
commissioning of additional 15 cameras to provide CCTV coverage of the ATM lobbies, Public
Telephone, Cash Counters and information desk and LPG cylinder areas. These cameras are in addition
to the PTZ cameras required for perimeter surveillance. The contractor shall coordinate the exact
location of the PTZ and fixed indoor cameras at site and shall provide coverage to these areas
complying with DPS Law 24:2008 guidelines.
3. The DPS Certified Integrator shall ensure that the following is provided as a minimum requirement
under (Department of Protective Systems) Law 24 of 2008:
4. Only network video recording devices must be used. DVR’s or analog hybrids will not be accepted. The
system has to be fully IP compliant. All proposed recording systems must have unlimited scale-ability
and be of open platform non-proprietary nature.
5. Recorders must have the capability to produce media copies of images and video footage and these
should be in a standard media player exportable format.
6. The CCTV system must have the capability of live display at high quality of no less than 25 frames per
second for each IP camera.
8. Recorders must be capable of handling data loads for recording in full frames 25fps at a minimum of
3MP if required...
9. Recorders must have the ability of continuous recording at all times including when motion or alarm is
detected.
10. Recorders must provide playback of pre-alarm recording for no less than 2 seconds in motion recording
mode. This feature should be adjustable.
11. Recorders must have the time and date stamp on the recorded images and all recordings must be
watermarked and stored in encrypted form.
12. Recorders must have the ability to search by time, date, camera, event, location and using mapping.
13. Recorders must be able to resume recording automatically in case of system restart or power recovery
after failure.
14. Image and video playback software must be provided and it should be MS Windows OS compatible.
16. The operator must have a maintenance contract for the Security Systems and its components including
24/7 support.
17. The operator must have a logbook wherein all digital recordings of HD backups, CD/DVD and USB
copies and backups, are recorded with time, date, name and signature of the operator. The VMS used
should also have an audit trail of all user activity.
18. All cameras in the recording device must be numbered or named as per their location.
19. The operator must have a logbook wherein all maintenance and cleaning of the Security System are
recorded with details, date, time, name and signature of the operator. A monthly report is also to be
provided in soft copy format.
20. Recorders must be set at no less than 2 seconds of pre-alarm recording in motion recording mode.
22. All digital recorders must be set to real actual time and date. All devices on the network must use a
synchronized central clocking system.
23. There must be a dedicated independent LAN network for the CCTV system minimum 1GB passive
capacity...
24. There must be a firewall and a LAN network protection and security system in case the CCTV network
is connected with another network.
25. All recorder suppliers must provide the operator and the Competent Department with an image and
video footage playback software through LAN network and on PCs.
26. The employee in charge must be properly trained to run the recorders and produce or load images and
video footage on media. He also must ensure the system is properly functioning and report any
malfunction to the contracted warranty company.
27. All cameras at entries to the establishment (to provide Identification View);
28. All cameras at reception and information desks (to provide Recognition view);
29. All cameras at lift lobbies at all floors, or as deemed by the Competent Department (to provide
Recognition View);
32. All cameras at emergency staircase doors on all floors, or as deemed necessary by the Competent
Department;
33. All cameras at entry/exit points to the establishment and parking areas (to provide Licence Plate View);
34. All cameras at loading and offloading areas (to provide Detection View);
35. All cameras at vehicle drop off areas (to provide Detection View);
36. External cameras, those located close to entry / exit points and any others deemed necessary, in
addition to being IP66 rated shall have a 50c + rating and where required include light finder
technology.
Definitions:
• Camera View: A scene captured by the camera and displayed on the monitor screen.
• Object View: A view of 1.8 m height human body fully displayed on the monitor screen
• Licence Plate View: View of a vehicle licence plate with dimensions of 330x160 mm
View Classification:
• Identification View: Ability to identify any unknown individual for the first time in a view where his body
is displayed on 120% of the monitor screen.
• Recognition View: Ability to distinguish a known individual from other known individuals in a view where
his body is displayed on 50% of the monitor screen.
• Detection View: Ability to detect any moving object/body on the screen and recognise the body in a
view where it is displayed on 10% of the monitor screen.
• Monitoring View: Ability to monitor general activities in a view where anybody is displayed on 5% of the
monitor screen.
• Licence Plate Reading View: Ability to read clearly the numbers and letters on the licence plate in a view
where the licence plate is displayed on 20% of the monitor screen.
CCTV system:
A. Material
1. General: Provide material of types, sizes, capacities and electrical characteristics indicated. Except as
otherwise indicated, provide manufacturer's standard Closed Circuit Television system components as
indicated by their published product information, designed and constructed as recommended by
manufacturer.
1. 1/3" progressive scan imaging sensor with a minimum of 960 x 720 pixels
2. Digital zoom capabilities: Minimum 2X- 16X
3. Signal-to-noise ratio better than 68db
4. Automatic True Day/Night (Colour/Monochrome) switchover mode
1. Housings on exterior mounted cameras must provide a minimum IP66 rating and include integral sun
shield and have an operating range of 50+ degrees for the camera.
2. Interior flush mounted housings must be rated for use in an air plenum space
3. Mounting brackets shall be powder coated cast aluminium, painted welded steel or reinforced
composite construction. Plastic shall not be allowed.
4. Colour selection shall be coordinated with the Interior Designer.
All PTZ cameras shall be dome style construction with integral drive and communication circuits as
follows:
1. Image sensor 1/2.9” progressive scan RGB CMOS.
2. Lens f=4.7–84.6 mm, F1.6–2.8, autofocus.
3. Horizontal angle of view: 59°–4°.
4. Day and night automatically removable infrared-cut filter.
5. Minimum illumination.
6. Colour: 0.4 lux at 30 IRE F1.6; B/W: 0.04 lux at 30 IRE F1.6.
7. Shutter time 2 s to 1/28000 s.
8. Pan/Tilt/Zoom Pan: ± 135° : 0.2°–350°/s; Tilt: 0°– 90°.
9. 18x optical zoom and 12x digital zoom, total 216x zoom.
10. 100 preset positions, Limited guard tour, Control queue, Focus window, On-screen directional
indicator.
11. Video Compression H.264 Main and Baseline Profiles (MPEG-4 Part 10/AVC) Motion JPEG.
a. System shall provide enterprise hard drive storage means for video and operating software
configured for fault tolerant operation. The drives must be hot swappable without the loss of data or
requiring the system be taken off line to restore the data.
b. The system shall provide thirty (31) days of on-line storage that shall be retrievable without delay
and not utilize any tape storage devices to archive images.
c. Long-term storage of selected video events shall be via high capacity removable optical storage
media which shall include an integral player and authentication program with the recorded video
information.
d. The recorder shall continuously record images from all associated inputs at not less than (12)
frames per second at a resolution of 640 x 480
e. During alarm events as indicated through the integration with the Access Control System, the
digital recorder shall increase the frame rate to a minimum of 25 frames per second and the resolution to
a minimum of 960 x 720 on the camera input associated with the alarm event.
f. The recording system shall be multi-tasking, permitting the simultaneous recording, playback, live
viewing and archiving of video without degrading the performance of any functions
g. The recorder shall act as the gateway for viewing live video from cameras associated with the
recorder and reside directly on the LAN. Video shall be passed through the recorder to the monitoring
centres on demand in order to minimize network traffic. The recorder shall be capable of passing all
cameras associated with it to the monitoring centre for live viewing if required.
1. The system shall utilize a PC based Graphical User Interface (GUI) to select and control cameras for
viewing or positioning via the pointing device of the PC.
2. The GUI shall provide for an interactive drawing of the facility showing icons representing locations of
security devices. The icons shall allow the operator to graphically "drill down" through the levels of the
building to reveal in greater detail exact locations of security devices.
3. Using the pointing device of the PC, the operator will be able to select what camera is displayed at that
workstation by clicking on the icon representing the camera. A similar scheme will be applied to
associating other monitors with cameras. The GUI shall include icons for PTZ control that will allow the
operator to position the view of the camera to suit the surveillance needs of the operator at that time.
4. The system shall also provide a "hardware tree" means of assigning cameras to monitors utilizing
standard Windows based drag-and-drop actions.
5. The GUI shall allow for fully integrated operation of the NVR system...
6. The software must have mapping capability and provide an SDK for integration into other systems.
H. Uninterruptable Power Supplies: UPS units shall have active line voltage regulation to "buck" or
"boost" incoming line voltage passed through to the connected load, limiting the UPS from switching to
battery power only when incoming voltage regulation cannot be maintained. Units shall have
communication ability to remotely indicate UPS circuitry malfunction and to provide for the orderly
shutdown of connected equipment just prior to the UPS backup capability expiring.
Scope of work:
1. The scope of Works included under this particular section is detailed below:
a. Supply and installation of CCTV cameras, multi- screen displays, Workstations, network attached
storage array and cables as required making a fully operable security system in accordance with the
specifications, Contract Drawings and Bill of Quantities (BOQ) issued with this tender document.
b. Supply and installation of all rack mounted UPS requirements for all IDF locations. DPS Certified
Integrator shall identify all the UPS requirements, for the IDFs only, and price separately within the
Tender submission.
c. Camera site location tests to accurately position the cameras based on the indicative locations shown
on the Contract Drawings.
d. Preparation of Workshop drawings detailing the containment routes, camera mounting arrangements,
security monitoring room and security equipment room (in Data Centre) lay out and schematic
diagrams.
e. Supply and installation of operator console for the CCTV security monitoring room in the ground floor.
f. Technical Training to Employers Maintenance personnel.
g. Documentation as specified in this section.
h. Warranty services for the complete system from taking over certificate as defined in the contract.
I. Infrared Illumination :
1. Pole mounted fully functional conventional cameras viewing the perimeter and vehicular
entrances shall be fitted with a single infrared illuminator with power supply and mounting bracket. The
illuminator must be robust and weatherproof.
2. The illuminator shall have an output range of approximately 200mm with a range of beams from
spot to wide angle.
3. All lamps shall incorporate covert filters (950nm) and shall not produce any visible red glow. The
camera type used with these lamps shall be sensitive to infrared light at this frequency.
4. Conventional static cameras that require infrared illumination shall be fitted with a single infrared
illuminator, power supply and bracket.
5. Where infra-red lighting is specified they shall not, together with their mounting hardware, affect
the minimum travel requirements of the pan / tilt unit.
6. Where infra-red lighting is specified they shall have the capability to be controlled from the
Controller by manual operation.
7. The normal condition of the infra-red lighting shall be "OFF" and if required shall only be switched
"ON" by the operator. Should the lighting be left "ON", it shall automatically reset to the "OFF" condition
following a user programmable period (e.g. 2-20 minutes). It shall be possible to override this control and
leave the lamps on continuously, during the hours of darkness only, on an individual camera basis. An
associated photocell shall be fitted to prevent illuminators from being accidentally switched on during
daylight hours. Video Transmission:
1. All internal video and data signals shall be transmitted over the IP transmission network via the LAN
specified under a separate section. A data outlet point shall be provided by the structured cabling
system sub-contractor to every camera located within 90m from the nearest edge switch, enabling
connectivity to the network.
Power Requirements:
1. All internal and external IP cameras shall utilize Power over Ethernet (PoE) technology including,
dome, fixed and PTZ cameras.
1. The Digital Video Management System shall be installed at the Data Centre room. The hardware
specifications shall be to the requirements of the vendor of the management system, but shall have
minimum features as listed elsewhere in this specification section.
2. The video management system (VMS) shall be a fully redundant (2 x servers and associated software &
licenses) enterprise-class Employer / server based IP video security solution that provides seamless
management of digital video, audio and data across an IP network. The video management system shall
support ONVIF compliant 3 rd party products as part of a total video security management system to
provide full virtual matrix switching and control capability. Video from other sites may be viewed from
single or numerous Workstations simultaneously at any time. Cameras, recorders, and viewing stations
may be placed anywhere in the IP network.
3. The VMS shall support ONVIF compliant cameras. It shall be possible to access live streams and to
control PTZ functionality for future enhancements.
4. It shall be possible to record ONVIF compliant cameras. For recording only, 3rd party cameras that
support H.264 shall be supported.
5. The VMS shall have the facility to provide a transcoding service for supporting iPad and iPhone devices
as mobile video Employers.
6. The VMS shall have the ability to be extended to other Emaar Properties developments including ESG.
A. The Digital Video Management System (DVMS) shall be a fully distributed solution, designed for
large multi-site and multiple server installations requiring 24/7 surveillance with support for devices from
different vendors. The DVMS shall offer centralized management of all devices, servers and users and shall
empower a flexible rule-based system driven by schedules and events.
B. The DVMS shall allow for an unlimited number of cameras to be connected to each recording
server and for an unlimited number of recording servers to be connected to each management server
across multiple sites if required.
C. The DVMS shall support Microsoft Windows XP PRO, Server 2000 and Server 2003 with the latest
patches and service packs installed. The system shall use Direct X and .Net 2.0.
D. The DVMS shall incorporate fully integrated Matrix functionality for distributed viewing of any
camera in the system from any computer with the Smart Client or Matrix Monitor application installed.
E. The DVMS shall include support for a graphical alarm management application module. The alarm
management module shall allow for the continuous monitoring of the operational status and event
triggered alarms from system servers, cameras and other external devices. The alarm management
module shall support graphical displays with interactive icons to display the status of cameras and other
inputs.
F. The DVMS shall include support for a transactional data module designed to integrate with Point
of Sale (POS) or Automated Teller Machine (ATM) data and time-link video recordings with POS or ATM
transactions.
G. The DVMS shall include a Software Development Kit (SDK) that shall offer important capabilities
for integrating the system with 3rd-party software. The SDK shall enable the user to:
1. Retrieve live and recorded video in several ways:
a. In raw data format either encoded or decoded or
b. As a window to be resized and shown embedded in another application.
2. Create plug-in components for the Smart Client.
3. Control the operation of Matrix Monitor.
4. Retrieve alarm / event information
5. Integrate data sources for the transactional data module.
H. The DVMS shall include a stand-alone Viewer application to be included with video
exported from the Client Viewer application. The Viewer application shall allow recipients of
the video to browse and playback the exported video without installing separate software on
their computers.
I. The DVMS shall include support for Active Directory to allow users to be added to the system.
Use of Active Directory requires that a server running Active Directory, acting as a domain
controller, be available on the network.
J. The DVMS shall consist of the following five major components:
1. Management Server
2. Recording Server
3. System Manager
4. Client Viewer
5. Matrix Monitor
The system shall be designed to support each component on the same computer for efficiency in smaller
systems or each component on separate systems for large system deployments.
A. The Management Server shall store the system’s configuration in a relational database, either on
the management server computer or on a SQL Server on the network.
B. The Management Server shall be capable of integrating with legacy servers on the same network.
C. The Management Server shall support redundant / parallel ISCSI drives for the Operating System
data.
D. The Management Server shall manage all user authentication and user rights.
E. The SQL Server shall store all of the system settings created by the Management Server.
F. The Management Server shall run as a service and typically run on a dedicated computer on the
network.
G. The Management Server shall support static assigned IP addresses or shall obtain IP address from
a DNS/DHCP server.
H. The operational status of the Management Server shall be displayed in the system tray. Icons in
the system tray shall indicate the status; Starting, Running, Stopping and Stopped.
I. The Management Server shall maintain a continuous log of server status messages accessed from
the status Icon in the system tray.
J. System Requirements
1. The following are the minimum requirements for the computers running the Management Server
application. a. CPU – Intel P4 or higher, minimum 2.4GHz
b. RAM – Minimum of 1 GB (2 GB recommended)
c. Network – Ethernet (100 megabit or higher recommended)
d. Graphics Adapter – PCI, AGP, PCI-Express, minimum 1024x768, 16 bit color
e. Hard Disk Type – E-IDE, PATA, SATA, SCSI, SAS (7200 RPM or faster)
f. Hard Disk Space – Minimum 80 GB free (depends on number of cameras and recording settings)
g. Operating System – Microsoft Windows 2000 Server and Advanced Server, Windows XP
Professional (32 and 64 bit), or Windows Server 2003 (32 and 64 bit)
h. Software – Microsoft .NET 2.0 Framework, and Internet Information Services (IIS) 5.0 or newer
A. The Recording Servers shall be used for recording video feeds and for communicating with
cameras and other devices. The recording server(s) shall communicate the Management Server.
B. The Recording Servers, once configured, shall run independently of the Management Server and
continue to operate in the event that the Management Server is off-line.
C. The system shall support an unlimited number of recording servers. One or more Recording
Servers may be used in a system depending on the number of cameras or physical system configuration.
D. The system shall support the use of separate networks, VLANs or switches for connecting the
cameras to the recording servers to provide physical network separation from the clients and facilitate
the use of static IP addresses for the devices.
E. The system shall support MPEG-4 and MJPEG compression formats for all analog cameras
connected to encoders and all IP cameras connected to the system.
F. The system shall support dual-streaming (MPEG-4 / MJPEG) cameras with each stream connected
to a
separate recording server. This shall allow each stream to be viewed independently by the Client Viewer.
G. The system shall record the native frame rate and resolution (NTSC, PAL or Megapixel) supplied
by the camera or as configured by the operator from the System Manager.
H. Each Recording Server shall have a default storage area. A storage area is a directory where the
database content, primarily recordings from the connected cameras is stored. Recordings from the
connected cameras shall be stored in individual camera databases. The system shall allow an unlimited
amount of storage to be allocated for each connected device.
I. The system shall allow archiving to be enabled on a per camera basis and allow the user to define
which archiving drive shall be used for each camera.
J. The Recording Server shall utilize high performance ISCSI and SCSI disk drives for on-line storage
and shall allow the use of lower cost SATA drives for the RAID arrays for on-line archive storage. Use of
online archiving shall ensure that data is always readily available. Review from either the on-line or the
archive storage shall be transparent to the user. Use of tape-backup systems shall not be acceptable.
K. The on-line archiving capability shall be transparent and allow Client Viewer users to browse
archive recordings without the need to restore the archive video to a local hard drive for access.
L. The frame rate and image quality of live video and browse (playback) video shall be the same to
the Client Viewer. M. The system shall allow for the frame rate, bit rate and resolution of each camera
to be configured independently for recording. The system shall allow the user to configure groups of
cameras with the same frame rate, bit rate and resolution for efficient set-up of multiple cameras
simultaneously.
N. The system shall include a Database Configuration Wizard for the efficient configuration of the
recording server’s database storage areas. The Wizard shall allow the user to define storage areas for the
databases of specific cameras or define new storage areas on the recording server or on a connected
network drive. To protect against lost recordings in the event a connected network drive becomes
unavailable the system shall allow the generation of email notifications to selected individuals with the
notification of the unavailability of the selected network drive. All events will be logged.
O. The system shall support Archiving or the automatic transfer of recordings from a camera’s default
database to another location on a time-programmable basis without the need for user action or initiation
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of the archiving process. Archiving shall allow the duration of the camera’s recordings to exceed the
camera’s default database capacity. Archives shall be located on either the recording server computer or
on a connected network drive. If the storage area on a network drive becomes unavailable for recording
the system shall have the ability to trigger actions such as the automatic sending of email alerts to
necessary personnel.
P. For export purposes, the system shall support 56-bit encryption of video. The 56-bit encryption
shall meet the US Government requirements on export limits for encryption.
Q. The system shall include an Archive Configuration Wizard for the efficient creation and
management of the Recording Server’s archives. The Wizard shall allow configuration of the following
criteria for recording archives.
1. Archive Name: Descriptive name for the archive
2. Path: Path to the directory to be used for archiving. (Directory may be located anywhere on the
network).
3. Default: Define if archive directory shall be the recording server’s default archive. (Note: all archiving
shall be directed to the recording server’s archive directory unless otherwise defined).
4. Database Retention (hours): Define number of hours for which recordings shall remain in a camera’s
database before the recordings can be archived.
5. Archive Retention (days): Select the maximum number of days for which recordings shall be stored in
the archive.
6. Archive Retention (GB): Select the Maximum number of gigabytes of recording data to store in the
archive.
7. Schedule: Schedule when the intervals of the archiving process will start.
R. The Recording Server(s) shall have the ability to support multiple Network Interface Cards (NIC) and
support connection to the cameras on a network separate from the Client Viewer, Management Server
and System Manager S. The Recording Server shall have the ability to accept the full frame rate supplied
by the cameras while recording a lower frame rate yet still make the higher frame rate available to the
clients for live viewing.
T. The Recording Server shall support static assigned IP addresses or shall obtain IP addresses from
a DNS/DHCP server.
U. The Recording Server shall run as a service and shall typically be installed on dedicated
computer(s), separate from the Management Server, on the network.
V. The operational status for the Recording Server shall be displayed in the system tray. Icons in the
system tray shall indicate the status; 1. Recording Server is running
2. Recording Server is stopped
3. Recording Server is starting
4. Recording Server is stopping
5. Recording Server is running offline
6. Recording Server must be authorized by administrator
W. The Recording Server shall maintain a continuous log of server status messages accessed from the
status Icon in the system tray.
X. Bandwidth Management
1. The Recording Server shall offer the following options for managing the bandwidth utilization for live
viewing on the Client Viewer.
a. For JPEG images from the camera / encoder, the output options
shall be: 1) Native = Same frame rate / resolution received from
camera / encoder 2) JPEG transcoding: a) Resolution
(1) Super High = 1 M (MegaPixel)
(2) High = 4CIF (704x576 or VGA (640x480)
(3) Medium = CIF (352x288 or 320x240)
(4) Low = QCIF (176x144)
b) Frame Rate
(1) Unlimited = Same frame rate received from camera / encoder
(2) Medium = 1/4 Native frame rate
(3) Low = 1/20 Native frame rate
2. For MPEG-4 images from the camera / encoder the options shall be:
a. Native = Same MPEG-4 resolution and frame rate received from
camera. b. JPEG transcoding:
1) Resolution
a) Super High = 1 M (MegaPixel)
b) High = 4CIF (704x576 or VGA (640x480)
c) Medium = CIF (352x288 or 320x240)
d) Low = QCIF (176x144)
2) Frame Rate
a) Unlimited = Same frame rate received from camera / encoder
b) Medium = I Frames only
c) Low = I Frames only
3. From the Client Viewer, the user shall have the option of having video images continually
streamed or only updated on motion to conserve bandwidth between the Client Viewer and the Recording
Server.
4. The system shall support the MxPEG video compression algorithm, which is unique to Mobotix.
MxPEG encoding shall have the capability to maintain high image quality for megapixel cameras while
dramatically decreasing bandwidth consumption.
The Recording Server shall support devices from at least 15 camera manufacturers
A. The system shall support full two-way audio between Smart Clients and remote devices. Two-way
audio integration shall support the following features and functions:
1. Microphone inputs to Smart Clients shall transmit audio streams to speakers attached to remote
IP devices.
2. Audio from remote IP devices equipped with microphones shall be transmitted to and recorded
by the Recording Server. The audio shall be relayed to Smart Clients equipped with speakers.
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3. Each speaker and microphone shall be assigned to a device which by default is the same as the
device that they are connected to. The speaker and microphone shall have the capability to be assigned
to other devices as well.
B. Failover Support
1. The system shall support automatic failover for Recording Servers. This functionality shall be
accomplished by one Failover Server as a standby unit that shall take over in the event that one of a
group of designated Recording Servers fails. Recordings shall be synchronized back to the original
Recording Server once it is back online.
2. The system shall support multiple Failover Servers for a group of Recording Servers.
3. The system shall provide for monitoring of all Failover Servers from XProtect Central.
4. The system shall provide seamless access to recordings on the failover server for all clients through
the same client views once the services are fully started.
C. Multicast Support
1. The system shall support multicasting of video feeds to client workstations in order to conserve
system resources. 2. Multicasting shall send a single stream of video to multiple clients, where the
stream may be decoded and displayed on all clients simultaneously. This functionality shall support
virtual matrix configurations.
3. The infrastructure provided for the system shall support IGMP for each remote network.
4. The system shall automatically switch to unicast if the client fails to connect to the multicast
stream.
D. Multistream Support
1. The system server shall accept, display and record multiple streams of video from each camera.
The intent of this functionality is to provide independent streams of video from the camera to the server
with different resolution, encoding and frame rate.
2. Multistream support shall allow the system to be configured with MPEG-4 with a high frame rate
for live viewing and shall allow the system to be configured with high resolution MJPEG for recording and
playback.
3. The system shall allow recorded video to be recorded at a lower frame rate to preserve disk space
and network bandwidth.
E. SNMP Support
1. The system shall support Simple Network Management Protocol (SNMP) in order for thirdparty
software systems to monitor and configure the system.
2. The system shall act as an SNMP agent which can generate an SNMP trap as a result of rule
activation in addition to other existing rule actions.
3. The system shall utilize Microsoft Windows SNMP Service for triggering of SNMP traps.
1. The system shall support port forwarding, which shall allow clients from outside of a Network
Address Translation (NAT) firewall to connect to Recording Servers without using a VPN.
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2. Each Recording Server shall be mapped to a specific port and this port shall be forwarded through
the firewall to the Recording Server’s internal IP address.
G. The system shall support interface with cameras that have the capability to store and transmit a
short sequence of pre-alarm images. The Recording Server shall receive these images and store them
in with the rest of the video streamed from the camera.
H. System Requirements
1. The system shall allow the use of computer, servers, storage and switches from any manufacturer with
components that meet the minimum requirements.
2. The following are the minimum requirements for the computers running the Recording Server
application. a. CPU – Intel P4 or higher, minimum 2.4GHz
b. RAM – Minimum of 1 GB (2 GB recommended)
c. Network – Ethernet (100 megabit or higher recommended)
d. Graphics Adapter – PCI, AGP, PCI-Express, minimum 1024x768, 16 bit color
e. Hard Disk Type – E-IDE, PATA, SATA, ISCSI, SCSI, SAS (7200 RPM or faster)
f. Hard Disk Space – Minimum 80 GB free (depends on number of cameras and recording settings)
g. Operating System – Microsoft Vista Business, Windows 2000 Server and Advanced Server, Windows XP
Professional (32 and 64 bit), or Windows Server 2003 (32 and 64 bit)
h. Software – Microsoft .NET 2.0 Framework, and Internet Information Services (IIS) 5.0 or newer
A. The System Manager shall provide a feature-rich administration client for system configuration and
dayto- day administration of the system.
B. The System Manager shall be typically installed on the DVMS administrator’s workstation.
C. The system shall utilize licenses to manage each recording server and camera connected to the system.
One license shall be required for each connected recording server and for each connected camera.
D. The System Manager Graphic User Interface (GUI) shall typically consist of three or four panes. The
panes shall be dynamic and change depending on the task.
1. Navigation Pane – Groups the System Manager features into categories:
a. Basics – General information and license information. The license information shall include the number
of available licenses and used licenses for recording servers and cameras.
b. Recording Servers – Management of the Recording Servers connected to the system. The Navigation
pane shall display all recording servers connected to the system in the menu tree. Each server shall be
uniquely named and identified.
c. Devices – Management of cameras, inputs and outputs
d. Rules and Alerts – Management of rules, time profiles, notification profiles and alerts
e. Security – Management of users, groups and roles
f. Server Logs – Access to the various logs in the system
2. Overview Pane – Provides an overview of the selected item. Selecting an item in the Overview Pane
shall display the item’s properties in the properties pane.
3. Properties Pane – Displays properties of the item selected in the Overview Pane.
a. The Properties pane shall include tabs for Settings, Info, Record, Archiving and Motion.
Each tab shall allow the user to customize the above settings for the selected device.
4. Preview Pane – Displays preview images from selected cameras or state information from selected
inputs and outputs.
a. The Preview pane shall display the live video from the camera or group of cameras selected. The
image size and file size (kB/frame) for each camera shall be displayed with the image.
E. Selecting a Recording Server in the Navigation pane shall display the recording server and all its
connected devices in the Overview pane. Selecting the Recording Server in the Overview pane shall
allow the user to configure the server in the Properties pane. The Properties shall display tabs for
Settings, Info, Storage and Archiving to perform the following set-up functions.
1. Settings tab – Only used for selected recording servers.
2. Info tab – Shall display server name, description, host name, web server URL and time zone (of server).
3. Storage tab – Shall allow the server storage area/location to be created, changed or removed via an
intuitive Database Configuration Wizard.
4. Archiving tab – Shall allow the user to configure and maintain archives for devices on the recording
servers via an intuitive Archive Configuration Wizard.
F. Selecting Devices in the Navigation pane shall allow the user to configure camera groups, individual
cameras, input and outputs.
1. Selecting Cameras in the Navigation pane shall display all camera groups and individual cameras in the
Device pane.
2. Selecting a camera group shall allow management of group Settings, Information, Record and Archiving
settings for the selected group.
3. Selecting an individual camera within a group in the Devices pane shall allow the user to configure
individual camera settings in the tabs of the Properties Pane:
a. The Settings tab for managing the selected camera’s settings. The following parameters are listed for
example purposes only. Each camera manufacture will include a different set of parameters which may
be adjusted with the Settings tab. The Settings tab shall allow groups of cameras from mixed
manufacturers to have their common parameters to be adjusted as a group.
1) General
a) Brightness
b) Compression
c) Contrast
d) Default Stream
e) Include date
f) Include time
g) Resolution
h) Rotation
i) Saturation
2) JPEG Streamed
a) Frames per second
3) MPEG
a) Bit rate control mode
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G. Selecting Rules and Alerts in the Navigation window shall allow the user to configure Rules, Time
Profiles, Notification Profiles and Alerts.
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1. Selecting Rules in the Navigation window shall display all rules in the Rules pane. New rules shall be
configured within the Rule Wizard based on actions performed on events or actions preformed on a
time interval.
2. Selecting Time Profiles in the Navigation window shall display all time profiles in the Time Profiles pane.
Time profiles shall be used when creating rules. Time profiles shall be used to specify when a rule is
activated. New time profiles shall be configured by start time/stop time, start day/stop day, and single
or recurring event. Time profiles shall also be in combinations with rules that are activated by events
during certain time periods. Setting time profiles shall use features similar to Microsoft Outlook
Calendar to simplify the process.
3. Selecting Notification Profiles in the Navigation window shall display all notification profiles in the
Notification Profile pane. Notification profiles shall be used to automatically send email notifications
which can be triggered by rules. The system shall allow for still frames or AVI video clips to be included
in an email notification. An outgoing SMTP Mail Server shall be required for sending email notifications.
A CODEC shall be selected and an AVI compression setting shall be specified for the generation of AVI
video clips to be included in email notifications. An Add New Notification Profile Wizard shall be
provided to configure a new profile. The system shall allow for customization and use of system
variables in the email Subject and Message text fields.
4. Selecting Alerts in the Navigation window shall display all alerts in the Alerts pane.
H. Selecting Security in the Navigation window shall allow the user to configure Users, Groups and Roles.
1. Selecting Users and Groups in the Navigation window shall display all Users and Groups in the Users Pane.
Users and groups are normally added from Active Directory, although users can also be added using local
Windows user management on the Management Server.
2. Selecting Roles in the Navigation window shall display all roles in the Roles Pane. The default role is
Administrator and this role has complete and unrestricted access to entire system and all features.
a. Roles shall automatically become Client Viewer view groups. A Client Viewer view group consists of
multiple camera views. The view group shall only be available to users/groups who have been assigned
the role in question.
b. The system shall be capable of assigning roles that consist of one or more sub-groups or camera views
that are subsets or supersets of assigned roles.
I. The System Manager shall support five different logs related to the Management Server.
1. The System Log records system-related information.
a. The system log shall be searchable by Level, Source and Event Type.
2. The Audit Log records remote user activity.
a. The audit log shall be searchable by User name, Audit ID, Source and Location.
3. The Alert Log records alerts triggered by rules.
a. The alert log shall be searchable by Alert type, Source and Event type.
4. The Event Log records event-related information.
a. The event log shall be searchable by Service name, Source and Event type.
5. The Rule Log records rules in which the Make new <log entry> action been specified.
a. The rule log shall be searchable by Service name, Source, Event type and Rule name.
6. The System Manger shall support the export of tab delimited text (.txt) files to a user defined location.
The export feature shall allow the user to define the log, log elements, and time/date range.
J. The System Manager shall be used to authorize the recording servers connected to the system and define
where each recording server will archive data.
K. The System Manager shall include a Hardware Detection Wizard to detect and set-up IP devices on the
network. The Wizard shall provide two modes of operation.
1. Automatic Hardware Detection shall allow the user to specify the IP address ranges for the IP devices to
be detected. The Wizard shall include an Auto Detect feature to detect IP devices within the specified
address range. Detected IP devices shall automatically be added to the Recording Server and displayed
under the recording server in the Navigation window.
2. Assisted Hardware Detection shall allow the user to enter the IP address, port number, user name,
password, and hardware driver. The Wizard shall include an auto detect feature for the hardware driver.
Each device added to the Recording Server will appear in the Navigation window.
L. Cameras
1. Camera Management – All cameras shall connect to the Recording Servers. Enabling / disabling cameras
shall be performed on the Recording Server management level through the System Manager.
2. Camera Database Management – Individual camera databases shall be managed through the Database
Configuration Wizard from within the System Manager client.
3. Camera Configuration – All cameras shall be configured from the System Manager Properties pane as
defined in Section 2.3.
M. Inputs
1. Managing inputs – Devices (cameras and encoders) with input ports for the monitoring of a digital sensor’s
(on/off) state shall be managed from the System Manager by selecting Inputs in the Navigation pane. All
inputs from external sensors shall be treated as events by the system.
External sensors such as door position switches can be used to trigger events that are used in rules to
automatically cause a camera to be recorded.
2. Enabling inputs – Inputs shall be disabled by default. Inputs are enabled from the System Manager in the
Recording Server. The status of an enabled input shall be displayed in the Preview pane of the System
Manager GUI. 3. Managing inputs with device groups – The system shall allow inputs to be grouped using
Device Groups. Device groups allow the user to specify common properties for all inputs in a common
device group.
N. Outputs
1. Managing outputs – Devices (cameras and encoders) with output contacts for the control of an
external device shall be managed from the System Manager by selecting Outputs in the Navigation pane.
Outputs may be activated by rules or manually by a user. Rules may be created that trigger actions when
the state of an output changes. 2. Enabling outputs – Outputs shall be disabled by default. Outputs are
enabled from the System Manager in the Recording Server. The status of an enabled output shall be
displayed in the Preview pane of the System Manager GUI.
3. Managing outputs with device groups – The system shall allow outputs to be grouped using Device
Groups. Device groups allow the user to specify common properties for all outputs in a common device
group.
O. Rules
1. The system shall support the use of rules to determine when specific actions occur. Rules shall define
what actions shall be carried out under specific conditions. The system shall at a minimum support the
following rule initiated actions:
a. Start and stop recording
b. Set non-default live frame rate
c. Set non-default recording rate
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b. An example of an event-based rule: When motion is detected (event condition) on Camera 1, Camera 1
shall start recording (action) immediately, then stop recording (stop action) after 10 seconds.
c. An example of a rule involving several devices: When motion is detected (event condition) on Camera 1,
Camera 2 should start recording (action) immediately, and the siren connected to Output 3 should sound
(action) immediately; then, after 60 seconds, Camera 2 should stop recording (stop action), and the siren
connected to Output 3 should stop sounding (stop action).
d. An example of a rule combining time, events and devices: When motion is detected (event condition) on
Camera 1, and the day of the week is Saturday or Sunday (time condition), Camera 1 and Camera 2 should
start recording (action) immediately, and a notification should be sent to the security manager (action);
then, 5 seconds after motion is no longer detected on Camera 1 or Camera 2, the two cameras should
stop recording (stop action).
3. The system shall include certain default rules including:
a. Default Start Feed Rule – Ensures that video feeds from all connected cameras are automatically fed to
the system.
b. Default Record on Motion Rule – Ensures that as long as motion is detect in images from the cameras,
the images will be recorded.
P. Rule Wizard
1. The system shall include a Rule Wizard to guide the user in creating rules for the system.
Macros shall not be required to develop and execute rules. The Rule Wizard shall utilize an intuitive
approach to creating rules by listing only relevant options and ensuring that a rule will not contain
missing elements. The Rule Wizard shall automatically suggest suitable stop actions to ensure that
never-ending rules are not created. The Rule Wizard shall include the following configuration menus: a.
Type of rule to generate (options) 1) Perform an action on <event> 2) Perform an action in a time
interval b. Select conditions to apply
1) Within selected time in <time profile>
2) Outside selected time in <time profile>
3) Within the time period <start time> to <end time>
4) Day of the week <Day> 5) Event is from <motion window> c. Select actions to perform 1) Start recording
2) Start feed on <devices>
3) Set recording frame rate on <devices>
4) Start patrolling on <device specific profile>
5) Pause patrolling on <devices>
6) Move camera to <preset> position
7) Set device output to <state> 8) Send notification to <profile> d. Select stop criteria
Q. Events
1. Events shall be used in the Rules Wizard to determine when an action is triggered. The following events
can exist within devices or recording servers.
2. Device Events
a. Plug-ins
1) Motion started – Occurs when the system detects motion in images received from a camera.
2) Motion stopped – Occurs when the system no longer detects motion in Images received from a
camera. b. Hardware Configurable
1) Input activated – Occurs when an external input unit connected to an input port on a device is
activated. 2) Input changed – Occurs when the state of an external input unit connected to an input port
on a device is changed, regardless of which state the external input unit is changed to.
3) Input deactivated – Occurs when an external input unit connected to an input port on a device is
deactivated.
4) Motion started – Occurs when a camera detects motion in its images.
5) Motion stopped – Occurs when a camera no longer detects motion in its images. c. Built-in
1) Communication error – Occurs when a connection to a device is lost; or when an attempt is made to
communicate with a device, and the attempt is unsuccessful.
2) Communication started – Occurs when communication with a device is successfully established.
3) Communication stopped – Occurs when communication with a device is successfully stopped.
4) Feed overflow started – Feed overflow occurs when a recording server is unable to process received
images as quickly as specified in the configuration, and therefore is forced to discard some of the
images.
5) Feed overflow stopped – Occurs when feed overflow ends.
6) Live client feed requested – Occurs when a user of the Smart Client requests a live stream from a device.
7) Live client feed terminated – Occurs when a user of the Smart Client no longer requests a live stream
from a device.
8) Output activated – Occurs when an external output unit connected to an output port on a device is
activated. 9) Output changed – Occurs when the state of an external output unit connected to an output
port on a device is changed, regardless of which state the external output unit is changed to.
10) Output deactivated – Occurs when an external output unit connected to an output port on a device is
deactivated.
11) PTZ manual session started – Occurs when a manually operated PTZ session (as opposed to a PTZ
session based on scheduled patrolling or automatically triggered by an event) is started on a camera.
12) PTZ manual session stopped – Occurs when a manually operated PTZ session (as opposed to a PTZ
session based on scheduled patrolling or automatic triggering from an event) is stopped on a camera.
13) Recording started – Occurs when recording is started.
14) Recording stopped – Occurs when recording is stopped.
15) Settings changed – Occurs when settings on a device are successfully changed.
16) Settings changed error – Occurs when an attempt is made to change settings in a device, and the
attempt is unsuccessful.
a. Archive available – Occurs when an archive for a recording server becomes available after having been
unavailable.
b. Archive unavailable – Occurs when an archive for a recording server becomes unavailable, for example
if the connection to an archive located on a network drive is lost.
c. Database disk full – Occurs when a database disk is full. A database disk is considered full when there is
less than 500 MB of space left on the disk. Note: In order to prevent operating system failures due to
insufficient disk space, the oldest records in the database will automatically be deleted for all camera
recordings on the disk in question when less than 500 MB of space is left on the disk containing the
database, regardless of the time or size limits specified for the database. This shall ensure that at least
500 MB of disk space shall be available for operating system use.
d. Database repair – Occurs if a database becomes corrupted, in which case the system shall automatically
attempt two different database repair methods: a fast repair and a thorough repair.
e. Database storage area available – Occurs when a storage area for a recording server becomes available
after having been unavailable.
f. Database storage area unavailable – Occurs when a storage area for a recording server becomes
unavailable, for example if the connection to a storage area located on a network drive is lost. When
this is the case, it will not be possible to store recordings.
4. User-defined Events – Events custom-made for the individual system shall be available. Such user-
defined events are used for making it possible for end users to manually trigger events while viewing live
video in the Client Viewer or for third-party systems to trigger events. The system shall support an
option to select / deselect defined userdefined events in roles where the property “External” is enabled.
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R. Time Profiles
1. Time profiles shall be defined in the System Manager and used when creating rules. For example,
a rule can be created that specifies that a certain action should take place within a certain time profile.
Time profiles shall be flexible and be based on one or more single periods of time, or on one or more
recurring periods of time. Setting time profiles in the system shall be similar to setting single or recurring
appointments in Microsoft Outlook Calendar. Time profiles shall always apply to the local time. If the
system has recording servers in different time zones, any actions associated with time profiles shall be
executed in the specific time zone where the recording server is located. For example, a time profile
covering the period 14:30 to 15:30 hours on a recording server located in Pacific Standard Time shall
execute the actions defined in the rules when the local time is between 14:30 and 15:30 hours. The same
rule on a recording server located in Eastern Standard Time will be executed 3 hours later when the local
time is 14:30.
2. Time profiles shall be created in the System Manager by clicking on Rules and Alerts and Time
Profiles. The user shall have the option of creating a single time profile or a recurring time Profile.
Recurring time profiles may be set to recur daily, weekly, monthly or yearly or recur every (# of) weeks on
a specific day of the week. The user shall have the option of setting time profiles to start on (specific date)
and to never end, end after (# of occurrences) or end by (specific date).
S. Notification Profiles
1. Notification profiles shall allow email notifications to be pre-defined and automatically trigger by a
rule. For example when a specific event occurs an email notification shall automatically be sent. The
system shall support the attachment of still images or AVI video clips to the email. Email notifications
shall be created in the Rule Wizard.
T. Alerts
1. Alerts are short messages created by the user. For example, Panic button activated, Emergency exit
door opened, etc. Rules shall be used to trigger alerts. For example, when there is motion on the “Staff
Entrance camera” start recording on that camera and generate alert “Employee Clocking In”. Alerts
triggered in this fashion shall be visible in two places:
a. In the System Manager Alert log
b. In the Client Viewer, where users (rights permitting) shall be able to view a list of triggered alerts while
browsing recordings. Alerts listed in the Client Viewer are clickable, allowing the users to quickly jump
to the time at which an alert was triggered.
1. The system shall support adding Users from Active Directory or Users can also be added using
local Windows user management on the Management Server. Users can belong to more than one group
and groups can contain any number of users.
2. The system shall support the creation of Roles to determine which of the system features users
and groups are able to use. Roles determine rights. There shall be no limit to the number of roles which
may be defined. Users and groups are assigned to Roles to determine their user rights within the system.
Rights shall be specified by the following categories:
a. Device Security Rights specify which features users/groups with the selected role shall be able to use
for each device (e.g. a camera) or device group. Device right options shall include the following:
1) Camera (# or group) or not visible to the user
2) User or group can view live video 3) User or group rights for recorded
video: a) Browse video
b) Export video as AVI / JPEG
c) Get sequences
d) SmartSearch
e) Export video in database format
4) Input visible or not visible to the
user 5) User or group rights for
outputs a) Visible?
b) Activate output?
V. Logging
b. The Audit Log records remote user activity in the following columns.
1) Level: Displays an icon indicating the level of the log entry; info, error or warning.
2) UTC time (Universal Time Coordinated): Timestamp in the international time standard.
8) User: User name of the remote user causing the logged incident.
9) Location: IP address or host name of the computer from which the remote user caused the logged
incident. 10) Source Type: Type of equipment on which the logged incident occurred. Since remote user
access is handled by the Management Server, source type will typically be Server.
11) Source Name: Name of the Management Server on which the logged incident occurred.
c. The Alert Log records alerts triggered by rules in the following columns.
1) Level: Displays an icon indicating the level of the log entry: info (the only level available in the Alert Log).
2) UTC time (Universal Time Coordinated): Timestamp in the international time standard.
3) Local time: Timestamp in the local time of the Management Server.
4) Alert Type: Type of logged incident.
5) Description: Description of the logged incident (if a description is available).
6) Source Type: Type of equipment on which the logged incident occurred. Since alerts are administrator-
defined and relate to incidents on the system, the source type will normally be System.
7) Source Name: Name of the source on which the logged incident occurred, normally System.
8) Event Type: Type of event represented by the logged incident.
e. The Rule Log records rules in which the Make new <log entry> action is specified in the following
columns.
1) Level: Displays an icon indicating the level of the log entry; info, error or warning.
2) UTC time (Universal Time Coordinated): Timestamp in the international time standard.
3) Local time: Timestamp in the local time of the Management Server.
4) ID: Identification number of the logged incident.
5) Service Name: Name of service on which the logged incident occurred.
10) Generator Type: Type of equipment on which the logged incident was generated. Since the log
entries are administrator-defined and relate to incidents on the system, generator type will normally be
System.
11) Generator Name: Name (if any) of the equipment on which the logged incident was generated.
12) Description: Description of the logged incident (if a description is available).
2. The system shall support the export and saving of tab delimited text (.txt) files to a user defined location.
The export feature shall allow the user to define the log, log elements, and time/date range.
3. The Log files shall be searchable to allow the user to quickly locate and identify events and users.
a. The system log shall be searchable by Level, Source and Event Type.
b. The audit log shall be searchable by User name, Audit ID, Source and Location.
c. The alert log shall be searchable by Alert type, Source and Event type.
d. The event log shall be searchable by Service name, Source and Event type.
e. The rule log shall be searchable by Service name, Source, Event type and Rule name.
4. All logs shall by default be enabled. The system shall allow the user to disable selected logs.
5. All logs shall by default be maintained for 365 days after which log entries will be deleted. Log entries
shall also be deleted if the maximum number (of log entries) is exceeded prior to the specified retention
period. The system shall allow the user to define how many days the log information shall be retained.
6. Log entries by default shall be limited to one million after which log entries will be deleted. Log entries
shall also be deleted if the retention period is reached prior to the specified number (of log entries) is
reached. The system shall allow the user to define how many log entries shall be retained up to the
limit. W. View Groups
1. A view group shall be the way in which video from one or more cameras are presented in the
Client Viewer. A view group is basically a container for one or more logical groups of such views.
2. By default, each role defined in the System Manager shall also be created as a view group. When
a role is added in System Manager it will appear as a view group for use in the Client Viewer.
3. A view group based on a role shall by default only be available to users/groups who have been
assigned to the role.
4. A view group based on a role shall by default carry the role’s name. For example; if a role is created
named Building A Security Staff, it will by default appear in the Client Viewer as a view group called
Building A Security Staff. The system shall allow the user to change the name of the view group.
X. Options
1. The system shall allow the user to specify certain settings related to; the appearance of the application,
to logging, to mail server configuration, etc. The Options dialog box shall include the following tabs for
specific settings.
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Y. Matrix Functionality
1. The system shall include an integrated Matrix solution for distributing video to any computer with
the Client Viewer or Matrix Monitor application installed. A computer on which the matrix-triggered
images can be shown is known as a Matrix recipient.
2. The Matrix shall cause video to automatically pop-up on a computer with the Matrix Monitor
application installed based on activation of an event. The video pop-up shall occur even if the computer
is running another Microsoft application.
3. The system shall allow a Matrix recipient to be included in a rule that triggers the video
transmission (based upon an event) to the designated matrix recipient or the images can be sent to the
recipient by another user.
Z. Customizing Layout
1. The system shall allow the user to customize the layout of the System Manager’s GUI. All panes can be
rearranged and different layout features can be combined. The following options shall be available: a.
Resizing panes
b. Moving panes
c. Using auto-hide
d. Resetting to the default layout
e. Toggling preview pane on and off
1. The following are the minimum requirements for the computers running the System Manager
application. a. CPU – Intel P4 or higher, minimum 2.4GHz
b. RAM – Minimum of 512 MB
c. Network – Ethernet (100 megabit or higher recommended)
d. Graphics Adapter – PCI, AGP, PCI-Express, minimum 1024x768, 16 bit color
e. Hard Disk Type – E-IDE, PATA, SATA, SCSI, SAS (7200 RPM or faster)
f. Hard Disk Space – Minimum 50 GB free
g. Operating System – Microsoft Vista Business, Windows 2000 Server and Advanced Server, Windows XP
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Professional (32 and 64 bit), or Windows Server 2003 (32 and 64 bit)
h. Software – Microsoft .NET 2.0 Framework, and DirectX 9.0 or newer.
A. The Client Viewer shall provide remote users with a comprehensive suite of features including.
1. Viewing live video from cameras on the surveillance system.
2. Browsing recordings from cameras on the surveillance system, with a selection of advanced navigation
tools, including an intuitive timeline browser.
3. Creating and switching between an unlimited number of views, each able to display video from up to
64 cameras from multiple servers at a time. The system shall allow views to be created which are only
accessible to the user or to groups of users.
4. Accessing views of cameras on any camera with a Client Viewer application installed.
5. Creating special views for widescreen monitors.
6. Using multiple screens as well as floating windows for displaying different view simultaneously.
7. Quickly substituting one or more of a view’s cameras with other cameras.
8. Viewing image from several cameras in sequence in a single camera position in a view or a so called
carousel.
9. Viewing video from selected cameras in greater magnification and/or higher quality in a designated
hotspot.
10. Receiving and sending video through the Matrix application
11. Include HTML pages and static images (e. g. maps or photos) in views.
12. Controlling PTZ cameras.
13. Using digital zoom on live as well as recorded video.
14. Activating manually triggered events.
15. Activating external outputs (e. g. lights and sirens)
16. Using sound notifications for attracting attention to detected motion or events.
17. Getting quick overview of sequences with detected motion.
18. Getting quick overviews of detected alerts or events.
19. Quickly searching selected areas of video recording for motion (also know as Smart Search).
20. Skipping gaps during playback of recordings.
21. Configuring and using several different joysticks.
22. Printing images, with optional comments.
23. Copying images for subsequent pasting into word processors, email, etc.
24. Exporting recording (e.g. for use as evidence) in AVI or JPEG database formats.
25. Using pre-configured as well as customizable keyboard shortcuts to speed up common actions.
26. Selecting between a number of language versions, independent of language used on main surveillance
system.
27. Communicating with remote audio devices, including microphones and speakers via a local
microphone and speaker.
B. The Client Viewer shall allow remote users to connect to the Management Server for initial
authorization then to the Recording Servers for access to video recordings.
C. The Client Viewer shall have the ability to adjust the display parameters for the video images from the
recording server to optimize bandwidth utilization.
D. The Client Viewer shall have the capability to serve as a host to 3rd-party applications through the use
of a plug-in component.
F. The Client Viewer shall provide a Graphical User Interface (GUI) and feature Live, Browse and Setup tabs
for the convenient access of live and recorded video as well as camera properties and display quality.
G. The Client Viewer shall support the following languages; English,Arabic, Spanish, Japanese, Italian,
French, German and Danish. Each user shall have the option of using a different language. The Client
Viewer shall be delivered in addition to English with fully localized installation, graphical user interface
(GUI) and help system in Arabic, Danish, Dutch, French, German, Italian, Japanese, Polish, Russian and
Spanish.
H. The Client Viewer shall support the use of standard PTZ controller or 3-axis USB joysticks for control of
pan, tilt, zoom and auxiliary camera functions.
I. The Client Viewer shall support the use of multimedia control devices, which are capable of emulating
keystrokes, for the efficient review of recorded video.
J. The Client Viewer shall support the use of keyboard shortcuts for control of standard features.
K. The Client Viewer shall have the following two-way audio functions:
1. The Client Viewer shall allow an operator to play live audio from a camera’s microphone and play back
recorded audio.
2. The Client Viewer shall allow an operator to export audio together with video in the native database
format.
3. The operator shall have a “press to talk” option which shall send the microphone input from the
operator out to one IP device enabled speaker, or to all of them.
4. Each camera view item shall use the default assigned microphone and speaker, but the operator shall
have the ability to select other audio devices or to let the same speaker follow the operator when
choosing other views.
L. The Smart Client shall have the capability to receive multicast streams if a preset number of clients
are requesting the same live view camera. The Operator shall have the option to configure the system to
always receive unicast streams at the discretion of the system administrator. The system shall have the
capability to detect if the network becomes unreliable and to automatically switch to unicast to ensure
that the operator is able to receive video.
M. The operator shall have the ability to use digital zoom where the zooming is performed in the
image only on any number of cameras simultaneously. This functionality shall be the default for fixed
cameras. The use of digital zoom shall not affect recording or other users.
N. The Client Viewer shall be equipped with a context-sensitive help system that covers the full Smart
Client functionality for operators to instantly get help on a certain topic.
O. The Live tab shall allow the user to trigger manual events, control outputs, select audio inputs,
and control PTZ cameras.
1. The Client Viewer shall support the following multiple viewing options:
a. Floating Window – Allows the currently selected view to be duplicated as a new floating view which
may be moved to other connected monitors by dragging the image.
b. Send window to primary, secondary or additional monitors.
c. Create views of up to 64 cameras per monitor.
d. Carousel – The Carousel feature shall allow the sequencing display of cameras in a view window.
Multiple carousels may be defined to allow all view windows to display sequences of cameras. The
operator shall have the ability to select the default display time or to enter a custom display time for
each camera in the carousel. From inside the camera view the operator shall have the option to
manually switch to the next or previous camera in the carousel camera list as well as pausing at the
current camera. When switching from one camera to the next the transition phase shall be completely
smooth without any delay.
e. Hot Spot – The Hot Spot feature shall allow one position of a view to be designated as
a hot spot and allow the camera displayed in the hot spot window to be viewed in a higher image quality
setting or higher frame rate than that of the other windows in the view. This feature shall minimize
bandwidth utilization by only pulling selected higher quality / higher frame rate images from the
recording server. The hot spot window in the view shall be identified by an orange border around the
image.
f. Static Image – The Static Image feature shall allow one position of a view to be used for displaying maps
or other images of interest to the user.
g. Matrix Window – A window that is used to display cameras on demand or by an external event.
h. Dynamic Actions – The operator shall be able to assign outputs, PTZ presets, events and views as actions
to joystick buttons and as keyboard shortcuts. The actions shall be ordered in categories to optimize
overview.
i. HTML Page – The HTML Page feature shall allow for several navigation functions within the Client Viewer
including. 1) Switching between views by clicking on a text description of the view in the HTML Page.
For example; “Go to Shared Group 1 View 1”
2) Switching between different views by clicking on an interactive map area. For example; a site or building
floor plan with interactive colored zones inserted as a HTML page would allow the user to switch views
to a camera displaying images of the specific part of the site or building.
3) Allowing maps to be created from standard image files (JPEG, GIF, TIF, etc.) and have interactive icons
over-laid to activate additional maps and / or views.
4) Allowing HTML scripting for use in creating buttons for view navigation.
5) Allow web pages to be open in Client Viewer views.
2. The Client Viewer shall feature an Event window to allow the user to select events and manually
trigger the selected event to occur. The event window shall list all events grouped by server and
camera/device that the event is associated with.
3. The Client Viewer shall feature an Output Control window to allow the user to manually activate
an external output port on a device. The output window shall list all selectable outputs grouped by server
and camera/device that the output is attached to.
4. The Client Viewer shall allow the user to control any PTZ camera within the displayed view.
Depending on camera capabilities / camera model the typical method for controlling the PTZ functions is
as follows; when the mouse cursor is placed on the video image the cursor pointer shall automatically
change to a crosshair indicating the camera has PTZ capabilities. Recentering the camera’s field-of-view
shall be accomplished by left clicking the crosshair on the area of interest within the image. Controlling
the zoom function shall be accomplished by holding down the left mouse button and selecting a percent
zoom from a scale of 0% to 100% or by use of the mouse wheel.
a. Additional control feature for Sony PTZ cameras includes ability to draw a rectangle around the area
of interest to zoom the camera in for closer examination. The size of the rectangle shall be proportionate
to the level of zoom, i.e., the smaller the rectangle the greater the zoom level achieved.
5. The Client Viewer shall feature a PTZ control window on the GUI that provides 8 directional and home
positions.
a. The PTZ control window shall provide a digital zoom feature for the user to digitally zoom in on
the displayed image without affecting the recording or the display of the camera on other Client Viewer
applications.
b. An overview image in the view shall display the normal field-of-view and the digital zoom area in
a highlighted box to provide the user with spatial awareness.
c. The PTZ control window shall allow the user to select pre-defined presets for PTZ cameras and
drive the selected camera to the preset.
d. The Browse tab shall allow the user to select the views for playback of recorded video. Views are
defined in the Setup tab.
6. The current camera state shall be displayed on the title bar of the live view item window. A camera
shall indicate that it is in live mode by a green “Live”, in recording mode by a red “REC” and in stopped
mode by a yellow “Stopped”. 7. The system shall allow for live or playback video to switch to full quality
when maximized unless “Keep when maximized” is selected.
P. The Browse tab shall display motion activated sequences for the selected camera in a drop down
menu. Each sequence shall be represented by a line with the date, start time and duration. A drop down
preview screen shall allow the user to view the recorded sequence.
1. The Browse tab shall display Alerts defined as bookmarked events in the System Manager.
2. The Browse tab Time Navigation window shall display a time line for each camera to represent recorded
video sequences. The sequences shall be color coded to indicate motion activated sequences. A red
band shall indicate the video was recorded due to motion activation. A green band shall indicate video
recorded without motion or pre and post alarm video. The time line band shall be highlighted based on
the camera view selected in the display. The window shall allow video sequences for the displayed
cameras to be review simultaneously. a. The window shall provide controls for:
1) First / last image
2) Next / previous sequence
3) Next / previous image for selected camera
3. The Browse tab Smart Search window shall allow an area of interest in an image to be searched
for motion by time. Search parameters shall include sensitivity and interval. A grid feature shall allow only
specific regions of interest to be searched.
4. The Browse tab Print window shall allow a surveillance report to be printed from the image with
specific information including the camera name, capture time, print time, user and user notes. The
surveillance report shall be printed to any network connected printer.
5. The Browse tab Export window shall allow the start and stop time and camera source for the
export to be set and provide two format options for exporting video clips. The exported clip shall be the
native MJPEG or MPEG4 format from the camera.
a. AVI/JPEG format – Provides options for export format type (AVI/JPEG), timestamp, frame rate
(full/half), digital zoom export, and AVI CODEC. Video clip may be exported to desktop or a specific file
path. All audio associated with the video being exported shall automatically be included in the AVI export.
b. Database Export – Provides options for including audio, security options including compressing
and/or encrypting exported database and destination options including desktop or a specific file path.
Includes option for a viewer to be attached to the exported file.
6. The Browse tab PTZ control window shall allow the digital zoom feature to be used in recordings.
Q. The Setup tab in the View window shall allow the creation of camera groups and views to be utilized
by the Live and Browse tabs. Camera groups and views shall be named according to user requirements.
Any combination of the connected cameras shall be displayed in one of the following views.
1. 1 x 1
2. 1 + 3 wide
3. 2 x 2
4. 1 + 5
5. 2 + 4 wide 6. 1 + 7
7. 1 + 8 wide
8. 3 x 3
9. 2 + 8
10. 4 x 3 wide
11. 4 x 4 12. 5 x 5 13. 6 x 6 14. 7 x 7
15. 8 x 8
R. Shortcut – The system shall allow the user to program numerical keyboard shortcuts for camera views.
The shortcut number shall be displayed with the view description in the Live and Browse displays. The
shortcut shall allow the user to change views with 2 to 3 keyboard entries.
S. The Setup tab System Overview window shall allow view layouts to be set-up with cameras, carousel,
hotspot, HTML pages, static images and the matrix monitor feature. The Setup tab Properties window
shall allow camera properties to be set including; image quality, and frame rate. The Setup tab shall
have a configuration setting allowing for the HTML page toolbar to be hidden while viewing HTML pages.
T. The Properties window shall allow the user to configure the following settings:
1. Image Quality – Options shall include Full, Super High (for Megapixel cameras), High, Medium and Low.
2. Frame Rate – Options shall include Unlimited, Medium and Low
3. Maintain Image Aspect Ratio – Will allow original image aspect ratio to be maintained in the display or
allow the image to be scaled to the display.
4. Update Image on Motion – Will allow bandwidth from the Recording Server to be conserved by only
updating the image display on motion.
5. Sound on Motion Detection – Will allow an audible alert to be generated when motion is sensed in the
camera image to alert users.
6. Sound on Event – Will allow an audible alert to be generated upon an event to alert users.
U. System Requirements
1. The following are the minimum requirements for the computers running the Client Viewer
application.
a. CPU – Intel P4 or higher, (Xeon recommended for large views), minimum 2.4GHz
b. RAM – Minimum of 512 MB (1 GB recommended for larger views)
c. Network – Ethernet (100 megabit or higher recommended)
d. Graphics Adapter - PCI, AGP, PCI-Express, minimum 1024x768, (1280x1024 recommended), 16 bit
colors.
e. Hard Disk Type – E-IDE, PATA, SATA, SCSI, SAS (7200 RPM or faster)
f. Hard Disk Space – Minimum 50 GB free
g. Operating System – Microsoft Vista Business, Windows 2000 Server and Advanced Server, Windows XP
Professional (32 and 64 bit), or Windows Server 2003 (32 and 64 bit)
h. Software – Microsoft .NET 2.0 Framework, and DirectX 9.0 or newer.
A. The web-based remote client shall offer live view of up to 16 cameras, including PTZ control with
joystick and event / output activation. The Playback function shall give the user concurrent playback of up
to 9 recorded videos with date, alert sequence or time searching.
B. View Support – The Remote Client shall support shared and private server-based views with a
layout of up to 4x4. Any of these views shall have the ability to contain a combination of cameras, images,
and HTML page view items.
C. Base User Authentication – The Remote Client shall support logon using the Image Server account
database which requires user name and password credentials.
D. Microsoft Active Directory Support – The Remote Client shall support logon using the NTLM
challenge handshake with Microsoft Domain Controllers and the local Windows user account database on
the Management Server.
A. Matrix Monitor – The Matrix Monitor feature shall allow distributed viewing of any camera on the
system on any monitor. The system shall offer the option of configuring the Matrix Monitor windows as
follows.
2. 2x2 View – Displays image feeds from up to four cameras. The system shall include options for how the
2x2 view is populated.
a. The image feeds shall be inserted in top-left to bottom-right order, according to a firstin- first-out
principle. Image feeds shall remain in the position in which they were first loaded; when all four
positions are used, any new image feeds shall replace the oldest image feeds.
B. The newest image feed shall always be inserted in the top-left position and any previously
received image shall be shifted to the right and down and eventually be “pushed-out”.
C. The Matrix Monitor feature shall access the MJPEG stream from the connected camera directly
and not sourced through the recording server.
A. The alarm management module shall allow for continuous monitoring of the operational status and
event-triggered alarms from servers, cameras and other devices. The alarm management module shall
provide a real-time overview of alarm status or technical problems while allowing for immediate visual
verification and troubleshooting.
B. The alarm management module shall provide interface and navigational tools through the client
including;
1. Graphical overview of the operational status and alarms from servers, network cameras and
external devices including motion detectors and access control systems.
2. Intuitive navigation using a map-based, hierarchical structure with hyperlinks to other maps,
servers and devices or through a tree-view format.
C. The module shall provide for intuitive alarm management through the use tools including;
1. Detailed listing of all active or incoming alarms with available filters for time period, alarm source,
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D. The module shall provide for operations management tools including the ability to;
1. Enable and disable the monitoring of specific servers.
2. Acknowledge or suppress operational status messages for a period of time e. g. during scheduled
maintenance.
E. The module shall allow for system configuration through tools including;
1. Ability to establish connection to servers by DNS name or IP address and use built-in accounts in legacy
systems for server authentication.
2. Ability to create multi-level maps with servers, cameras and external objects.
3. Trigger alarms by events from servers, cameras or external devices and pre-assign them with priority,
operator, optional display of live video on remote monitor and link to related cameras.
4. Supported events like Archive Failure, camera deleted, external event, motion detected, camera or
server responding or not responding, and running out of disk space.
5. Import users and groups from Microsoft Active Directory for operator authentication and authorization.
6. Define role-based groups and assign operators to these to achieve different access rights by type or
camera.
F. The module shall provide for interface and navigational tools at the server level including;
1. Client/Server based architecture using HTTP and XML for data communication.
2. Support for multiple legacy master/slave servers on several remote locations.
3. Central logging of incoming alarm and system information in SQL database.
G. The module architecture shall be .NET based with the server component accessed through a client
application running on Windows XP Pro or Windows Server 2003 servers.
H. The module shall include flexible access rights and allow each user to be assigned several roles
where each shall define access rights to cameras.
I. System Requirements
1. The following are the minimum requirements for the servers running the alarm management module
application. a. CPU – Intel P4 or higher, minimum 2.4GHz
b. RAM – Minimum of 512 MB
c. Network – Ethernet (100 megabit or higher recommended)
d. Operating System – Windows XP Pro or Windows Server 2003.
e. Software - .Net framework required
2. The following are the minimum requirements for the clients running the alarm management module
application. a. CPU – Intel P4 or higher, minimum 2.4GHz
b. RAM – Minimum of 512 MB
c. Network – Ethernet (100 megabit or higher recommended)
d. Graphics Card – AGP or PCI-Express, minimum 1280x1024
e. Operating System – Windows XP Pro
f. Software - .Net framework required
A. The transactional data integration module shall allow the operator to search and view
transactional data that is time-linked with video recordings of the transaction activities.
B. The module shall integrate digital video surveillance images with Point of Sale (POS) or Automated
Teller Machine (ATM) transaction data. The module shall allow the operator to efficiently answer
questions critical to an investigation including;
1. Did the employee enter the right amount for the product visible on the counter?
2. Were all the items scanned at the register?
3. Was a returned item handled properly?
4. Was the employee discount given to a non-employee?
5. If use of a stolen credit card was reported what did the customer look like?
C. The module shall allow the ATM or POS transaction data to be integrated with the system via an open
interface supporting a serial server, serial cable or IP connection. The module shall be compatible with
any TCP/IP or serial ASCII data source.
D. The module shall allow views to be created in the client application with the transaction data and
associated video to be displayed in separate windows.
E. The module shall include a filter to allow the user to edit the transaction data and remove unwanted or
unnecessary data from the ATM or POS database.
F. The module shall allow the user to search for transactions by register/ATM, camera, date, time or free
text. All transactional data shall be stored in an SQL database.
G. The module shall utilize a client / server architecture using HTTP or TCP directly for communication.
I. System Requirements
1. The following are the minimum requirements for the servers running the transactional data
integration module application.
a. CPU – Intel P4 or higher, minimum 2.4GHz
b. RAM – Minimum of 512 MB
c. Network – Ethernet (100 megabit or higher recommended)
A. Video device drivers are installable program components used for controlling / communication with
the camera / devices connected to a recording server. Video device drivers for supported devices are
automatically loaded during the initial installation of the system. Newly released device drivers may be
downloaded from the manufacturer’s website if the user is connecting a device for which the driver is
not already loaded.
A. The system shall use the following default ports for specific purposes.
1. Port 21: Used when recording servers listen for FTP information; some devices use FTP for sending
event messages. 2. Port 25: Used when recording servers listen for SMTP information; some devices use
SMTP (email) for sending event messages.
3. Port 80: While not directly used by the system, port 80 is typically used by the IIS (Internet Information
Services) Default Web Site for running the Management Server service.
4. Port 5432: Used when recording servers listen for alert socket/TCP information; some device use TCP
for sending event messages.
5. Port 7563: Used for handling web server requests, for example for handling PTZ camera control
commands, and for browse and live request from Client Viewers.
6. Port 9993: Used for communication between recording servers and the Management Server.
7. Port 12345: Used for communication between Client Viewer and Matrix recipients.
1. It shall be a scale-out network storage solution that provides security, highest “in-thebox” scalability
and simplified management of all video data.
2. It shall be fully featured RAID protected disk array which provides RAID-5 protection for capacity-
oriented environments.
3. It shall be data safe and available with redundant hot-swappable power and fans, and protection from
disk failure and single bit errors during RAID rebuilds with high performance RAID-5.
4. The storage provided will record videos for 31 days @ 4CIF, 15FPS continuously.
5. Its redundant components, automated path failover, and online administration keep organizations
productive 24 x 7 x 365.
6. Further high-availability features include:
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a. Automatic drive failover and detection and rebuild using global hot spare drive.
b. Mirrored data cache with battery backup and destage to flash.
c. Proactive Drive Health monitoring identifies problem drives before they create issues.
7. Full SNMP support with MIB-II and NetApp custom MIBs supported. In case of component failures
SNMP, e-mail alert notifications shall be generated.
8. Additionally, an Event Monitor for sending alert notifications to a central Major Event Log is available.
9. Storage management software shall combine robustness and ease of use. Full-time storage
administrators appreciate the extensive configuration flexibility which allows optimal performance
tuning and complete control over data placement.
1. For the equipment requirements in the security monitoring room please refer to the CCTV System
Schematic with Security System.
Monitors
1. 21” TFT flat screen monitors shall be supplied and installed at CCTV security monitoring room and the
Security Control Room and shall provide the following features: a. HDTV
b. 25ms response time
c. RGB, S-Video, Composite video inputs
d. Digital video interface
e. Audio input and output
2. Each monitor shall incorporate an anti-glare glass screen; a desk top stand / swivel arm/ Video wall
mount as required and are aesthetically matched by colour and finish. Any variation to this shall be
highlighted and the differing colour / finish details supplied.
8. It shall be possible to take an operation station off line and use it as a training Workstation where
Operators can be given experience of dealing with simulated faults. The Simulation shall be software
based and the events to be generated shall be programmable by the Operator.
Control Console
1. The console shall consist of an assembly of free standing racks that will house all security system
monitoring equipment and components needed for the proper operation of the system. Console panels
shall be minimum 3/4” thick wood core with pressure plastic laminate finish, colour as approved by the
Engineer. A flat wood core plastic laminated Work top shall be provided for operator and desk mounted
items. Racks shall be interlocked in order to provide standard mounting holes for control and equipment.
Louvered side panels with interface shall be provided. Console shall have manufacturer's standard forced
air ventilation system. All the required hardware, raceways and accessories shall be provided for the
proper operation of the system. Design of console shall be approved by the Engineer.
2. Design of control console shall be fully detailed in the submittals of each tender. The reference
for the actual design shall be as shown below.
Equipment Room
1. Equipment located within the security room in ground floor shall briefly consist of, but not be limited
to, the following:
MAINTENANCE:
1. The supply and installation / maintenance methodology should be made clear that a DPS Certified
Security Integrator as per a pre-approved list supplied by ESG will be the only acceptable contractor.
2. The DPS certified integrator should carry out all the cabling for the security systems with exception of
mains power requirements.
3. Coaxial cable should not be used on the camera installation, Cat 6 cable is the minimum requirement
where runs exceed 90mts POE Extenders or fibre cables should be used.
4. Anti – Virus system to be supplied installed and maintained.
5. Each Security system shall have a minimum installed spare capacity of 30% unless otherwise stated,
systems where applicable include, but are not limited to:
CCTV system , video storage, camera video streams and power requirements. Video Storage.
Intercom inputs.
Fibre optic transceiver inputs and outputs.
Equipment rack spaces.
Enclosures, cubicle, panels and mounting spaces.
Memory capacity.
Hardware and inputs for connection of field devices.
Process power in servers
6. Data outlets for IP cameras not required, direct termination into camera.
7. The CCTV /Security System must be on its own dedicated LAN network.
8. At the time of operational handover the system shall comply with all Dubai Protective Systems (DPS) Laws e.g.
24 requirements.
9. Any system, part of a system, device or technology that is rejected by the DPS Auditor for failing to fully comply
with DPS standards shall be rectified by the Security Contractor at no additional cost to Emaar.
10. The ANPR system will require an internet connection for online connection to Dubai Police HQ.
11. All cameras will be supplied with a 3 year manufacturer’s warranty.
12. All equipment supplied within these works shall carry a warranty of three (3) years unless otherwise stated.
13. In addition to the specific warranty or guarantees called for in this contract, where suppliers and/or
manufacturers of equipment provide equipment guarantees for periods longer than the Defects Liability
Period, then such guarantees shall be transferred to the benefit of the Owner.
ROUTINE AND RECTIFICATION MAINTENANCE SERVICES DURING INSTALLATION
14. The contractor shall provide comprehensive routine and rectification maintenance services, as described
within this specification, for all equipment and parts associated with these works, as soon as the equipment
or device has been installed.
15. Routine and rectification maintenance services will be undertaken prior to the award of taking over
certification and the defects liability period (DLP).
16. Such routine and rectification maintenance services should be included in the baseline tender price and are
considered separate to the defects liability period or any optional/additional routine and rectification
maintenance programs that that may be incorporated by the client as part of this works.
The DLP and manufacturer’s warranty shall be one (1) year and shall commence from the date of taking over
certificate is granted in writing by the Client and the Security Consultant.
All works implemented as a part of this Contract which prove to be faulty from workmanship or materials
shall be, without additional charge, ‘replaced and fully maintained and serviced’ with brand new equipment
during the DLP.
‘Replaced, fully maintained and serviced’ shall include:
Replace (with new) all equipment, materials, and works, which prove faulty within the time nominated for
repair.
Quarterly inspection and test of the system to verify continued operation of the system in accordance with
the performance parameters included in “as Constructed” document and drawings.
Assessment of system reports to ensure continued performance reliability of the system and associated
devices. The Security Contractor shall record all works carried out during each visit and forward copies
of all records to the Security Consultant within seven (7) days of the conduct of the visit.
The Security Contractor shall deliver a proposed maintenance programme to the Security Consultant /ESG
for approval as part of the tender bid
The Security Contractor shall liaise with the Client’s representatives on arrival to ascertain whether any
operating problems or abnormalities have been reported by operational staff.
All works carried out during each visit shall be recorded and copies of all records forwarded to the Client
within seven (7) days of the conduct of the visit. The Client defined security procedures for access to and
during site attendance over the defect liability period shall be followed at all times.
The Client reserves the right, on failure to perform such corrective works, to engage others to finish such
work without further notice, the costs and expenses of such works shall be deemed a debt to the
maintenance provider.
Call Outs During Defects Liability Period
The Security Contractor shall have suitably qualified support personnel available to attend to failure of the
equipment and associated systems on site as follows:
24/7 call out
The Security Contractor shall forward details of contact staff, suppliers, agents and/or representatives to be
used to provide the call out service to the Security Consultant for approval as part of this tender bid.
The provided details shall indicate staffing levels, spare parts holdings, systems experience and qualifications.
Failure to attend on site within the specified period shall allow the Client to recover costs from the
Security Contractor. Recovery costs may include, but are not limited to:
Additional labour costs, including penalty rates, occurring as a result of the failure of the security services.
Costs associated with the provision of alternate equipment used to provide temporary resolution of a fault
condition. This may include supply, transport, installation and decommissioning costs associated with the
provision of temporary facilities.
The Security Contractor adheres to the Client’s in-house security procedures for access to and during site
attendance over the DLP.
SPARE PARTS
All specified system components are to be readily maintainable for a minimum period of ten years following
expiry of the DLP.
Recommended critical and necessary spare parts to be itemized and included in submission. This is to include
a list of any necessary “special tools”.
All video storage platforms components shall be supported through a comprehensive three year
manufacture’s hardware warranty, and with one year of included software updates, including major, minor
and maintenance releases.
All software upgrades shall be provided for one (1) year from the date of taking over certificate is granted in
writing by the Client and the Security Consultant. Comprehensive maintenance includes the following:
• 4 Routine (Preventive) maintenance service visits per year as described under Routine (Preventive) Maintenance
herein;
• Breakdown maintenance visits as per site requirement;
• To include all Spare parts and labour required to rectify faults found under Preventive Maintenance and
Breakdown Maintenance calls.
a) Carry out routine 4 preventive maintenance services per annum including 100% of all security equipment in
accordance with the agreed documentation.
b) The routine maintenance programme will be submitted 2 weeks prior to commencement and the same shall
be approved by the Customer within 2 weeks of submission. Any modifications to the proposed programme
can be done after mutually discussions and agreement.
c) Nominated maintenance works will be carried out under strict supervision or within restricted work areas, as
directed by the Customer to minimize any disruption. The access to site shall be given as required by the agreed
routine maintenance schedule in order to meet the schedule.
d) The Supplier shall be responsible for the development and subsequent copy of the routine maintenance
checklists. Prior written authorization from the Customer shall be required before any alteration, re-issue or
distribution of the routine maintenance checklists are undertaken. The checklist shall be in line with the
Routine Maintenance Service Works (Part 2 hereof). Any changes to the agreed checklist shall be mutually
discussed and agreed.
e) The routine maintenance check sheets shall be completed such that all entries are legible and provide all
information on the work carried out. The routine maintenance check sheets shall be available for inspection
by the Customer on demand.
f) Check sheet format shall be submitted within 2 weeks from the date of award of agreement and the Customer
shall approve the same within 2 weeks of submission.
g) Detailed checklist will be submitted by Supplier before the commencement of the routine maintenance visits.
The checklist shall be in line with the Routine Maintenance Service Works (Part 2 hereof )
h) The maintenance shall be done to meet intended purpose of fully operational system as defined in this
document.
i) Supplier shall supply all labour, materials and equipment required to fully perform each routine maintenance
service to the satisfaction of the Customer, within the time frame specified and/or nominated by the Customer.
j) Customer’s nominated personnel may attend elements of the routine maintenance service, at the sole
discretion of the Customer’s management. Customer’s nominated representative attendance may include
assistance and/or witnessing. Customer’s management personnel are not obliged to assist with any of the
agreement works.
k) On completion of the routine maintenance service satisfy the Customer that the system operates in a manner
fit for purpose as defined in this document.
l) The list of equipment to be maintained is attached herewith -Installed System BOQ (Part 4 hereof). Supplier to
reconfirm the equipment list and quantities in first routine maintenance service report.
m) Supplier shall test the inputs/Outputs related to the 3rd party interfaces at the Systems end.
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n) Supplier shall provide a copy of the Manufacturer’s recommended maintenance requirements in the first
routine maintenance service report(s). The routine maintenance service only sum breakdowns will include all
the requirements as specified in this schedule
o) At the completion of each routine maintenance service a separate detailed list of all defects noted and rectified
by the Supplier shall be submitted to the Customer. The list of defects shall include,
1. Identity and location of defective equipment
2. Unique fault reference number
3. Date that defect was reported
4. Date Rectification completed
p) Supplier will submit the PPM defect rectification notes, within two weeks of the completion of each routine
maintenance service.
q) The routine maintenance service report and associated electronic files shall not be e-mailed unless specifically
requested by the Customer.
r) The routine maintenance service reports shall include:
1. Completed routine maintenance check sheets.
2. Completed routine maintenance service work’s spread sheets, in A3 size full colour.
3. A comprehensive report outlining all results, rectification details, performance test data, and any other
information as mutually agreed at the commencement of the agreement.
4. A copy of the Manufacturer’s recommended maintenance requirements, including fully completed documents
as detailed in their recommended maintenance requirements.
5. Actual test equipment images and results as requested by the Customer.
6. Relevant system print-outs of system data recorded during the routine maintenance service.
7. Dates, times, personnel performing each duty and the like.
8. The first report shall include a copy of the detailed list of pre-existing faults and defective equipment.
9. Issued document copy table.
10. Updated equipment inventory list.
s) Each routine maintenance service shall be documented to the approval of the Customer.
t) On completion of the routine maintenance service separately detail the items which require further attention
during the next scheduled routine maintenance service.
u) Supplier will Carry out rectification maintenance works (commonly known as the reactionary works associated
with comprehensive maintenance agreements) including, but not limited to:
1. Call outs as per the time frame stated in this document.
2. Rectification of nominated items of equipment or systems within the time frame specified in this document.
3. Systems and equipment repairs wherever practically possible.
4. Systems and equipment replacement.
5. Documentation updates.
6. Maintenance on repaired, replaced and installed systems and equipment if the repair, replacement is done by
Supplier.
7. Routine maintenance on repaired and replaced systems and equipment if the repair, replacement is done by
Supplier.
a) For each call out or rectification maintenance works carried out Supplier will submit a rectification
maintenance report. The report shall be submitted for each rectification item.
b) Supplier will Submit a rectification maintenance report to the Customer for comment and/or approval
which shall contain the following minimum information:
1. A unique rectification maintenance report reference number
2. Date of request for rectification maintenance works
3. Date rectification maintenance works commenced
4. Date rectification maintenance works were completed
5. Time commenced
6. Time completed
7. Cause of fault (in detail)
8. Details of rectification maintenance works carried out
9. Agreement or signature
10. Nominated Customer’s representative or responsible person signature
c) At the completion of the rectification maintenance works Supplier will carry out the following:
1. Check all equipment is fully operational.
2. Provide a rectification maintenance report to the Customer or the signing responsible person before leaving.
3. Supplier will demonstrate to the Customer or nominated personnel, the correct function and operation of the
rectified item and/or system component, and all associated system components. d) Update all documentation,
including but not limited to:
1. Training notes.
2. Operational and maintenance manuals.
3. Drawings.
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4. Laminated drawings. Division 28-Electronic Safety and Security
5. Electronic files.
6. Documentation update schedule. Only related to the particular Visit
UPS MAINTENANCE
A. In response to this Tender, the Security Tenders shall prepare and provide the following:
1. Provide a copy of a valid / current Dubai Police licence from the Department of Protective Systems (DPS),
outlining the certification to undertake works within Dubai.
2. Security Tenders shall outline previous project experience and identify existing projects in process and
that have been undertaken to date.
3. Provide a compliance response statement to ‘EACH’ clause within all section / sub-section to outline one
of the following:
a. ‘Fully Compliance’ - agree to all requirements within a clause.
b. ‘Partially Compliance’ - agree to part of requirements within a clause. Identify all non-compliance to
requirements outlined within the respective clause.
c. ‘Non-Compliance’ - cannot fulfil the requirements within a clause.
4. Provide any exclusion responses to the tender and outline specific details to such requirements. Failure to
provide any exclusion response to each clause will be deemed ‘Fully Compliant’.
5. Provide all proposed technical data sheet submittals to the CCTV System and associated security equipment.
6. Tenders are to submit only one (1) proposal for equipment and systems
PART 3 EXECUTION
END OF SECTION
SECTION 283100 – FIRE DETECTION AND ALARM, ANALOGUE ADDRESSABLE INTELLIGENT INTERACTIVE SYSTEM WITH
VOICE EVACUATION
PART 1GENERAL
1. SUMMARY
a. This Section includes intelligent, interactive, analogue, addressable fire alarm systems with manual
stations, detectors, signal equipment, controls, voice evacuation (VE), emergency voice/alarm
communication systems and related devices.
b. The fire alarm system shall be interfaced with the BMS with input/output points or BACNet IP (controls
form the BMS to the Fire Alarm system are prohibited. Only monitoring and viewing facilities are to be
provided).
c. Definitions in NFPA 72 and UAE fire & life safety code of practice apply to fire alarm terms used in this
Section.
d. All Fire protection and audio drawings, Bill of Quantity, Design criteria and general provisions of the
Contract, including General and Supplementary.
e. Power supply up to the fire alarm panels and voice evacuation amplifiers’ racks is provided by others.
(Refer to electrical drawings)
2. SYSTEM DESCRIPTION
a. General: Non-coded, Interactive / Intelligent, addressable-analog system with manual and automatic
alarm initiation; automatic sensitivity control of detectors; and multiplexed signal transmission
dedicated to fire alarm service, voice evacuation (VE), emergency voice/alarm communication systems
and extinguishing agent release. The system shall also include interfaces with the security systems and
the BMS.
3. RELATED WORKS
a. Provide in accordance with Division 21 “Fire Suppression”.
b. Provide in accordance with Division 23 “Heating, Ventilation and Air Conditioning (HVAC).
4. SUBMITTALS
a. Product Data: For each type of product indicated.
b. Shop Drawings:
ii Battery: Sizing calculations. iii Floor Plans: Indicate final outlet locations and routings of raceway
connections.
vi System Operation Description: Detailed description for this Project, including method of
operation and supervision of each type of circuit and sequence of operations for manually and
automatically initiated system inputs and outputs. Manufacturer's standard descriptions for
generic systems are not acceptable.
vii Monitored input/output points schedule & sequence of operation in addition to cause to effect
matrix.
ix All documents required by Civil Defense and other authorities having jurisdiction in the format
required by these parties.
c. Coordination Drawings: Plans, sections, and elevations drawn to scale and coordinating installation of
smoke detectors in ducts and access to them. Show the following near each duct smoke provision of
detector installation:
d. Operating Instructions: For mounting at the FACP and voice evacuation units.
e. Product Certificates: Signed by manufacturers of system components certifying that products furnished
comply with requirements.
g. Field Test Reports: Indicate and interpret test results for compliance with performance requirements.
Comply with NFPA 72 or BS 5839.
h. Maintenance Data: For fire alarm systems to include in maintenance manuals specified in Division 1.
Comply with NFPA 72 or BS 5839 and EN 54.
j. Taking over certificate: Comply with NFPA 72 and all applicable local codes (UAE fire & life safety code
& DEWA regulations)
5. SPARE PARTS
a. Furnish extra materials described below that match products installed and that are packaged with
protective covering for storage and identified with labels describing contents.
i Lamps for Remote Indicating Lamp Units: Quantity equal to 5 percent of amount installed, but
not less than one unit.
ii Lamps for Strobe Units: Quantity equal to 5 percent of amount installed, but not less than one
unit.
iii Optical Smoke Detectors, Heat Detectors, combined optical smoke and rate of rise detector (with
or without built-in sounder) and Flame Detectors: Quantity equal to 3 percent of amount of each
type installed, but not less than one unit of each type. iv Detector Bases: Quantity equal to 3
percent of amount of each type installed (including bases with built-in sounder), but not less than
one unit of each type.
v Speakers and horns: Quantity equal to 5 percent of amount of each type installed, but not less
than one unit of each type.
vi Voice Evacuation Amplifiers & Fire Fighters Telephones: Quantity equal to 3 percent of amount
of each type installed, but not less than one unit of each type.
vii Keys and Tools: One extra set for access to locked and tamper proofed components.
6. WARRANTY
a. General Warranty: The special warranty specified in this Article shall not deprive the Owner of other
rights the Owner may have under other provisions of the Contract Documents and shall be in addition
to, and run concurrent with, other warranties made by the Contractor under requirements of the
Contract Documents.
7. QUALITY ASSURANCE
a. Installer Qualifications: An experienced installer who is an authorized representative of the FACP
manufacturer, ISO 9002 certified for both installation and maintenance of units required for this Project.
c. Source Limitations: Obtain fire alarm system components through one source from a single
manufacturer. Equipment must either be UL listed to NFPA requirements or be certified compliant to
BS 5839 / EN 54. Mixing UL listed equipment and BS / EN certified products shall not be allowed.
d. Compliance with Local Requirements: Comply with applicable building code, local ordinances and
regulations, and requirements of authorities having jurisdiction.
e. Comply with NFPA 72 for installation requirements and NFPA 72 & UL or BS 5839 / EN 54 for equipment.
PART 2
PRODUCTS
c. Additional panel:
i Fire fighters smoke control station FSCS in accordance to NFPA 72 and UL864 and should be:
a) be designed to graphically depict the physical building arrangement, smoke-control
systems and equipment and areas served.
b) have status indicator lamps for all smoke control equipment e.g. fans, dampers etc.
c) provide control of all smoke control systems in all zones of the building.
d) where practical it should provide control by zone rather than each piece of individual
equipment.
e) It should be fail safe as should all the fire life safety systems (but should not override safety
devices e.g. required overloads etc.)
d. System Supervision: Automatically detect and report open circuits, shorts, and grounds of wiring for
initiating device, signaling line, fire pump run/failure, jockey pump run/failure, pump power supply
isolated, fire and life safety equipment isolators, fire extinguishing system valves, water level high/low,
diesel low and notification-appliance circuits.
e. Priority of Signals: Automatic alarm response functions resulting from an alarm signal from one zone or
device are not altered by subsequent alarm, supervisory, or trouble signals. An alarm signal is the
highest priority. Supervisory and trouble signals have second- and third-level priority. Higher-priority
signals take precedence over signals of lower priority, even when the lower-priority condition occurs
first. Annunciate and display all alarm, supervisory, and trouble signals regardless of priority or order
received.
f. Noninterference: A signal on one zone shall not prevent the receipt of signals from other zones.
g. System Reset: All zones are manually reset-able from the FACP after initiating devices are restored to
normal.
h. Flexibility: The system shall be fully programmed to accommodate fire alarm and voice communication
zones as indicated on the drawings and schematics. The system shall be configured to allow on site
modifications with the minimum of disruption using the PC based software and built-in features to
facilitate future changes or alterations to the buildings.
i. Transmission to Remote Alarm Receiving Stations: Automatically route alarm, supervisory, and trouble
signals to a remote alarm station by means of a digital alarm communicator transmitter.
j. System Alarm Capability during Circuit Fault Conditions: System wiring and circuit arrangement prevent
alarm capability reduction when an open circuit, ground or wire-to-wire short occurs, or an open circuit
and a ground occur at the same time in an initiating device circuit, signal line circuit, or
notificationappliance circuit.
l. The system shall be of soft addressable type i.e. all the devices on the loops of the FACP shall be:
i Allocated addresses automatically from the panel at the time of system power up on a
numerically lowest unused value basis (algorithms)
ii Given an address during commissioning, the value of which shall be stored in non-volatile
memory, within the electronics module of the outstation. This value shall be read during loop
allocation and provided it is valid shall be used to setup the outstations primary address.
iii If the devices are inserted or removed all the existing devices shall keep the same address.
m. The panel shall allocate the address in strict sequential order when the loop is powered up to speed up
commissioning and ensure that it is impossible for two devices to have the same address.
n. All devices shall be assigned up to 32 character alphanumeric label. In case of fire, fault or warning, the
label of device sensing threshold shall appear on visual display unit of the panel.
o. Basic Alarm Performance Requirements: Unless otherwise indicated by the authority having
jurisdiction, project’s fire department or local regulations, operation of an automatic alarm operation
of one smoke detector: i Notification-appliance operation shall function as follows:
ii Identification at the FACP and graphics monitor of the zone originating the alarm. With a
graphical display of the zone.
iii Identification at the FACP and graphics monitor of the device originating the alarm. iv
Recording of the event in the system memory.
v Recording of the event by the computer of the graphics monitor which shall also print the event
log (provide serial or Ethernet interface with software).
vi The sequence of operation shall a positive alarm sequence as indicated in NFPA 2007 article
6.8.1.3 (the alarm has to be acknowledged within 15 seconds, then 180 seconds are allocated to
investigation after which either the alarm is cleared or notification is initiated and staged
evacuation or relocation starts).
vii Delayed transmission of an audible (sounders, speakers) & visual (strobes) alarm in that zone if
the alarm has not been acknowledged as cleared at the fire alarm panel, within a programmable
time delay in accordance with local codes.
p. Basic Alarm Performance Requirements: Unless otherwise indicated by the project’s security
department or local regulations, operation of one manual station, automatic alarm operation of two
smoke detectors or a single heat detector, un-cleared or unacknowledged alarm of one smoke detector,
or operation of a manual agent release station initiates the following:
i Notification-appliance operation as a positive alarm sequence as indicated in NFPA 2007 article
6.8.1.3:
ii Identification at the FACP and graphics monitor (of the separate computer) of the zone originating
the alarm with a graphical display of the zone.
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Identification at the FACP and graphics monitor Safety andoriginating
of the device Security the alarm. iv
Transmission of an alarm signal to the remote alarm receiving stations.
V Unlocking of electric door locks (Delayed-Egress Locks and Access-Controlled Egress Doors as
indicated in NFPA 7.2.1.6.1 and 7.2.1.6.2 respectively), unless the initiating device is a manual
station and the alarm is still being investigated.
Release of fire and smoke doors held open by magnetic door holders unless the initiating device
is a manual station and the alarm is still being investigated.
vii Transmission of an audible (sounders, speakers) & visual (strobes) alarm in all zones.
viii Actuating the operating status of fans and other air-handling equipment serving the zone where
the alarm was initiated (refer to emergency sequence of operation), unless the initiating device
is a manual station and the alarm is still being investigated.
ix Actuating the position of smoke dampers in air ducts of system serving the zone where the alarm
was initiated (refer to emergency sequence of operation), unless the initiating device is a manual
station and the alarm is still being investigated.
x Lifts Recall in the cases requested by NFPA. xi Recording of the event in the system memory.
xii Recording of the event by a separate computer which shall print the event log. (provide Ethernet
interface with required software suite and licenses).
xiii Activate the integrated auto dialer to notify fire brigade with a presignal feature as indicated in
NFPA 6.8.1.2
q. Alarm Silencing, System Reset and Indication: Controlled by switches in the FACP and the remote
annunciator.
i Silencing-switch operation halts alarm operation of notification appliances and activates an
"alarm silence" light. Display of identity of the alarm zone or device is retained.
ii Subsequent alarm signals from other devices or zones reactivate notification appliances until
silencing switch is operated again.
iii When alarm-initiating devices return to normal and system reset switch is operated, notification
appliances operate again until alarm silence switch is reset.
r. Alarm Silencing, System Reset and Indication: Controlled by switches in the FACP and the remote
announciator.
i Silencing-switch operation halts alarm operation of notification appliances and activates an
"alarm silence" light. Display of identity of the alarm zone or device is retained.
ii Subsequent alarm signals from other devices or zones reactivate notification appliances until
silencing switch is operated again.
iii When alarm-initiating devices return to normal and system reset switch is operated, notification
appliances operate again until alarm silence switch is reset.
s. Remote Detector Sensitivity Adjustment: Manipulation of controls at the FACP causes the selection of
specific addressable smoke detectors for adjustment, display of their current status, reading and
sensitivity settings, and control of changes in those settings. Same controls can be used to program
repetitive, scheduled, automated changes in sensitivity of specific detectors. Sensitivity adjustments
u. Printout of Events: On receipt of the signal, print alarm, supervisory, and trouble events. Identify zone,
device, and function. Include type of signal (alarm, supervisory, or trouble), and date and time of
occurrence. Differentiate alarm signals from all other printed indications. Also print system reset event,
including the same information for device, location, date, and time. Commands initiate the printout of
a list of existing alarm, supervisory, and trouble conditions in the system and a historical log of events.
w. Topology: All system components and devices shall be connected to two-wire loop circuits (as shown in
the typical schematics) with fault isolator every 20 devices and at the boundary of each fire zone
whichever is greater. Removal or disconnection of any component from the loop shall not affect the
functioning and performance of other components and the system.
i There shall be a seamless software interface between the fire alarm interface between the fire
detection and voice alarm system.
ii The amplifier units (AUs) shall be rated and the speaker circuits shall be wired as shown in the
schematics. AUs shall house the power supply, battery backup and full monitoring facilities. The
amplifiers and audio units shall be modular in construction allowing for a high degree of flexibility
so that the performance can be closely matched to the requirements of the NFPA (or BS 5839 and
EN54) standards of the Voice Alarms.
iii The Audio Control Unit (ACU) shall be designed to complement the fire alarm control panel,
providing manual access to the voice alarm section of the system. Controls on the ACU shall be
available for up to 64 broadcast zones of the voice alarm. Standard configurations shall allow for
recorded Alert and Evacuate messages as well as an emergency microphone to be operated in
each area. In addition up to four other recorded messages shall be stored in the ACU.
v The VE system shall be properly integrated with the fire alarm system for the whole site.
vi The integrated VE system shall cover all normally accessible areas with the exception of areas
where a high level of background noise is present or areas where general public is restricted. In
these areas sounders connected to the fire alarm system shall be used.
vii The amplifiers units (cabinets, enclosure…etc) shall include amplifiers for local areas. The
AUs shall be capable of complete standalone operation for the areas it is assigned should the
network/interface connections fail.
In the event of a catastrophic failure occurring on any individual component within the AUs, prerecorded
emergency alarm message shall still be available at the ACU.
ix Initiation of voice alarm shall take immediate priority and shall cancel all other PA operations.
Monitored output points shall be provided to disable PA amplifiers.
x The voice alarm system shall be capable of broadcasting pre-recorded emergency alarm messages
and live speech in the event of fire detection system activating.
xii Evacuate signal relates to a general evacuation message and alert message corresponds to
standby instructions.
xiii In addition a FIRE DRILL and an ALL CLEAR message shall be incorporated into the operation.
xiv A fire alarm broadcast signal shall cancel any public address operation (if any) and shall override
it.
xv Fireman’s microphones shall be fitted to the Audio Control Units. These shall allow direct voice
instructions to be transmitted to a single zone, selected zones or all zones. At least two
microphone units shall be provided, at the front desk and the security room.
xvi When a fireman’s microphone is operated, this shall override any automatic voice alarm signal
being transmitted to the zone selected. The Alert and Evacuate pre-recorded messages will be
maintained in other zones while live voice fire announcements are being broadcast to selected
loudspeaker zones.
Back up UPS shall function for 24 hours standby and 1 hour in operation.
i The Fire Alarm / Life Safety System Shall provide a fully integrated Fire Fighters’ Emergency
Telephone and Communications System. A Master Telephone handset shall be provided which
will provide a totally independent 2-way communication between the Fire Alarm Control Panel
and any of the Fire Fighters’ Telephone Stations or Portable Telephone jacks located as indicated
on the plans for the building.
z. The system shall include interface input/output points to the BMS system which shall be coordinated
with the manufacturer/supplier of that system.
i Manufactured as per BS 5445 Pt.7, Pt.5 and Pt.8, BS5839 Pt.4. or NFPA requirements, UL listed.
vi Sensitivity: Can be tested and adjusted in-place after installation from control panel.
vii Integral Addressable Module: Arranged to communicate detector status (normal, alarm, or
trouble) to the FACP.
viii Remote Controllability: detectors are intelligent and interactive analog-addressable type,
individually monitored at the FACP for calibration, sensitivity, analogue reading and alarm
condition, and individually adjustable for sensitivity from the FACP.
seconds.
xiii In all areas except back of the house, the detectors shall be color matched to the ceiling
finish/color indicated in the architectural layouts. An exception to this clause is where the
detectors (or its installation guidelines) carry the specific annotation “Do Not Paint”. In any case,
no degradation of performance or detectors certification, approvals and Listings should occur.
Its highly preferable unless specifically indicated by the manufacturer’s installation instructions
that the detectors should be semi recessed or decorative offering the Architect the flexibility to
integrate them properly on the surfaces where they are specified. Samples should be submitted
for approval.
i Sensor: LED or infrared light source with matching silicon-cell receiver (or approved better
technology).
ii Detector Sensitivity: 0.006 grams of combustion product per cubic foot of air. iii EMI
Protection 50V/m.
iii Integral Addressable Module: Arranged to communicate detector status (detector reading,
alarm, or trouble) to the FACP.
iv In base isolator.
b. Heat Detector, Fixed-Temperature Type: Actuated by temperature that exceeds a fixed temperature of
88 deg C.
iii Integral Addressable Module: Arranged to communicate detector status (normal, alarm, or
trouble) to the FACP.
iv In base isolator.
i The infra-red flame detectors shall be capable of detecting infra-red radiation produced by
flaming fire involving carbonaceous materials.
ii The infra-red flame detectors shall be approved by loss Prevention council Board (LPCB) or UL
listed.
iii The infra-red flame detectors shall be able to detect a fuel fire of 0.1 square meter area from a
distance of 30 meters for the following fuels: a) Petrol (gasoline).
b) N-heptane.
c) Kerosene.
d) Diesel oil.
e) Alcohol (I.M.S).
d. Beam Detectors (Sensors) i The beam Sensors shall be addressable, loop powered; loop signaled with
built-in short circuit isolator and shall detect fire by obscuration of an optical beam by smoke. It shall
utilize a transmitter and receiver unit and be suitable for ranges of up to 100 meters. It shall be used in
areas as indicated in the drawings. The traditional false alarm problems associated with the use of beam
detection, such as birds, workmen and sunlight shall be overcome by the use of analogue detection. ii
A method of automatic gain control shall be employed to minimize the effects to a built up of duct and
dirt on the lens.
iii LEDs shall be provided integral with the transmitter/receiver units to assist in the alignment
setup.
e. Duct Detectors (Sensors) i Duct Sensors shall be addressable, loop powered, loop signaled with a built-
in short circuit isolator. They shall comprise a sampling unit with probes extending into a straight section
of the mechanical ventilation ductwork. The duct sensor shall comprise optical Smoke & Heat sensing
devices.
5. NOTIFICATION APPLIANCES
a. Description: Equip for mounting as indicated and have screw terminals for system connections.
ii The notification appliances shall be LPCB approved and to BS 5839 or as per NFPA requirements,
UL listed.
b. Mechanical Bells: Electric-vibrating, 24-V dc, under-dome type; with provision for housing the operating
mechanism behind the bell. When operating, bells provide a sound-pressure level of 95 dB minimum,
measured at 1 meter, from the bell. 8 inch size, unless otherwise indicated. Bells are weatherproof
where indicated.
c. The addressable Alarm Electronic Sounders and strobes shall be loop wired (if external power supply is
needed, it shall be via a fully monitored power supply source and wiring) and loop signaled and provided
with built-in short circuit isolation and shall be sited in areas as shown in the schematics and the floor
layout drawings. The sounders shall be configured via software to operate individually or in sectored
groups, totally independent of the way they have been connected to the loops. The sounders and
strobes shall have the synchronization feature to ensure that all the sounders give alert and evacuate
tones that are totally in phase. Conventional Sounders that "free-run" and therefore be out of phase
with each other will not be accepted. The sounders shall have an output of 100dBA at 1 meter with
frequencies of 970 Hz and 910 Hz. Variety of sounds shall be available.
d. Audible alarm:
i The audible alarm should not be less than 15 dBA above the ambient room noise level or less than
5 dBA above the maximum ambient noise level in public and common areas, with a minimum of
65 dBA, and a maximum of 110 dBA, measured with all doors closed.
ii The audible alarm should not be less than 75 dBA at the pillow level in all guestrooms, with
intervening doors closed during the alarm.
e. Visible Alarm Devices: UL listed strobe lights with clear or nominal white polycarbonate lens. Mount
lens on an aluminum faceplate. The word "FIRE" is engraved in minimum 25 mm high letters on the
lens. Strobes shall be UL listed.
i Rated Light Output: 15, 30, 34, 60, 75, 94, 110 and 177 candelas.
iv Strobes shall be compliant with UL1971 and 1638. v Visible notification should consist of
7. CENTRAL FACP
a. Cabinet: Lockable steel enclosure. Arrange interior components so operations required for testing or
for normal maintenance of the system are performed from the front of the enclosure. If more than one
unit is required to form a complete control panel, fabricate with matching modular unit enclosure to
accommodate components and to allow ample gutter space for field wiring and interconnecting panels.
i Identify each enclosure with an engraved, red, laminated, phenol-resin nameplate with
lettering not less than 25 mm high. Identify individual components and modules within
cabinets with permanent labels.
ii Mounting: Surface.
b. Alarm and Supervisory Systems: Separate and independent in the FACP. Alarm-initiating zone boards
consist of plug-in cards. Construction requiring removal of field wiring for module replacement is
unacceptable.
c. Control Modules: Include types and capacities required to perform all functions of fire alarm systems.
d. Indications: Local, visible, and audible signals announce alarm, supervisory, and trouble conditions.
Each type of audible alarm has a different sound.
e. Indicating Lights and System Controls: Individual LED devices identify zones transmitting signals. Zone
lights distinguish between alarm and trouble signals, and indicate the type of device originating the
signal. Manual switches and push-to-test buttons do not require a key to operate. Controls include the
following: i Alarm acknowledge switch. ii Alarm silence switch. iii System reset switch. iv LED test switch.
f. Manual override buttons: for smoke dampers and smoke management procedures as indicated on riser
diagram and schedule of points
h. Alphanumeric Display and System Controls: Arranged for interface between human operator at the
FACP and addressable system components, including annunciation, supervision, and control. i Visual
display unit capable of displaying at least 4 lines each 40 characters backlit display.
ii Built-in 40 character thermal printer operating when the access door is open. There shall also be
an option to enable the printer when the door is closed.
i. Simple menu driven function keys with password protection shall allow users to an extensive range of
software based features such as:
i Last 100 fire events. ii Last 255 system events. iii Current fault and warning logs. iv
Analysis of analogue sensor information. v Interrogation of sensor
cleanliness. vi Loop map connections.
vii Enable/ disable sensors, zones, sounders, interface unit channels.
viii Fire plan configuration menus. ix Outstation label changes. x
Address allocation. xi Status of outstation. xii Status of all cards.
xiii Printer on, off, line feed and test facilities.
xiv Address allocation including soft addressing.
k. Instructions: Printed or typewritten instruction card mounted behind a plastic or glass cover in a
stainless-steel or aluminum frame. Include interpretation and describe appropriate response for
displays and signals. Briefly describe the functional operation of the system under normal, alarm, and
trouble conditions.
l. VOLTAGE AND POWER SUPPLY: Main FACP is to provide 24 V D.C. to all zone alarm initiating and alarm
signaling devices and is to be designed to operate from 220/230 V A.C., 50 Hz 2-wire, earthed power
supply. Power supply is to be an integral part of the main fire alarm panel, switch mode solid state
design, with built in transient protection (up to 6 kV), and including UL recognized EMI filter, spark gaps
and varistors. Additional power supply units are to be provided for the amplifiers. The power supply is
to provide diagnostic LEDs to notify operator upon AC power and/or the control unit CPU failure.
n. Monitored input relays from fire pumps, firefighting panels, secondary fire alarm panels, emergency
MDBs and panels, synchronizing panel, smoke pressurization & extraction fans, fire dampers, BMS etc.
o. Interface to voice evacuation system. Hardwired schemes shall not be accepted, only a communication
bus providing full integration of the voice system providing multiple addressing zones and staged
evacuation shall be accepted. The operation of the alarm sounders and the voice evacuation speakers
shall be coordinated such that voice messages are not blurred by alarm tones emanating from sounders.
q. Inputs to BMS (which are monitored by the fire alarm also) shall include but not limited to:
i Failure or disconnection of power supply. ii Failure of protective device. iii Valve
tamper at fire pumps (refer to IN/OUT points’ schedule of fire alarm system). iv Flow
switches at fire pumps (refer to IN/OUT points’ schedule of fire alarm system). v
Fire pumps power loss or phase reversal. vi Emergency Generator start
failure. vii Emergency Generator low fuel. viii Emergency Generator low oil
pressure.
ix Each stairwell pressurization fan that is running (refer to IN/OUT points schedule of fire alarm
system). x Each smoke removal fan that is running or high speed (refer to IN/OUT points schedule of
fire alarm system).
r. Outputs to Civil Defense Remote Monitoring System (RMS) via BMS or direct to RMS interface panel, as
required by Civil Defense Specifications for Life Safety Alarm Monitoring.
s. In addition to the above, all other necessary controls, elements and accessories shall be included to
provide a complete and efficient panel conforming to the requirements of BS 5839: part 4: 1988 and EN
54 or NFPA standards.
c. Battery Charger: Solid-state, fully automatic, variable-charging-rate type. Provide capacity for 150
percent of the connected system load while maintaining batteries at full charge. If batteries are fully
discharged, the charger recharges them completely within four hours. Charger output is supervised as
part of system power supply supervision.
d. Integral Automatic Transfer Switch: Transfers the load to the battery without loss of signals or status
indications when normal power fails.
e. Addressable fire alarm sounder / strobe controllers shall be remote, self-contained power supply units
that include charger, batteries (same autonomy as for main panel) and synchronizing signal for strobes
compliant with UL1971 and 1638. Each unit shall include one permanent supply line for addressable
sounders and sounders-strobe combination in addition to one switchable for strobes and conventional
sounders. Both outputs shall be monitored.
b. Integral Relay: Capable of providing a direct signal to the elevator controller to initiate elevator recall
or to a circuit-breaker shunt trip for power shutdown or similar function.
vi Graphical representation of the site allowing the exact location of the fire alarm events, e.g. fires,
faults etc. vii Panel remote buzzer cancellation. viii Event acknowledgement. ix Clock synchronization
with panels with local adjustment facility. x Touch screen support.
c. The terminal shall assign a number of different graphic pages to each fire event – from a site overview
of building layout, through a floor layout, breaking the site down into increasing levels of detail. Number
of graphic pages required shall be finally determined by the client/consultant. For tender assume 20
pages per floor, based on the drawings produced on AutoCAD by the Contractor.
d. The systems shall operate on the Windows environment. The platform specification required are
desktop PCs (DELL, IBM or HEWLET PACKARD) compatible with the following minimum specifications:
i Second Generation Quad core Core i7 Sandy Bridge processor, 3.4 GHz speed, 8MB Intel Smart
cache, 8 processing threads
ii Intel motherboard, triple channel DDR3 1066/1333/1600 MHz bus, 12 USB 2.0 ports and two e-
SATA ports, 1 PCI slot, 2 PCI Express (x16 data), 1 PCI Express (x4 data), 2 PCI Express (x1
data) iii 8 GB RAM DDR3 1066/1333 MHz, 2 channels, 21 GB/s iv 1 TB storage min
capacity, 7200 RPM (SATA II) HDDs in RAID 1 configuration.
v Graphics: Video graphic adapter, minimum 2560 x 1600 pixels, 1GB GDDR3 video memory, 1 DVI-D
or HDMI output (ATI or N-Vidia). Each DVI-D output shall be provided with DVI-D to HDMI interface. vi
Microsoft keyboard. vii Microsoft optical mouse with rotating wheel. viii DVD+/-R/W (5x) dual layer
drive.
ix Operating System for fire alarm graphics terminal: Microsoft Windows 7 Professional Edition, 64
bit version or later.
x Back-up software similar to Acronis solutions with system image (snap-shots) creation capability
and facilities to re-deploy images to identical or different hardware on either physical or virtual
machines.
xi Gigabit Ethernet network interface card. xii RS232 Interface.
xiii 23 inches LCD color monitor. 1920x1080p resolution, horizontal scanning frequency 24~82, 5 msec
response time, contrast ratio 50,000:1 and viewing angle (hor & vert) 170°, DVI-D, HDMI and
VGA inputs in addition to built-in speakers.
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N.B: The above mentioned computer system hardware specifications are adequate for 8 months from
the specifications date. The contractor shall submit an equivalent time-upgraded specifications at the
actual system commissioning time. Only branded computers shall be accepted (Dell, IBM, HP).
xiv Ink Jet Printer: (Hewlett Packard, Canon or equivalent): A3, 1200 DPI, color, 8 ppm in black & white and 4
ppm in color minimum. It shall include two automatic sheet feeders for A4 & A3 paper sizes. The
combined text and graphics package shall be provided on the same supervisor.
a. The Fire Fighters’ Telephone System shall include a backlit LCD screen to show the operator the identity
and location of up to 20 waiting calls. The LCD will display call-in information in full language, without
the need for individual LEDs and switches per telephone station. The user shall connect a call by pressing
a “connect” switch.
b. The LCD shall display up to 5 connected calls simultaneously. Up to 5 telephones may be connected on
a conference type call.
c. To terminate a call, the operator shall scroll the display cursor over the connected callers’ ID message,
and press a “disconnect” switch.
d. Telephone Devices i All telephone devices shall be UL Listed for Fire Protective Service.
ii All telephone devices shall be of the same manufacturer as the Fire Alarm Control Panel specified
to assure absolute compatibility between the telephone devices and the control panels, and to
assure that the application of the appliances is done in accordance with the single manufacturer’s
instructions.
iii Any telephone devices that do not meet the above requirements, and are submitted for use must
show written proof of their compatibility for the purposes intended. Such proof shall be in the
form of documentation from all manufacturers that clearly states that their equipment (as
submitted) is 100% compatible with each other for the purposes intended.
iv The telephone devices shall be red telephone hand sets housed within a locked recessed (flush
mounted in decorated areas) or surface mounted enclosure (in parking spaces and technical
areas). The housing enclosure shall have a stainless steel body and finish in decorated areas and
steel body with red powdercoat finish in parking and technical spaces. Enclosures shall have a
locking door, concealed hinges and Break glass insert.
ELECTRICAL SPECS Page 111 of 559 6757691
Masterspec v Clearly mark the housing with "FIRE FIGHTERS Division 28-Electronic
TELEPHONE" Safetyletters
in large and Security
for easy identification.
The housing shall be available in either indoor or outdoor weather-proof & vandal proof versions,
as indicated on drawings.
vi Four state Portable Telephone Handset Receptacle 1-gang with stainless-steel faceplate shall be
provided for outlets of portable fire telephones.
b. The Audio Control Units shall be to BS5839 Part 1 and BS7443 or NFPA standards & UL listed.
c. There shall be an audible indication by an integral buzzer to announce a local ACU fault.
d. The user controls on the unit shall be key switch enabled to allow authorized use of system controls.
e. The Audio loop shall connect the ACUs to all the amplifiers units (DAs) as shown on the schematics. The
audio loop shall carry the messages and data from the master ACU to the distributed amplifier units in
the system. The messages it carries shall be from the microphone or from the auxiliary message stores.
f. The integral microphone with Press to talk button shall be located behind the enable controls door. It
shall be possible to loop connect 10 external all call microphones for fire announcements.
g. The ACUs shall be capable of storing 4 auxiliary messages (as mentioned below) that can be initiated at
the ACU for broadcast on the secure fire alarm network with each message of 45 second duration.
a. The Distributed Amplifier unit shall be mains powered and battery backed unit and shall be normally
installed near its loudspeaker circuit area. They shall amplify audio signal for broadcast to its zones of
loudspeakers. The audio signal shall be either live or pre-recorded messages. The live speech shall be
from the microphone and the prerecorded messages from the digital stores, which shall be local on the
Alert and Evacuate Store Modules in the DA.
b. Each DA zone shall consist of up to 8 loudspeaker circuits with each channel powered from separate
amplifier module, to secure the broadcast of messages.
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c. The Division
amplification of audio shall be by means of amplifier 28-Electronic
modules Safety and
installed inSecurity
the DAs. There shall be a
number of modules available with various power ratings to meet the loudspeaker requirements. Their
frequency bandwidth shall be in the range of 150Hz to 20Khz.
d. The DA shall meet the requirements of BS5839 Part 1, 4 and 8 or relevant NFPA standards and be UL
listed. Each of the DAs shall be given a label by the Fire Alarm Control Panel to identify its location in the
system. The label shall be automatically displayed along with the DA events.
e. The DA shall facilitate optional local live speech. The global speech shall be broadcasted from the ACU
microphones via the Audio loop to all the DA and its loudspeaker circuits in the system.
17. SPEAKERS
a. General: In all areas except back of the house, the voice evacuation speakers shall be matched to the
ceiling/wall color finish as indicated in architectural layouts, to the satisfaction of the Engineer. No
degradation of the speaker performance should occur. Strobes (as specified in this document) may be
integrated to voice evacuation speakers where indicated on drawings.
i The speakers shall be either suitable for flush mounting to a false ceiling of any configuration or for
ceiling/wall surface mounting if there is no false ceiling provided. It shall be equipped with a multiple
tapping matching transformer to provide easy control of speaker sound volume. Supporting brackets
to mount the speaker onto false ceilings of different configurations shall be provided and attachments
to backbox when embedded. ii The loudspeaker shall be rated 6 watts @ 70V line and has 10cm
dynamic cone type for speakers tapped at 1W or 1.5W (as indicated on drawings).
iii The loudspeaker shall be rated 6 watts @ 70V line and has 20cm dynamic cone type for speakers
tapped at 2W, 2.5W, 4W or 6W (as indicated on drawings).
iv An impedance matching transformer with the following taps shall be provided with each speaker:
6W / 4W / 2.5W /1,5W / 1W for 70V line.
v Where indicated on drawings, ceiling mounted speakers are to have integrated strobe lights (refer
to strobe lights specifications in this document).
vi The speaker shall have the following agency listings: UL 1480, ULC S526, ULC S541, FM, CSFM and
MEA (in addition to UL 1971 and UL 1638 when provided with integrated strobe light).
e) The speakers shall be complete with fire dome and thermal fusible link when recessed in
false ceilings and with backbox when embedded.
i The horn speaker shall be designed for indoor use and provide voice evacuation announcements.
ii The horn shall employ a constant directivity 100mm Mylar cone with sealed back construction for
controlled sound directivity.
iii The speaker shall have a rugged plastic body meeting or exceeding 94V-0 UL flammability ratings.
iv The indoor re-entrant speakers shall be provided with a surface mounting backbox or a
flushmounting backbox as indicated on drawings.
vi Where indicated on drawings, re-entrant speakers are to have integrated strobe lights (refer to
strobe lights specifications in this document).
vii The speaker shall have the following agency listings: UL 1480, ULC S526, ULC S541, MEA, CSFM,
FM, CE and ADA Code of Federal Regulation Chapter 28 Pt. 36 Final Rule (in addition to UL 1971
and UL 1638 when provided with integrated strobe light).
ii The horn shall employ a sealed construction compression driver for controlled sound directivity.
iii It shall be also designed to stand up to weather conditions when installed outdoors using a
housing made from durable and fire retardant, high impact plastic meeting or exceeding 94V-0
UL flammability ratings.
iv The speakers shall comply with IP65 standard for dust proof and waterproof capabilities.
v The weatherproof re-entrant speakers shall be provided with a surface mounting backbox rated
for outdoor use or a flush-mounting backbox rated for indoor use.
ELECTRICAL SPECS Page 114 of 559 6757691
Masterspec vi Division
The weatherproof re-entrant speakers shall meet the28-Electronic
followingSafety and Security
criteria:
vii Where indicated on drawings, re-entrant speakers are to have integrated strobe lights (refer to
strobe lights specifications in this document).
viii The speaker shall have the following agency listings: UL 1480, ULC S526, ULC S541, MEA, CSFM,
FM, CE and ADA Code of Federal Regulation Chapter 28 Pt. 36 Final Rule (in addition to UL 1971
and UL 1638 when provided with integrated strobe light).
18. WIRES AND CABLES FOR SOUNDERS, SPEAKERS, BELLS, and CONTROL SIGNALS (including detectors and addressable
devices)
a. Certified to have passed IEC 331 and 332 flame resistance and fire retardant tests or BS 7629: 1993
and BS 6387 or NEC 760 and UL 2464. The wiring is to be true class “A” with 2 hours fire rated.
Conductors are to be copper of minimum size 1.5 mm² and/or larger such that voltage drop at full load
is below 5%. The wiring is to be true class “A”.
PART 3EXECUTION
1. EQUIPMENT INSTALLATION
a. Connect the FACP with a disconnect switch with lockable handle or cover.
c. Ceiling-Mounted Smoke Detectors: Not less than 10 cm and not more than 5 meters from a side wall to
the near edge. For exposed solid-joist construction, mount detectors on the bottom of joists. On
smooth ceilings, install not more than 10 meters apart in any direction.
e. Smoke Detectors near Air Registers: Install no closer than 150 cm.
f. Audible Alarm-Indicating Devices: Install not less than 25 cm below the ceiling (or false ceiling). Install
bells and horns on flush-mounted back boxes with the device-operating mechanism concealed behind
a grille. Combine audible and visible alarms at the same location into a single unit.
g. Visible Warning signs: Install above exit doors at least 15 cm above top of door frame.
h. FACP: Surface mounted with tops of cabinets not more than 1830 mm above the finished floor.
C. Cable Taps: Use numbered terminal strips in junction, pull and outlet boxes, cabinets, or equipment
enclosures where circuit connections are made.
D. Color-Coding: Color-code fire alarm conductors differently from the normal building power wiring.
Use one color-code for alarm circuit wiring and a different color-code for supervisory circuits.
Colorcode audible alarm-indicating circuits differently from alarm-initiating circuits. Use different
colors for visible alarm-indicating devices. Paint fire alarm system junction boxes and covers red.
E. Risers: Install vertical cable risers to serve the fire alarm system (sounders, bells, voice evacuation,
power supply and control devices) as indicated on riser diagram.
b. Flame retardant schedule 40 rigid PVC heavy gauge concrete embedded (embedded conduits strictly
where allowed explicitly by structural engineer) or steel conduits for surface mounted installations. All
connection blocks shall be fire resistant pressure terminals or special MICC connectors, installed in red
metallic boxes.
ELECTRICAL SPECS Page 116 of 559 6757691
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4. SUPPORTING SYSTEMS AND RELATED ACCESSORIES Division 28-Electronic Safety and Security
a. Refer to section 260519 “WIRES, CABLES AND RELATED ACCESSORIES” for related supporting systems
products and field installation works.
5. IDENTIFICATION
a. Install instructions frame in a location visible from the FACP.
6. GROUNDING
a. Ground cable shields and equipment according to system manufacturer's written instructions to
eliminate shock hazard and to minimize, to the greatest extent possible, ground loops, common-mode
returns, noise pickup, cross talk, and other impairments.
b. Signal Ground Terminal: Locate at main equipment rack or cabinet. Isolate from power system and
equipment grounding.
b. Pre-testing: After installation, align, adjust, and balance the system and perform complete pre-testing.
Determine, through pre-testing, the compliance of the system with requirements of Drawings and
Specifications. Correct deficiencies observed in pre-testing. Replace malfunctioning or damaged
items with new ones, and retest until satisfactory performance and conditions are achieved. Prepare
forms for systematic recording of acceptance test results.
c. Report of Pre-testing: After pre-testing is complete, provide a letter certifying the installation is
complete and fully operable, including the names and titles of witnesses to preliminary tests.
d. Final Test Notice: Provide a minimum of 10 days' notice in writing when the system is ready for final
acceptance testing.
e. Minimum System Tests: Test the system according to procedures outlined in NFPA 72. Minimum
required tests are as follows:
i Verify the absence of unwanted voltages between circuit conductors and ground. ii
iii With each circuit pair, short circuit at the far end of the circuit and measure the circuit resistance
with an ohmmeter. Record the circuit resistance of each circuit on record drawings.
v Test initiating and indicating circuits for proper signal transmission under open circuit conditions.
One connection each should be opened at not less than 10 percent of initiating and indicating
devices. Observe proper signal transmission according to class of wiring used.
vi Test each initiating and indicating device for alarm operation and proper response at the control
unit. Test smoke detectors with actual products of combustion.
vii Test the system for all specified functions according to the approved operation and maintenance
manual. Systematically initiate specified functional performance items at each station, including
making all possible alarm and monitoring initiations and using all communications options. For
each item, observe related performance at all devices required to be affected by the item under
all system sequences. Observe indicating lights, displays, graphics (on separate computer), signal
tones, and annunciator indications.
viii Test Both Primary and Secondary Power: Verify by test that the secondary power system is
capable of operating the system for the period and in the manner specified.
f. Retesting: Correct deficiencies indicated by tests and completely retest work affected by such
deficiencies. Verify by the system test that the total system meets Specifications and complies with
applicable standards.
g. Report of Tests and Inspections: Provide a written record of inspections, tests, and detailed test results
in the form of a test log. Submit log on the satisfactory completion of tests.
h. Tag all equipment, stations, and other components at which tests have been satisfactorily completed.
a. Cleaning: Remove paint splatters and other spots, dirt, and debris. Touch up scratches and marred finish
to match original finish. Clean unit internally using methods and materials recommended by
manufacturer.
9. DEMONSTRATION
a. Engage a factory-authorized service representative to train Owner's maintenance personnel as specified
i Train Owner's maintenance personnel on procedures and schedules for starting and stopping,
troubleshooting, servicing, adjusting, and maintaining equipment and schedules. Provide a
minimum of 12 hours' training.
ii Training Aid: Use the approved final version of the operation and maintenance manual as a
training aid.
iii Schedule training with Owner, through Architect, with at least seven days' advance notice.
JT-17002-MBTHM&H-SPEC-001 Page 5 of 10 Premier Inn in Tecom IFC-07/01/2020 ELECTRICAL LIST OF APPROVED MANUFACTURERS Dubai,
UAE
Furse
Earthing and Lightning Protection System
Components
A.N. Wallis (UK)
Erico (UK)
Whitecroft (UK)
Targetti Paulsen
Iguzzini
Philips
Lamps Osram
Philips
GE‐Sylvania
Brand‐Rex (UK)
Infraplus (MGE France)
Systimax Solutions
Legrand (France) ‐ Ortronics (USA)
Edwards (USA)
Notifier (USA)
Siemens (Germany)
MV Switchgear A.B.B. (Sweden/Germany)
Schneider Electric (France)
Moeller (Germany)
Siemens (Germany)
AV integrators Pulse
Omnix International
The above list of approved manufacturers is indicative. Contractor to make sure that any brand
selected is approved by the local authorities (Civil Defense, Water & Electricity Authorities,
Telecommunication authority…)
All the above approved list of manufacturers/integrators or approved as equal can be adopted