Specification - Electrical
Specification - Electrical
Electrical Services
Prepared for
PT Candra Usaha Pesona
By
PT Hantaran Prima Mandiri
30 November 2018
Revision 0
C2100.0 INDEX
C2100.1 Preliminary
C2100.2 Extent Of Work
C2100.3 Tenderer's Submissions
C2100.4 Regulations
C2100.5 Reference Documents
C2100.6 Pre-manufacture Submissions
C2100.7 Prototype Testing
C2100.8 Testing and Commissioning
C2100.9 Completion
C2100.1 PRELIMINARY
Refer to the Conditions of Contract, Preliminary and General, and BUILDING SERVICES
- GENERAL sections, which shall apply to this section of the Contract Works.
.1 General
The work of this section includes the supply of all labour, materials and equipment for the
selection/design of materials and equipment, design of details and specific systems,
setting out and co-ordination, submission of information, supply, fabrication, manufacture,
installation, quality control, testing and commissioning and defects liability of this section
of the Contract Works as described in the Drawings and Specification.
The Drawings and Specification identify the system concepts design and standards of
performance and quality required, but do not purport to identify all problem areas and
their solution, which shall be the responsibility of the Contractor. By submitting a tender,
the Tenderer warrants that it is competent in the construction of works of the type
specified, and that all work will be suitable for the intended purpose and complying with
all relevant statutory regulations.
The Contractor shall be responsible for identifying any ambiguity or incompleteness in the
Contract Documents, and obtaining clarification instructions prior to proceeding with any
work that may be affected by the ambiguity or incompleteness.
Provide all minor and incidental items necessary for the proper functioning of the whole
system, even though not specifically detailed or mentioned.
Provide all builder's work necessary for the execution of the Contract Works, including
cutting, trimming, vermin-proofing, flashings, sleeving, making good, plinths, fire sealing
etc, unless specifically stated otherwise elsewhere in this Specification. No extra payment
will be entertained in respect of any such work not allowed for in the tender but necessary
for the proper execution of the Contract Works.
.2 Description
The Works comprise the complete Electrical Services for the Apartment Building :
The scope of this section (including apartments, related carpark, lobbies and
management offices, function rooms, podium deck, and plant rooms) of the
Apartment, as shown on the drawings and schedules, includes but is not limited to:
EL-SPEC PT Hantaran Prima Mandiri 30 Nov’ 2018
Loggia Apartment Project – Jakarta
C2100 – ELECTRICAL SERVICES – GENERAL Page 3
(iii) Low voltage busduct, mains cables, submain cables, subcircuit cables,
general and special purpose outlets, fixed wired outlets, power supplies to
mechanical, plumbing, fire, lift and escalator services.
(iv) Lighting systems including luminaires, lighting controls and cabling, and
aiming of luminaires to the Engineers discretion.
(vi) Power Control & Monitoring Systems (PCMS systems) including interface
cabling and controls with other trades
(vii) Cable support systems (note differing requirements for cable support
systems within specification sections for Electrical Services, Security
Services and Communications Services.
(viii) Earthing systems throughout the building, including substructural earth mats.
(x) Temporary power supply for construction and local controls for testing and
commissioning before handing over to the tenants.
.3 Contractor Design
The Contractor shall be responsible for design of details and systems generally as
outlined below or otherwise outlined within individual sections of this Specification.
Specific examples include, but are not necessarily limited to:
(i) Design of busduct details (refer Specification Section BUSDUCT), cable ladder,
cable tray and conduit details, (refer Specification Section CABLE SUPPORT
SYSTEMS), and cable route details.
(ii) Design of fixing and support details. Refer Specification Sections BUILDING
SERVICES - GENERAL, SUPPORTS AND FIXINGS. Note that cameras are to be
mounted on nearby columns and beams. The use of camera poles is to be avoided.
The exception is the high speed PTZ cameras which will are likely to require their
own poles to ensure the camera has coverage in all dimensions.
(iii) Selection of fire rating and smoke sealing details by a fire stop specialist. Refer
Specification Sections BUILDING SERVICES - GENERAL, FIRE STOPPING.
(vi) Design of access and protection structures. Refer Specification Sections BUILDING
SERVICES - GENERAL, ACCESS AND PROTECTION STRUCTURES.
(vii) Design of seismic restraints and number and size of holding down bolts.
(viii) Protection co-ordination and report: The Contractor shall select the relays and
determine settings required to co-ordinate with the settings of the relays in the PLN
system and generator system. Co-ordinate with PLN and generator contractor.
(ix) The contractor is responsible for providing the detailed plan of where the equipment
is to be placed. Shop drawings are to be provided by the contractor before
installation.
(x) Design of power supplies to any supplied electronic and electrical equipment.
.4 Specific Inclusions
(a) Exposed Services. The Contract includes electrical cabling, conduit, cable tray,
cable ladder and equipment that will be exposed at high level, visible to the
occupants (i.e. no ceilings). Accordingly, a high standard of co-ordination and
attention to detail is required to result in an installation of professional appearance.
The Engineer may require the replacement of any section of Contract Works
deemed to be of a poor standard of appearance at no additional cost.
(b) All temporary connections, services, and related work necessary to facilitate staged
construction and maintain services to those areas covered by early completion, or
completion of another section by other contractors.
(c) All design, materials and installation necessary for the proper interfacing with
existing plant, systems and structure.
(d) All design, materials and installation necessary for the proper interfacing with other
trades, systems, architecture and structure.
(e) The operation and routine maintenance of each section of the Works of this trade,
from the date of respective Sectional Completions to the date of Practical
Completion
(f) Protection of equipment from dust and damage during construction activities
(including fit-out activities).
(g) Alterations to the base building installation to suit tenancy fit-out requirements may
be included in this Contract later by Contract Instruction.
.5 Exclusions
(a) Main incoming electrical supply to site. (Not in this Contract: By Electricity Utility
Supplier for the Principal).
(b) Incoming network service cabling up to the building Main Distribution Frames. (Not
in this Contract. By Network Service providers.)
(d) CCTV Camera and head end equipment (Not in this contract by specialist CCTV
Equipment supplier)
.6 Trade Interfaces
Liaise and co-ordinate interface details with other trades, including but not necessarily
limited to the following.
The generator system will be a separate direct contract, however the Electrical
Trade is responsible for all aspects of co-ordination or interface between the
Generator Contract and the Electrical Contract.
• Lighting and small power within the Generator room shall be provided by the
Electrical Contractor. Provision of a house distribution board in each
generator room for lighting and small power by the Electrical Contract.
• Within the generator room co-ordinate with the generator contractor for
equipment and cable tray layouts.
• Doors, handles and closers. The Security trade is to liaise with the Building
Trade over the pre-drilling of doors for electronic locks and other control
equipment.
• Terminal blocks for switchgear and PCMS voltage free contacts for interface
with the Mechanical Control System shall be provided by the Electrical Trade.
Wiring from the terminal blocks to the MCS shall be by the Mechanical
Services Trade.
• Submain cables to Plumbing MCCs, hot water cylinders and pump control
panels (PCPs) are to be provided by Electrical Trade. Final connection of
incoming submain cables to MCCs, hot water cylinders/and or pumps is to be
by the plumbing trade.
• Lighting / small power to sprinkler valve rooms and fire pump rooms by
Electrical Trade
C2100.3 REGULATIONS
.1 General
The whole of the work shall comply with the latest relevant Regulations and the
Regulatory Authority requirements. The cost of any materials or equipment and all
reports, fees and charges required to met such regulations and requirements shall be
included in the Tender whether specifically shown or described in the Documents or note.
The Contract Works shall be carried out in accordance with all relevant Regulations with
amendments, including, but not limited to, the following:
Obtain Certification of the medium voltage, transformer and low voltage system and
equipment from Perusahaan Listrik Negara (PLN).
The following documents are referred to elsewhere in this section of the Specification:
BS 88:1988 Cartridge fuses for voltages up to 1000V A.C. and 1500V D.C.
BS 5424:Part 1:1990 Control gear up to and including 1000V A.C. and 1200V D.C.
Contactors.
BS 6346:1989 Specification for PVC insulated cables for electric supply (up to
and including 3.3 kV).
IEC 265 Part 1 High Voltage Switches for rated voltage above 1kv and less than
52 kV.
IEC 298 AC metal Encased Switchgear and Control gear for rated
voltages above 1kV and up to and including 72.5 kV.
Telkom Regulations
PLN Regulations
Refer individual equipment and system specifications for details and submit all
information required.
Submit a schedule of trade names and series types (but not model numbers) for all major
equipment included in the Tender.
Submit details of the brand and features of the proprietary automatic controls systems,
security systems and communications systems offered. The description of features shall
specifically address compliance with the specified performance requirements.
Submit type-test certificates for each equipment where required. The type test certificates
shall be from testing station approved by the Principal.
Submit a fixed price proposal for the Routine Maintenance of this section of the Contract
Works. Refer Specification Sections BUILDING SERVICES - GENERAL, ROUTINE
MAINTENANCE CONTRACT PROPOSALS
.1 General
Major equipment items shall include, but not necessarily be limited to:
• Tanks
• Transformers
• HV Switchboards and Isolators
• Uninterruptible Power Supplies
• Inverters
• Motors
• Power Conditioners
• Power Control and Monitoring System
• Fire stopping systems
• Control systems
• Switchboards, including distribution boards, motor control centres, and control panels
• Circuit breakers, starters, fuse switches, isolators, contactors, relays,
Where switchboards and motor control centres are required to be type tested, submit the
type test certificates with the respective Supplier’s Certificate of Compliance.
• Switchboard layouts and wiring diagrams, including motor control centres, control
panels and the like
• General arrangement drawing showing dimensions and weight, minimum room height
required, clearances required around equipment etc for all equipment.
• Single line diagrams showing components, metering and protection etc for
switchboards
• Control schemes and wiring diagrams for switchboard, batteries and chargers
• Electrical wiring diagrams shall clearly indicate factory and field wiring interfaces and
shall be complete with terminal numbering to correspond with control
panel/switchboard terminals.
• Cabling/patching diagrams shall clearly indicate factory and field cabling interfaces
and shall be complete with port numbering to correspond with outlet numbers.
• Switchboards (HV & LV), including distribution boards, HV isolators, motor control
centres and control panels.
• Transformers
• Power conditioners
.5 Design Details
• Calculations and technical data showing that the switchboard is capable of carrying
the design current and fault withstand.
• Marked up single line drawing giving manufacturers' reference numbers for each
protection device on the MSB.
.6 Samples
Trade specific samples (or, subject to the Engineers prior consent, manufacturer’s trade
literature, including drawings or photographs) shall include:-
Allow for any alternative light fittings to be tested for photometrics unless photometrics
can be provided, in electronic (*.ies) format, and hard copy.
.1 General
Carry out all tests on the works, including, but not limited to, testing of switchboards,
cabling, power and control devices, communications systems, security systems, all
interfaces with other sections of the Contract Works, power consumption and phase
balance.
• All instruments to be used for the testing are suitable for the purpose and have been
calibrated by an accredited laboratory within 6 months of the start of the test.
• The commissioning checklists are available for recording all testing information and
results.
• Testing of insulation of all cables using a 500V megger for 230V circuits and a 1000V
megger for 400V circuits. MIMS cables shall be tested in accordance with the
manufacturer’s recommendations, no sooner than 24 hours after installation, but
within one week prior to energisation.
• Checks that all equipment is safe to operate, and that overloads, protection
equipment, safety devices and interlocks have been properly set and are all in
working order.
• Checks of operating sequences and functions of all devices, and rotation and current
draw of motors.
• Phase load testing and rebalancing of phases. Measure volt drop on fully loaded
circuits as directed by the Engineer.
• Specialised testing of switchboards and the like and power factor correction systems
as specified under their respective technical sections of this Specification.
• Infrared testing of all terminations and connections of switchboards and the like when
operating at least at 60% loaded.
• Check polarity at all outlets and phase rotation of supply at all three phase outlets.
• Check that luminaires are working and that switching functions are in accordance with
the specification and drawings.
• Measure the load current in each phase of all motors and check the appropriate
setting of overload devices.
EL-SPEC PT Hantaran Prima Mandiri 30 Nov’ 2018
Loggia Apartment Project – Jakarta
C2100 – ELECTRICAL SERVICES – GENERAL Page 14
• Test and record the effectiveness of the main earth and the earth neutral link.
• Hipot testing of HV cables shall be in accordance with AS/NZS 1429 or IEC 502.
.4 Training
(a) Train the Principals security staff on the operation of the systems. A comprehensive
hands-on training programme for two operations personnel shall be provided to
bring those personnel up to a proficient level of system operation. The training shall
be conducted in two sessions, not concurrently, so as to allow uninterrupted
manning of operations by the Principal.
(b) The venue for training will be advised. Provide all instruction, course materials,
course notes, test equipment and other items as necessary to properly train the
personnel.
(c) One system manager shall be trained as for the operators but shall also be trained
in the management functions provided by the system. These shall include
subsystem management, security levels, database alterations, setting of alarms,
etc.
(d) Training sessions shall be of a minimum period of one hour per session.
C2100.9 COMPLETION
C2111 - CABLES
C2111.1 MATERIALS
The size and type of cable shall be as shown on the Drawings. Unless otherwise
specified cables shall have a voltage rating of 600/1000 volt complying with SII, SPLN,
VDE or IEC, as appropriate.
The number of cores in each cable shall be as shown on the Drawings. Where one earth
continuity conductor (ECC) is shown, this shall be in addition to the number of cores
indicated. Signal and communication cables may be shown as the number of twisted
cable pairs.
Provide all cables shown on the Drawings and Schedules, and all lugs, links, terminals,
glands, clamps, clips, saddles and ties necessary to complete the installation of the
cables.
Where cables are to be jointed, provide all junction boxes and in-line jointing kits.
C2111.2 TERMINOLOGY
Al - Aluminium conductor.
Cu - Copper conductor. Unless otherwise stated all conductors shall be plain annealed
stranded copper.
Sensor, instrument control loop and indication cables shall be screened industrial grade
instrument cable unless otherwise specified.
Instrument cables shall be run separated from power cables by a minimum spacing of
1000 mm. Where possible instrument cables shall follow a separate route from, and shall
not be run parallel to large power cables or motor cables.
Cable screens shall be earthed at one end of the cable only. Where screened cable
circuits include an intermediate junction point the screens of the respective cables shall
be bonded between the two sides of the junction.
Where instrument cables enter panels and equipment, sealing glands shall be provided
which effectively seal and clamp the cable sheath.
Conductor terminations shall be made using correctly sized crimp lugs or pins.
Cores which form pairs in a cable shall be connected so that their correct pair relationship
is maintained.
Fire resistant cabling shall be copper conductor and fire rated for 2 hours in accordance
with the fire conditions defined in IEC60331.
Cabling shall be flame retardant, self extinguishing, low smoke, and Halogen free.
Fire resistant cabling shall be fixed with stainless steel cable ties. All termination shall be
by crimping.
Fire resistant cabling shall have a voltage rating exceeding .6/1KV and shall be suitable
for a 50 Hz mains system.
The outer sheath of all fire rated cable shall be red in colour.
Where the jointing of fire resistant cabling is approved by the Engineer cabling shall be
jointed using proprietary fire rated junction boxes and cable glands or by in line joints.
Jointing techniques and materials shall be in accordance with the manufacturer’s
recommendations. The fire resistance of the jointed cable shall be not less than the fire
resistance of an unjointed cable.
.1 General
The following describes the additional technical requirements for all MV cables.
.2 Construction
The construction of cables shall be as per the applicable standards and as described
below.
EL-SPEC PT Hantaran Prima Mandiri 30 Nov’ 2018
Loggia Apartment Project – Jakarta
C2111 – CABLES Page 17
The cores shall be laid up and the interstices filled with non-hygroscopic material to
achieve a circular cross section, bound overall with heat resisting PVC tapes.
The sheath shall be sequentially numbered from 001 onwards at one metre intervals
starting at the inner end of each drum length.
The joints and terminations shall be Raychem heat shrink type. The terminations shall be
rated to 20 kA -1 Sec. The joint shall offer the same continuous and fault current capacity
as the cables on each side.
C2111.6 INSTALLATION
All cable installation shall be carried out in accordance with the manufacturer's written
recommendations.
Cables shall be installed using the supporting systems shown on the Drawings. Refer
Specification Section CABLE SUPPORT SYSTEMS for details and installation of
supporting systems.
Installation shall be carried out so as to minimise failure under normal use, wear and tear,
and any abnormal conditions which may reasonably be anticipated including electrical
fault conditions.
Single core cables forming part of a three phase system shall be rigidly held in trefoil
formation by approved cable clamps. Such cable installations shall be capable of resisting
the forces arising from the prospective short circuit current.
When parallel conductors are required, these shall be of equal length and shall follow
substantially identical routes. Trefoil groups of parallel conductors shall each comprise
one conductor of each phase.
MV cables shall be terminated using brass glands only. Lugs shall be crimped and not
soldered.
Cabling to generator, motor or mechanical plant shall provide for vibration and movement
by allowing cable slack or loops. Where necessary to allow for relative movement or
extreme vibrations, the fixed cabling shall terminate in a junction box and the final
connections be completed with a flexible cable.
Care shall be taken during installation of cables to prevent cuts or abrasion damage to
cable sheaths. Dry lubricant shall be applied to cables during pulling in of PVC sheathed
or covered cables to prevent welding or scuffing of cable sheaths. No cable shall at any
time be bent to less than its minimum recommended bending radius. Cables shall not be
installed where they may be subject to damage due to a subsequent work (such as
nailing of linings and the like). Cables shall not be embedded directly in concrete or
plaster.
Where cables are liable to environmental damage, they shall be protected in a suitable
manner. Where building features make it necessary to run cable through block walls or
concrete slabs and the like, any such cable shall be protected within PVC conduit.
All cables shall be protected where they pass through any openings, gaps, holes etc., by
ensuring that surrounding surfaces are smooth and free of sharp edges etc., and that
holes are bushed where necessary with close fitting plastic bushes. All cable entries to
buildings and to equipment in exterior locations shall be vermin-proof and shall be firmly
sealed to prevent ingress of gases and water. Where cables pass through fire rated walls
or floors a fire barrier or fire rated sealing compound shall be used to seal the space after
installation of the cables.
Cable lengths purchased shall be such that any cable runs required can be made without
joints. Cables shall not be jointed except with specific prior review by the Engineer.
Where joints are permitted they shall be accessible and in proprietary junction boxes or
made with proprietary jointing kits to the approval of the Engineer.
Cables shall be adequately supported at all points and shall be neatly fixed with clips,
saddles, cleats or ties as appropriate, and in accordance with the manufacturer's written
recommendations.
Stainless steel clamps shall be used for fixing all MV cables. The cables shall be clamped
at every 2m along the horizontal run, 1.5 metres along the vertical run and 500mm each
side at bends.
Subcircuit wiring shall be concealed. Where this is not possible, the cable route shall be
subject to specific prior review by the Engineer.
Special care shall be taken with the installation of subcircuit cabling to ensure that
bunching and consequent overheating does not occur. Maintain 45% space factors in
accordance with the requirements of the Electrical Wiring Regulations.
Vertical cable rises exceeding 6 metres shall have loops or offsets to avoid differential
movement between cable cores and sheath.
Cables which penetrate fire-rated walls and floors shall be treated in the following or
equivalent manner: Paint the surface of each cable for a distance of 300mm from each
side of the penetration with intumescent paint. Seal the penetration with universal
bulkhead system, packing any gaps with ceramic fibre. Small penetrations may be sealed
with Fire Research foaming sealant.
C2112.1 GENERAL
Cable support systems shall be run level, straight and parallel with building lines to
produce a tidy installation. Joints and accessories shall fit closely and shall be correctly
matched.
Provide all necessary hangers and brackets. Fixings shall be adequate for the items
being fixed.The installation shall be in accordance with the manufacturer's written
recommendations.
Care shall be taken to avoid bimetallic corrosion at fixings and joints. Fixings and
fastenings shall be of a material appropriate to the parts being fixed, the loads imposed
and the locations involved. Bolts, screws, nuts, washers and other fixing components
shall be zinc, chromium or cadmium plated.
Avoid sharp edges which may damage cables. Cut ends and cut-outs in cable support
systems shall be neat and square. Cut edges shall be protected against corrosion.
Cable support systems shall be complete with matching proprietary bends, ties, reducers,
expansion joints and jointing accessories which shall be employed as appropriate at
junctions,changes of level, changes of direction, and changes of size. Metallic cable
support systems shall be bonded to earth and shall be electrically continuous using,
where necessary, earth continuity straps between sections.
Stainless Steel clamps shall be used for fixing all MV cables. The cables shall be
clamped at every 2m along the horizontal run, 1.5m along the vertical run and 500mm
each side at bends. Stainless clamps shall be used for fixing all LV submains rising
vertically. Plastic ties shall be provided as a minimum for LV cables along horizontal runs.
Fix LV cables as per MV type.
Cabling Systems for PCMS and MCS shall be run separate from the 380V/220V Cable
System. All MV cable support systems shall be fitted with a lid. The lid shall be fitted in
sections for easy removal and fixed in place.
All cable supports 400mm in width and greater shall be cable ladder constructed of class
A electro-galvanised steel to AS 1789 or heavy duty extruded and welded aluminium.
Below 400mm heavy duty cable tray class A electro galvanised to AS 1789 can be used.
Where cable ladder/tray is installed at a height of less than 2000mm above floor level and
outside of an enclosed cable riser, proprietary sheet metal lids shall be provided and fixed
to cable ladder. All MV cable tray shall have lids.
Cable tray shall be installed below and kept 150mm minimum clear of hot water pipes
and 50mm minimum clear of other services
(a) Vertical clearance between tiers (excluding the depths of the trays 150mm
(b) From the top of the cable ladder/tray to the ceiling 300mm
(d) Vertical and horizontal clearance between electronic, power and 400mm
control cable ladders/trays
Study the general structural, mechanical and plumbing layouts in order to avoid conflict
with other trades.
Cable ladder/tray are to be located above major piping except for hot water piping with
proper access to cables. If this is not practical, protective covers may be required above
the cable ladder/tray to guard against potential liquid spills.
Supply as required and field-fabricate all the non-standard supports, brackets and
hangers for the cable support system, using hot dip galvanises steel. Paint all field cuts
with galvacon or similar approved zinc rich paint.
]
Install the cable tray supporting system in such a way as to ensure alignment in order to
prevent distortion of cable trays.
All horizontal or sloping cable ladder/tray must be rigidly supported at intervals not to
exceed the maximum permissible design loading, specified by the manufacturer for a
maximum deflection of 10mm.
All vertical cable trays must be supported at intervals not exceeding 2 metres. All bends,
both vertical and horizontal must be smoothly made with factory bends of appropriate
radius (usually not less than 600mm).
Join the sections and fittings by using proprietary bolted jointing hardware. The use of
welding for joining sections and fittings is not acceptable.
Provide expansion joints in straight runs where 2.5mm or greater movement may be
expected or to coincide with the building expansion joints.
Where cable ladder/tray penetrate fire walls or ceilings, restore the wall or ceiling fire
rating by using approved material.
Do not run horizontal cable ladder/tray flat on the wall for distances greater than 3 metres.
Bond the cable ladder/tray system to the grounding system.
Cable trunking shall be heavy gauge zinc coated mild steel. The finished colour to be
confirmed by the Engineer.
Trunking shall be provided with removable steel cover plates and be supported with
strong fixing brackets at not more than 1200mm intervals.
Sections of cable trunking shall be bounded together with copper tape across all joints.
Trunking shall have a minimum space factor of 45%.
Fire Stop shall be provided in each trunking running through fire walls and floors.
Raw bolts and plugs will not be permitted for fastening trunking support.
Cable trunking may be provided in place of conduit where multiple runs would otherwise
occur.
Vertical cable in trunking shall be fitted with insulated cable supports to support cables at
maximum 2.5 metre intervals.
C2112.4 CONDUIT
(a) General
Conduit shall be Electrical Metallic Tubing (EMT) in plant rooms, car park, and
service areas,and high impact PVC in other areas.
The minimum size of conduit shall be 20 mm. Unless otherwise specified, conduit
shall be one size larger than required by regulation for the number of conductors to
be drawn in.
The radius of conduit bends shall be at least 6 times the conduit diameter. The
conduit bend shall not be less than 90 degrees.
All conduit ends shall be finished smooth and be free from any sharp edges finish
using a reamer or similar to prevent damage to the wire insulation or sheath.
The inside of conduit shall be properly cleaned before pulling of conduit wires.
Pull boxes or joint boxes shall be provided at intervals of not more than 25m for
conduit work, even if not indicated on the drawings.
Cover plates shall be provided for pull boxes. On finished surfaces, cover plates shall
be of good appearance and finished in a colour matching the surroundings.
Terminal boxes shall be provided at locations where lamp fixtures, socket outlets,
switches, and other devices are fitted.
Mounting studs shall be provided inside terminal boxes for recessed fixtures, electric
doors, and other similar devices.
Terminal boxes shall not be connected to more than five conduits at any location.
Unless otherwise stated, conduit runs shall be concealed in walls, floors and where
shown in the drawings.
Terminal boxes for floor outlets shall have covers equipped with vertical and
horizontal adjustment unless otherwise specified on the drawings.
Conduit for Fire Services shall be appropriately fire proofed as required by the
Engineer.
The cut ends of conduits in boxes etc. shall be protected by bushings unless
otherwise specified.
When a conduit end cannot be connected directly to equipment, a service cap shall
be fitted.
All conduits turning upward shall be sealed with tap to prevent entry of foreign matter.
Where box knockouts do not suit the outside diameter of conduit, a reducer shall be
provided.
Where a conduit line is embedded or passes through building structure, the work
shall be performed as instructed by the Engineer. Such work shall be carried out at
places where the structural strength of the building may not be affected.
Conduit shall be kept away from hot water pipes, gas pipes and heater pipes by a
minimum distance of 150 mm. If this clearance can not be secured, appropriate
measures shall be taken subject to the approval of the Engineer.
Conduit lines shall be extended only with terminal boxes, full boxes, or joint boxes.
All conduit shall be properly secured with fixing saddles. Saddles shall be spaced at
2m intervals.
Where conduit is connected to a box or trunking, the conduit shall be fitted at right
angles. Lock nuts shall be provided for both the inside and outside of the box or
trunking to provide ample clamping. Metallic bushings shall be used. The conduit
shall not protrude into the box or trunking.
Wherever conduits are joined using coupling or lock nuts, piping must be provided to
ensure adequate clamping.
Except for threaded joints, all joints between conduits shall be bonded with 2mm
annealed copper wire. Provide similar bonding at conduit to box joints.
Bonds shall be fastened by a clip made from 0.5mm or thicker copper sheet.
Before bonding joints, surfaces shall be adequately cleaned and polished. All clip
fastenings or wire winding joints shall be soldered.
Conduits, joints thread sections and sections where plating has peeled off, etc shall
be properly coated with a rust preventive paint such as zinc chromate primer.
Conduits shall be properly preserved, to prevent moisture, dust, etc. from getting into
joints, conduits ends, etc. during construction.
The interior of conduits shall be properly cleaned before pull wires are installed.
All boxes, etc. embedded in concrete shall be free from rubbish, be properly cleaned
and be painted with a layer of rust preventive paint.
Conduits shall not be buried directly in soil. Where this is not possible only heavy
gauged steel conduits shall be used. Such conduits shall be appropriately treated
with a rust preventive waterproof paint before burying.
Apply similar treatment where conduits are installed in damp conditions are installed
in damp conditions.
Colour Black shall be used for power and white for telephones, data, sound fire
alarms etc.
Lids on white conduit boxes shall be colour coded to suit the service as follows
Telephones, data – Green
Security - Brown
MCS, PCMS - Blue
Public Address - Yellow
Fire – Red
Where PVC conduits are connected to metallic boxes, earthing terminals shall be
provided to the pull boxes.
Conduit for any circuit shall be erected complete before any cable is drawn in.
Conduits which penetrate walls or floors of fire resisting construction shall be treated
in the following or equivalent approved manner. Seal all PVC conduit penetrations
with firestop collars. Seal all steel conduit penetrations with universal bulkhead
system and pack any gaps with ceramic fibre. For small penetrations with gaps less
than 10mm seal with fire resistant foaming sealant.
Cable joints shall only be permitted with the prior written approval of the Engineer. All
joints and terminations shall comply with the manufacturer's written recommendations.
Joints shall be carried out using proprietary jointing kits or prefabricated junction boxes.
Cables shall be supported so that no weight or stress is transferred to the joint. The
method of
supporting the joint shall be to the approval of the Engineer.
Only workers experienced in the voltage level and type of cable in question shall be
employed on this work. The Contractor may be required to demonstrate his jointing
technique and if, in the opinion of the Engineer, the joint is faulty, the Contractor shall
replace all other terminations so jointed at no extra cost.
Proprietary bimetallic links or lugs shall be employed where cables of different conductor
materials are to be jointed. All components and materials used in a cable joint shall be
selected
to avoid bimetallic corrosion.
Enclosure of the completed joint shall be compatible with the location of the joint and in
particular shall prevent inadvertent contact with line conductors or the ingress of moisture,
vermin or other harmful substances. The use of self-adhesive tape as the sole means of
insulating and sealing a joint is not acceptable.
Armoured cable terminations shall be fitted with appropriate metal cable glands which
shall grip the cable securely, seal on the outer sheath of the cable and be complete with
matching locknuts. They shall include provision for securely bonding the cable armour to
earth. PVC/PVC, XLPE/PVC and NS cable terminations shall be fitted with suitable
sealing glands.
These shall grip the cable securely and seal on the cable sheath.
Cable terminations shall be made with correctly sized crimp or compression lugs, fitted
according to manufacturer's instructions and using proprietary crimping tools or presses
with correctly sized dies. Terminals and cable terminations shall not be under mechanical
stress.
Terminations between copper and aluminium conductors shall be made using only
proprietary bimetallic lugs or links.
Care shall be taken to ensure sufficient room is allowed in equipment to permit cable
terminations, including those to be made by others.
Raychem terminations shall be used for all MV cables except for those at isolators where
it shall be Elastmold.
C2115.1 GENERAL
Underground cable installation shall, unless otherwise specified, include all necessary:
• clearing
• excavating
• disposal of spoils
• temporary supports, shoring
• baling
• pumping
• provision of bedding material
• cable laying
• protection
• backfilling
• marking
• reinstatement of the cable route
All work shall be carried out to the requirements of the Electricity Regulations The
Contractor is required to have satisfied himself as to the precise nature of the excavation
and filling required, so that he will have allowed for everything necessary in connection
with this work.
Prior to the commencement of excavation the Contractor shall mark the locations of all
existing services along the proposed cable route.
Any existing facilities or services that become damaged during the course of the work
shall be repaired and reinstated to the original condition to the Engineer's satisfaction.
All excavations shall be adequately shrouded or provided with suitable barriers to prevent
unauthorised public access to the site.
The Engineer shall inspect all ducting and cables laid before backfilling and compaction
takes place. Trenches backfilled without inspection may not be accepted. In these
circumstances the Engineer may request the Contractor to expose the ducts or cabling
for inspection at the Contractor’s cost.
The minimum depth of cable shall mean the perpendicular depth from final finished
surface Level to the top of the buried cables.
Allow to make all necessary Permit applications if the location of the cable route requires
it, eg public roadway or footpath.
The Contractor shall indicate the route and depth of all buried cables and ducts on the
Construction Record drawings with dimensioned reference to permanent structures or
features.
All existing services encountered shall be recorded and incorporated on these drawings.
C2115.2 TRENCHING
Trenches shall be excavated with clean straight sides, to the depth required to obtain the
specified cable depth.
In sealed areas, saw cut the edges of the excavation in straight lines, to ensure a neat
finish shall be achieved at restitution.
All loose rock, stones and other sharp materials shall be removed from the trench, prior to
cable installation. All unsuitable backfill material shall be removed from site.
Prior to cable installation, the Contractor shall lay, level and compact clean (sieved,
unwashed) fine aggregate, with a maximum particle size of 0.1 x cable diameter, in the
bottom of the trench to a minimum depth of 50 mm before laying the cables.
C2115.3 INSTALLATION
.1 General
Cables shall be laid with all due care and attention to the prescribed cable tensions and
minimum bend radii as defined by the cable manufacturer, and in a good workmanlike
manner.
Mechanical cable pullers may be used where necessary. Where it is proposed to use
mechanical pullers a cable sock shall be used on the end of the cable to be pulled.
During the installation of the cable the cable drum shall be manner continually. The drum
shall be supported on cable drum stands, jacks and bar or a cable drum jinker suitably
sized for the cable drum. All cable pulling shall be from the top for the drum. A steady
drum speed shall be maintained to ensure the cable is not placed under any excessive
tension and to ensure the loops and “kinks” in the cable do not form. Should a loop form
in the cable during the cable pulling operation, the loop shall be unravelled by hand and
laid parallel and true before cable pulling can recommence. If a kink in the cable develops
then the cable installation shall be replaced.
Effective communication shall be maintained at all times between the personnel at the
drum and the personnel pulling in the cable.
All cable ends shall be sealed with self amalgamating tape against the ingress of water
immediately a cable has been cut. Cabled designed as future cables shall be sealed
utilizing heat shrink cable boots.
Where a spare cable is installed, 3 metres in length shall be left, coiled at each end. The
Engineer shall be given 2 days notice of cable installation, and shall have the opportunity
to observe cable installation. Cables not installed under the observation of the Engineer
may be rejected and replacement cables installed at the Contractor’s cost.
A loop or slack section of cable shall be left at each side of a road or traffic way to allow
for settlement of the road without stretching the cable.
Plaques shall be provided to identify the points at which buried cables enter the ground.
These shall be securely fixed to the structures or external walls of buildings from which
the cables enter the ground. Provide markers at all changes of direction along the cable
route.
.2 Direct Burial
The cables shall be laid in comp[acted sand layers. Each layer shall be 100mm thick.
There shall be minimum 100mm of sand between the final layer and mechanical
protection which shall be either 50mm precast concrete slabs or bricks. A continuous
length of PVC warning tape shall be laid (usually 300mm) above the protection. At
grades, red cable route markers shall be installed every 10m of cable route and at every
change in direction.
Direct-buried cables shall be further protected by approved cover slabs placed on the
aggregate bedding. This protection shall be Magslab or equivalent.
.3 Cable Ducts
Cable ducts shall be provided at the depth specified on the drawings to the requirements
of the Electricity Regulations.
Long radius sweeps or bends shall be used for all changes of direction. Elbows will not be
accepted.
Duct joints shall be glued to prevent water ingress into the duct system, using adhesives
recommended by the duct manufacturer.
Ducts shall be provided with suitably sized end caps to prevent the ingress of soil prior to
cable installation.
A draw in tape/wire shall be left in the duct after completion of cable installation.
Ducts shall be sealed with a suitable material after cable installation to prevent soil
ingress.
.4 Cable Pits
Cable pits shall be installed at locations shown on the drawing. They shall be square
rectangular of minimum size.
C2115.4 BACKFILLING
Backfilling material shall be free of stones, debris, rubbish, etc., and shall be placed, and
thoroughly compacted in 200 mm (loose) layers.
The thermal resistivity of backfill material within a radius of 50 mm of the external cable
sheath, or the outer wall of the cable duct (whichever is greater), should not be greater
than 1.2°/C/W/m². If the Contractor is unable to obtain suitable backfill material, then the
appropriate de-rating factor for the type of backfill material being used shall be obtained
and applied to the cable rating. Any increase in cable size and resulting modifications to
equipment to accommodate a larger cable to maintain the specified ratings shall be at the
Contractor’s cost.The trench shall not be backfilled until the installation has been
reviewed by the Engineer.
Where the trench is used for Electrical Supply Authority MV cables, liaise with that
Authority for any installation of earthing within the trench prior to backfilling.
The use of thrusting or directional drilling techniques shall be permitted with the approval
of the
Engineer. In these circumstances, the Contractor shall install rigid, heavy duty PVC duct.
They shall have a minimum diameter of 3 x the cable diameter (for multicore cables), or 4
x the single core cable diameter (for single core cables laid in trefoil).
Allowance shall be made for the de-rating effect of the soil and ducting in calculating
cable sizing.
The busduct system servings as rising main of feeder shall be copper conductor type of
rating as indicated on the drawing and shall fully comply with the following specification.
a. The busduct shall be designed for use on a 3 phase. 4 wire system rated at 660V
with full size neutral and 50% integral ground. The busduct shall be comply to JIS XC
8364. IEC 60439-2 and BSEN 60439-2 which shall be type tested by ASTA.
b. Busduct of 50% capacity integral earthing shall be low impedance and totally
enclosed for protection against mechanical damage and dust accumulation to degree
of protection of minimum IP 54 weatherproof type.
c. Copper busbar is made from Copper or alumunium Conductor and shall be of electro
tin coated And to be insulated over with class F 166oC epoxy coated insulated with
1.6mm thickness to it’s entire length by the extruding machine to prevent of water and
moisture, which cause reduction of electric resistance Mylar sheet and polyester film
insulation type are not acceptable.
d. The busduct joint shall be direct joint one-bolt type with fully insulated and using of
joint stack/pack is not acceptable. Access shall be required to only one side of the
busduct for tightening bolt joints. An indicator shall be provided to show proper torque
of joint bolt. All busduct system shall be possible to remove any one length in a run
without disturbing adjacent lengths.
All bolted connection shall be equipped with Belleville washers to distribute uniformly
by the clamping force over the joints. It shall be possible to remove any one section in
a busduct without disturbing the two adjacent busduct sections. Joints shall perfectly
have an adjustability to facilitate easy field installation and precise alignment.
The joint shall be provided with torque bolts and maintenance free nuts whose outer
head will be twisted off when the specified tightening torque of 1200 kgs-cm is
reached and it then acts as a lock nut.
e. The temperature rise at any point in the bus duct shall not exceed 55oC above 40oC
ambient temperature when operating at rated load current.
f. External fire barrier shall be included as an integral part each busduct length and
fitted where busduct passes through a wall or floor.
g. The busduct shall be able to withstand a fault level of at least 65 kA at 415 volts 50
Hz for 3 second, except have indicate on design drawing.
h. Busduct for indoor use must be of weatherproof design and so constructed to prevent
the entrance of water over the entire length including all joints and elbows, without
external housings that are not a continuous part of the basic construction.
C2120.2 INSTALLATION
All bus duct systems shall be installed in accordance with the manufacturers
recommendations.
Due consideration must be given to expansion of the conductors during both normal
operation and under fault conditions.
The bus duct shall be terminated using flexible copper or aluminium conductors.
The Contractor shall ensure that the structural strength of the walls and roof used for the
mounting of the bus duct systems is adequate for the load and mounting system
proposed.
Tap-off units shall accept MCCBs, of the ratings indicated on the drawings. The enclosure
shall be constructed from galvanised sheet steel. Earthing should be provided by dual
earthing contacts independent of the fixing clips.
Where tap-off units are of the “plug in” type they shall be designed and manufactured so
that current carrying metal is not exposed during insertion or removal, and the unit has
earth contact before contact is made with live busbars, the unit shall remain earthed
during removal until all live contacts are unmade.
C2121.1 GENERAL
Low voltage switchgear and control gear assemblies shall comply with IEC 60439
For the specific design of an assembly, refer specification sections for MAIN
SWITCHBOARDS, MOTOR CONTROL CENTRES, CONTROL PANELS.
The switchboard shall be suitable for operation under the following conditions:
This shear force may act in any direction. Anchorage of the switchboard shall be able to
sustain the shear force and induced overturning moment.
The switchboard manufacturer shall provide calculations to indicate the number and size of
holding down bolts required.
One layer of 8mm min. thick neoprene waffle pad at all supports (40 durometer).
C2121.7 CONSTRUCTION
In general, switchboards less than 2 m2 panel area shall be of modular construction suitable
for wall mounting. Larger switchboards shall be free standing multi-cubicle type of substantial
construction, and shall be so arranged that they may be readily extended at both ends. Paint
finish shall be powder coated to a minim thickness of 65 microns.
The finish shall be smooth and uniform in thickness on all surfaces including edges, and shall
be free from runs and other defects.
Separate cubicles shall be provided for PCMS and MCS interface wiring and control
equipment Provide a separate neutral and earth bars in the PCMS/MCS cubicle insulated from
the body of the switchboard.
Switchboards shall be of jigged modular construction with 135o full-swing, hinged access
doors.
Switchboards shall be designed and arranged to permit easy plant and installation
maintenance with minimum disruption to service.
It shall be permissible to obtain access to live parts through a door or cover whilst the
equipment is alive by defeating a mechanical interlock. Such an interlock shall be
automatically restored on refastening the door or cover.
Structural sections used for framework or supports shall be free from rust and scale, and shall
be of 2.0 mm minimum thickness.
Enclosures shall provide a durable rigid structure for all components indicated and all
necessary accessories required to complete the system. The minimum material thickness for
enclosures shall be 1.5 mm.
Welds shall be full fillet of neat appearance with all scale and weld spatter removed. Visible
welds shall be ground and treated so that they conform in appearance and finish to the
component material used. Welding shall be performed so as to minimise internal stresses and
to prevent distortion.
Workmanship shall be of a high standard and the finished equipment shall present a neat and
attractive appearance.
Particular care shall be taken to provide stress-free front panels where instrument or
apparatus cutouts are required, so that no distortion will occur when the cutouts are made.
Cutouts shall have no rough edges. All face-mounted equipment and bolts shall be flush
mounted.
Doors shall be constructed of the same material as that of the enclosure, and shall be pressed
or folded to give a neat appearance. Door openings shall be of sufficient size to permit easy
removal of equipment, mounting panels and components.
Doors upon which apparatus is mounted shall be effectively earthed by flexible earthing leads.
Where removable back, front, or side access panels are required, they shall be of similar
construction to the doors. Lift-off access panels shall incorporate two lifting handles and a
dowel arrangement to locate the panel onto the main frame.
Access doors and panels shall incorporate lockable handles or chrome-plated hexagon or
knurled-head captive fixing screws.
All access doors and panels shall close onto a resilient, full perimeter, neoprene seal to
exclude dust. Seals shall be firmly secured in position.
No material shall be used in the construction of any of the equipment which is inflammable,
hygroscopic or subject to deterioration.
• the termination of cables of large cross section which may be necessary for voltage drop
Considerations
• a cable bending radius of not less than 12 times the cable core diameter of the largest
cable indicated on the Drawings.
Trays, or similar supporting systems, shall be provided within cable compartments for the
orderly arrangement of large cables.
All components in the cabling zone shall be insulated so that future connections within the
zone can be made with all other equipment alive.
Terminals for external conductors shall be capable of accepting copper cables of the sizes
detailed on the drawings.
The neutral terminals shall allow the connection of conductors having a current-carrying
capacity equal to the full current-carrying capacity of the phase conductor.
C2121.9 BUSBARS
Busbars shall be solid hard drawn copper, indoor, enclosed, air insulated, and with current and
short circuit rating as shown on the Drawings for the degree of enclosure provided. Flexible
busbar shall not be used.
The current-carrying capacity of the neutral busbar shall be equal to that of the phase busbar,
and earthing busbar shall be 50% of the phase busbar.
Busbars, where visible when panels or doors are open, and busbar stubs for the connection of
outgoing cables, shall be colour coded with permanent red, yellow or blue heat-
shrinkinsulation.
The main busbars shall be fully rated for their complete length in accordance with the
drawings.
Busbars of lower rating for droppers, in accordance with the specified diversity factor, may be
used with the approval of the Engineer.
Provide a separate earth bar for computer earths. This shall be insulated from the frame and
appropriately labelled.
Metal oxide type surge arrestors in accordance with AS 1307.2 shall be used. They shall be
installed in accordance with the manufacturer’s instructions including the provision of backup
fuses if required.
Submit test certificate for tests carried out as stipulated in IEC 1024, BSEN 60099 or IEEE
C62.41 standards by an approved Testing Authority, and list projects on which the devices
have been used before.
The arrestors and wiring connection shall be sized to suit the specified fault level at the Main
Switchboard. Arrestors and associated wiring shall withstand the specified short-circuit current
at the Main Switchboard without over heating and causing fire hazard. The mains voltage may
vary from 205 V to 255 V RMS (phase to neutral) at 50 Hz under normal operating conditions.
Arrestors shall continuously withstand the rated mains voltage and the variations without any
conduction/leakage current to earth. Arrestors shall seal immediately after the passage of
surge current and shall not allow the follow-through normal current to flow.
Coarse surge protection shall be installed on the main switchboard, and motor control centre
in accordance with AS 4070, connected to the load side of the incoming protection.
C2121.11 TERMINALS
This clause relates to terminals which do not form an integral part of manufactured equipment.
Terminals of the rail-mounted pressure type shall be provided for all outgoing control and
auxiliary circuits. At least 20% spare terminals shall be provided. All terminals exceeding
extralow voltage shall be shrouded.
Terminals shall be grouped for conductors associated with each outgoing power circuit. In
particular, AC and DC terminals shall be grouped. Terminals shall be located adjacent to the
point of entry of external cables or wiring. All terminals shall be clearly marked in accordance
with the circuit diagrams. Screw-pinch type terminations shall not be used.
.1 Materials
Internal control wiring shall be stranded 1.5 mm2, 50/0.25, PVC, copper conductor except
Where the circuit current requires a larger conductor.
.2 Colour Coding
All core colours for AC and DC circuits shall comply with the CENELEC Designations and
CEM Technical Memorandum NCEM C32-310-311.
.3 Installation
Each end of each cable shall be positively identified by means of cable ferrules of an approved
type.
Small wiring shall be securely fixed in position and shall be so arranged as to enable
connections to be easily traced.
Small wiring circuits, other than those supplied from current transformers, shall be protected
as near as possible to the source of supply, consistent with maintaining accessibility.
Cable ties shall be used as necessary to maintain the cores in neat horizontal or vertical
looms.
The use of adhesive tape for this purpose is not acceptable. Ties shall be installed at a
maximum of 150 mm centres.
Control wiring, and power wiring where practicable, shall be enclosed in plastic ducts. All
wiring not enclosed in ducts shall be loomed together neatly.
Cables crossing hinge lines shall be made up into groups of not more than 12 cores, securely
fixed at both ends.
All controls and switching functions for any one outgoing circuit shall be located adjacent to
each other.
Where auxiliary (potential or control) circuits are connected to the main busbar circuit, they
shall originate from busbar-mounted fuses. A second set of protection devices shall be readily
accessible and shall discriminate with the busbar-mounted fuses. Access to these fuses shall
be provided by removable covers.
Provide a suitably rated rubber mat in front of each electrical switchboard and equipment.
Those in front of switchboard shall be the length of the switchboard plus two cubicle widths.
.1 General
Unless otherwise stated, switchgear and control gear components shall comply with the
relevant parts of IEC 60439 or BSEN 60947.
Circuit control components and equipment shall be of have tested certified construction and be
adequately rated to make, break and withstand the short circuit currents which may occur at
the point of installation.
With the exception of fuselinks, components shall be selected so that they are capable of
being put back into service with minimum or no maintenance after carrying fault current.
Circuit breakers (except miniature circuit breakers), switches and fuse switches shall be
complete with means for padlocking in the open position.
Type of Breaker:
- Breaking = 65 kA
- Withstand = 65kA – 1 sec
- Making = 2.5 x breaking capacity
The generator, bus coupler and mains breaker shall be four pole type.
- Motor-operated spring charged mechanism suitable for operation on 1 phase, 230 VAC
supply (close-open-close cycle before recharge).
- Three lamps to indicate incoming supply live(for mains and genset breaker)
- Auto/Manual switch
- Trip -Neutral -Close switch
- 24 V DC or 220 V shunt trip coil .
- 24 V DC or 220 V closing coil
- Three phase under-voltage relay with 2 NO + 2NC contacts ( on the line side for
incoming breakers and one on each side for the buscoupler breaker)
- 4 NO + 4 NC auxiliary contacts
- Electronic trip unit
- Check synchronising relay or refer to the drawing.
Control and Metering for Incoming and Bus Coupler Circuit Breakers:
Provide a 24 V DC power supply complete with battery and charger for controls, protection
and
indication. The charger shall be suitable for operation on 1 phase 220V AC supply.
A Power Control and Management System (PCMS) will remotely control these
breakers,monitor their status and measure various quantities shown in the PCMS Point
Schedule Drawing such as current, voltages.
Provide a digital meter on each incomer to communicate to the PCMS the parameters shown
in
the PCMS Point Schedule Drawings.
Protection:
Wire the following to the terminal block for connection to the PCMS:
It shall be possible to individually set and disable each of the above facilities without the aid of
any tool, handheld programming device or computer.
Wire the undervoltage relays to trip the respective breaker on loss of voltage except bus
coupler
breaker.
Controls:
• one common 220 V, 1 phase AC, 50 HZ supply for spring charge motors
• one common 220 V, 1 phase AC, 50 HZ supply for space heaters and convenience socket
outlets Each of these supplies shall be brought into the switchboard at one point and
reticulated within the switchboard. Provide separate switch miniature circuit breaker for
each type of control supply to isolate that control supply to the entire switchboard. Provide
separate miniature circuit breaker within each breaker panel to isolate the respective
control supply.
All the controls, interlocks and protection shall work in the "Service" and "Test" position of the
breaker.
Wire the normally-open auxiliary contact of the breaker in series with the trip coil, and normally
closed auxiliary contact in series with the close coil of the breaker.
In the "auto" position of the Auto/Manual switch the breaker shall close through a remote
potential-free contact. In the manual position of the Auto/Manual switch the breaker shall close
by means of the Trip-Neutral-Close switch. The breaker shall trip irrespective of the
Auto/Manual switch position in any of the following events:
Provide check-synchronising relay on each incoming breaker. The relay shall have the
following facilities:
The relay shall not permit the breaker to close if (a) the line and bus are both dead and (b) if
the line is dead.
Provide check-synchronising relay on the bus coupler breaker. The relay shall have the
following facilities:
• Close permissible if any one side is live and the other is dead
• Synchro check if both sides are live.
• Close permissible if both sides are dead.
MCCB’s up to 250 A shall be fitted with thermal and electro-magnetic trip units. MCCB’s
greater and equal to 250 A, shall be fitted with electronic trip units with site-adjustable thermal
and short circuit characteristics.
In the "auto" position of the Auto/Manual switch, the breakers shall close through a remote
potential-free contact. In the manual position of the Auto/Manual switch, the breaker shall
close by means of the close push-button. The breaker shall trip irrespective of the
Auto/Manual switch position in any of the following events:
MCBs shall comply with BSEN 60898. These shall be enclosed, and with the number of poles
and current rating detailed on the drawings.
Minimum rated short circuit capacity shall be 6kA. Denote the fault rating of the MCB’s on the
working drawings.
The Fault rating of MCB’s shall be equal or greater than the fault rating required for the
switchboard or DB. Fault limiting fuses must be installed if this cannot be achieved.
C2121.15 INSTRUMENTS
.1 General
Instruments shall comply with BSEN 60051-1 for indicating instruments, and shall be moving
iron with accuracy class 1.5.
The instrumentation noted either on the Drawings or specified within this section may either be
in the form of discrete instruments/meters or may be microprocessor based digital metering
(integrated system). The quality and accuracy of the alternative microprocessor based digital
system shall be as required as specified against the discrete meters.
Should discrete instrumentation be offered, it should be noted that that PCMS may require
additional transducers, as the microprocessor based system may be utilised to interface
directly with the PCMS interface terminals.
All instruments shall be equipped with non-glare glass, and all shall be the product of the
same manufacturer.
Voltmeters with selector switch to indicate voltage phase-to-phase, and phase-to-neutral, shall
be provided on the switchboard as shown on the Drawings.
Power Factor meters shall be accuracy Class 1.0 instruments suitable for 3 phase 4 wire
connection and scale length 270o.
.4 Energy Meters
Energy meters shall be of accuracy class 0.5 for circuits 100A and above and class 2 for
circuits below 100A and comply with BSEN 60521, be direct reading in kWh, and of the
cyclometer type or digital readout.
They shall be equipped with half-hour maximum demand pointers complete with integral timer.
All meters shall generate 800 impulses per kWh. The contact shall be suitable for
switching up to 230 volts AC.
.5 Digital Meter
The circuit monitor shall provide indication of current, voltage, power, kWh, power factor
and maximum demand readings. The accuracy shall be 0.5%.
The meters shall have suitable interface for connection to the PCMS/MCS. Careful
attention shall be paid to this aspect to avoid measurement errors and failure of meters.
.6 Transducers
The transducers used for interfacing with the PCMS/MCS shall be easily accessible for
testing and maintenance. Transducers shall be clearly labelled with the function and
corresponding I/O point. The transducers shall have sufficiently fast data sampling and
sending rate to enable on line real time measurement and monitoring.
.7 Current Transformers
Current transformers shall comply with BS 3938 or BSEN 60044 and shall be supplied To
suit protection and indication requirements.
Current transformers shall be terminated on standard test blocks with shorting links.
A dedicated Red phase CT shall be supplied for connection to the power factor correction
unit.
.8 Indication Lights
Indicator-lamp voltage ratings shall be about 20% higher than the normal supply voltage
with only a 5% reduction in illuminance.
Lamps shall be capable of replacement from the face without the need to dismantle
indicators or expose live parts. Indicator Lamps shall be of the LED type.
C2121.16 PAINTING
C2121.17 LABELS
.1 General
Tests as detailed below, and inspection by the Engineer, shall be carried out at the
manufacturer's works.
Inspections and test shall be made prior to equipment being energised, and shall include all
tests recommended in the manufacturer's installation instructions, and the tests described
below.
Before testing and energising a system, the necessary precautions shall be taken to ensure
the safety of personnel and equipment. Conductors and electrical equipment shall be properly
insulated and enclosed. Enclosures for conductors and equipment shall be properly earthed.
If any of the equipment to be supplied should fail the tests, or is otherwise rejected by the
Engineer, all costs associated with the making good of the equipment, including its taking
down, re-erection and other associated charges, shall be borne by the Contractor.
.2 Physical Check
A visual check shall be carried out for the completeness of the switchboard including
accessories and materials supplied with the switchboard.
Conductors and cables shall be checked for proper installation and identification against the
drawings and schedules.
Connections, particularly of the screwed type, shall be checked for adequate contact.
Busbar joints shall be checked for tightness, and bolts shall be proved to be tightened to the
manufacturer's torque settings.
Fuse links shall be checked for rating and for correct installation, with particular attention to the
correct order of assembly of mounting components.
Moulded-case circuit breakers shall be checked for correct rating and setting.
.3 Earthing Circuit
The earthing circuit shall be checked by inspection, and where effectiveness is in doubt a
resistance check shall be performed. Bolted joints shall be checked for tightness using a
torque wrench.
A test shall be made to prove the effectiveness of the connection of the main earthing
conductor of the switchboard. The resistance, when measured at approximately 100 A DC
between the terminal of the earth bar and:
- any part of the switchboard normally required to be earthed, shall be less than 0.01 Ω;
- any other exposed conductive parts of the switchboard, shall be less than 0.1 Ω
.4 Insulation Resistance
Insulation resistance tests shall be made of each part of the switchboard with a DC voltage of
1,000 V. This shall be measured from all phases together to the frame and shall be done with
all fuse elements in place and switches closed, but with all current-consuming items, such as
contactor coils, instruments, relays, lamps, heaters etc., disconnected. Electronic devices shall
also be disconnected. The test shall include control circuits.
The test shall be applied with all switches open and fuses installed, but with current-
consuming items such as contactor coils, instruments, relays, heaters etc., and electronic
devices disconnected.
A test voltage of sinusoidal waveform, of frequency between 45 and 65 Hz, and potential of
2,000 V shall be applied for 1 minute between:
For testing of poles, control and auxiliary circuits shall be connected together and to the frame.
There shall be no significant change in insulation resistance before and after the high voltage
test. The test shall be passed if there is no flashover, sparking-over, puncture, surface tracking
or obvious deterioration of the insulation.
A millivolt drop test shall be applied across busbar joints to determine acceptability. The
millivolt drop tests are as detailed below:
• Horizontal bus bars RY & B phases, Neutral, and Earth bars measured along full length of
the switchboard.
• Each cubicle vertical bus bar, the measurement to be taken from one end of the horizontal
bus bars to the bottom extreme end of each vertical bus bar for RY & B phases.
• Measurement across each ACB, including around withdrawal contacts on RY & B phases.
.7 Mechanical Operation
The effectiveness of mechanical actuating elements, interlocks, locks and similar shall be
checked.
Equipment within the switchboard shall be checked for functional operation, proper mounting,
and completeness, e.g. arc chutes, fuse holders, etc.
Prove the satisfactory operation of each switch, contactor, relay and other control devices.
Prove that doors can be easily opened and closed, and access panels can be easily removed
and refastened.
Prove that doors which support equipment can be opened to their full extent without stressing
the wiring to that equipment.
The purpose of these tests is to ensure that equipment is safe to operate, safety devices are in
order, alarms register, protective devices are at the correct settings, and that all operations
occur in the correct sequences.
The movement of all electrical indicating instruments shall be checked by slowly raising and
lowering the measured variable and observing the instrument indication. Calibration checks
shall be made at full scale for all indicating instruments. Test equipment for this purpose shall
be subject to specific prior review by the Engineer. Checks on calibration of ammeters shall
include the associated current transformer, if any.
.9 Protection
All protective devices shall be properly set and operative during the testing period.
Prove the correct operation of circuit breakers including the mechanical operation of their
opening and closing devices.
Measure the resistance of circuit breaker trip and closing coils and record their values.
Protective relays shall be set in accordance with the Engineer's instructions and shall be
tested so as to satisfactorily demonstrate that the characteristics of the installed relay are
within the tolerances of BSEN 60255-6.
Where power factor correction is included in the switchboard, refer Specification Section
POWER FACTOR CORRECTION for testing.
Make adequate provision within the structure for lifting of the switchboard. Supply and
hand over any special lifting equipment which may be necessary for the Principal to
handle the switchboard.
The switchboard shall be adequately protected for shipment from the manufacturer's
works to the Site.
C2121.20 TOOLS
Supply any special tools necessary for the operation and maintenance of the
switchboard.
C2121.21 SPARES
The contractor shall supply a list of recommended spares for all equipment within the
switchboard.
C2122.1 CONSTRUCTION
The contractor shall verify that switchboard dimensions are appropriate for respective
switchrooms. Allowance shall be made for clearances to the front, rear, and sides of
switchboards to allow access for operation and maintenance. Allowance shall also be
provided for future switchboard extension. This shall be indicated in the Contractor
detailed drawings.
The main switch shall be an air circuit breaker having the rating shown on the Drawings.
The air circuit breaker shall be fitted with matching current transformers and solid state
protection relays having characteristics.
The main switch shall be motorised, and fitted with shunt trip.
Air circuit breakers, moulded case circuit breakers, and fuse switches shall be provided
as shown on the Drawings. Substitution of switchgear types other than those shown on
the Drawings is not acceptable except with specific prior review by the Engineer.
Agreement to deviate from the specified equipment shall be at the discretion of the
Engineer.
C2122.6 INSTRUMENTS
C2123.1 CONSTRUCTION
Distribution boards (DBs) shall consist of proprietary front access, metal clad, modular
units assembled to form a complete functional unit suitable for wall mounting. DBs shall
be of form 2 construction to BSEN60439 or non-certified equivalent standard.
The finish shall be smooth and uniform in thickness on all surfaces including edges, and
shall be free from runs and defects.
Busbar assemblies for three phase DBs shall accept single pole and triple pole MCB's
and be rated as shown on the drawings and schedules. Should the expected fault level
be greater than this then allowance should be made for fault limiting MCCB’s or fuses to
be installed.
Unless he distribution board configuration is specified otherwise, DBs shall have space
available for the future addition of a minimum of a further 20% of the circuit ways.
Where required separate cubicles shall be provided for PCMS/MCS interface terminals
and equipment, in general each cubicle shall be a minimum of 400mm x 400mm. Note
the requirement for additional space for the lower ground level DBs for interface wiring
terminations for the lighting control system. Spare space of 50% should be allowed within
these cubicles.
All cubicle doors of DBs shall be lockable. DBs wider than 800mm shall be double door
type.
DB’s shall be mounted off concrete block walls with 5mm spacers to prevent direct
contact and corrosion
Main switches shall be load break isolating switches or MCCB’s of minimum ratings
shown on the Drawings.
Moulded case circuit breakers and miniature circuit breakers, shall be provided as shown
on the Drawings and DB Schedules. Provide residual current devices as shown in the
Drawings and Schedules.
MCB’s shall have a fault rating greater than expected at the DB with a minimum of 6kA
rating.
C2123.5 INSTRUMENTS
Provide the instruments and “power on”shown on the Drawings and Schedules.
Contactors shall comply with BS 5424 utilization category AC3. Coils unless otherwise
shown shall be suitable for 230 V AC operations.
A minimum of two normally open and two normally closed auxilliary contacts shall be
fitted to each contactor. Auxilliary contacts shall be readily accessible and capable of
being altered in the field from break to make contacts and vice-versa.
Relays shall, where applicable, be of the plug-in type. Relays shall be provided with the
number of contact pairs shown on the drawings provided that at least two change over
pairs of contacts shall be fitted. Plug-in relays shall be fitted with retaining clips.
Provide one auto/manual/off switch for each PCMS/MCS/lighting control system function.
The control supply for the contactors shall be derived down stream of the main isolator
and upstream of contactors.
C2123.7 TERMINALS
All outgoing circuits shall terminate directly onto the apparatus controlling each circuit.
Residual Current Circuit Breakers (RCCB’s) or Earth Leakage Circuit Breakers (ELCBs)
shall be of current operated type, 2 or 4 pole suitable for the voltage indicated on the
drawings. Tripping sensitivity shall be 300mA for equipment and 30mA for guestroom or
as indicated on the drawings. A test button shall be incorporated to enable periodic
checks to be carried out on the operation. The rupturing capacity of the RCCBs or ELCBs
shall be able to withstand the prospective fault level at the respective points of
application.
These devices will generally be required in damp areas such as bathrooms and toilets.
IEC 831-1: Shunt capacitors of the self healing type for AC system
Part 1- General
Part 2- Aging test, self healing test and self destruction test
BS5424 Contactors
C2125.2 CONSTRUCTION
The enclosure shall be Form 2 and IP33 rated. Provide ventilation and thermal sensor
connect to BMS to indicate temperature max. status, so that the daily average and
maximum temperatures within the panel are within the temperature rating of the
capacitors.
The cable entry shall be same as the main switchboard/MCC. Refer C2121 for details of
construction.
Where the power factor control and capacitor cubicles are an integral part of a main
switchboard, they shall not impede the future extension of the switchboard.
C2125.3 COMPONENTS
The components shall be rated for the capacitor duty and the switching inrush currents.
The contactors shall have pre-insertion resistors which are switched ahead of the main
contacts and reduce the inrush current and transient voltages to a safe level for the
capacitors and transformers connected to the main switchboard/MCC. The resistors shall
be bypassed when the main contacts close, and open when the contactor is opened.
a) Result in the operation of the HRC fuse MCCB for the unit and interrupt the supply to
the unit.
b) Allow the gases to escape from the container in a safe manner
The series reactors shall be iron cored, and reactance 7% that of the capacitor bank in
series.
The power factor controller shall automatically maintain the system power factor at a set
value adjustable between 0.9 lag to 0.95 leading. The controller shall incorporate the
following features:
• Indication to show:
- Power on.
- Capacitor steps connected
- System power factor and lead/lag status
- Fault
C2125.6 TESTING
The tests shall include the tests specified in IEC 831-1 and functional tests.
.1 Type of Tests:
Submit with the tender test certificates for similar capacitor units. The certificates shall
include the following tests:
.2 Routine tests:
At the manufacturer’s factory carry out the following tests on each capacitor in presence
of the Principal /Principal’s representative/Engineer. In the event the factory tests are not
witnessed by the Principal/ /Principal’s representative/Engineer then submit the test
certificate to the Principal for review before the equipment is dispatched from the factory:
• Capacitance measurement
• Measurement of the tangent of the loss angle
• Voltage test between the terminals
• Voltage test between the terminal and container
• Test on the internal discharge device
• Sealing test
• Insulation resistance test on busbars and power wiring using 1 kV tester
.3 Site tests:
Insulation resistance test on busbars and power wiring using 1 kV tester If available use
the building load, otherwise provide inductive and resistive load banks for testing for the
following functions:
• Auto mode operation on a set power factor starting with no load, going on to full load
(all the steps switched in) with the loads switched manually.
• Manual mode operation with load adjusted so that all the steps are switched in.
Manually switch the steps out and then switch the steps back in.
• Record the current drawn by the unit, and voltage at the terminals of the capacitors,
at each step and check it is within the limits.
The purpose of this Check Sheet is to record the general status and or progress of the
work.
This document does in no way absolve the vendor from any of his responsibilities to
supply a fully functional and tested unit in accordance with the Contract and specification.
The Vendor and the Vendor’s Engineer is deemed to have the specialist knowledge and
test equipment to produce a fully functional unit ready for the service intended.
These sheets shall be filled in by the Vendor’s Engineer and submitted to Beca Carter
Hollings & Ferner Ltd one week prior to a Beca Carter Hollings & Ferner Ltd visit.
Telephone:
Vendor’s Test Engineer: Telephone:
After Hours:
C2127.2 INCOMER
Comment
Ampmeter Range 0 -.................. Amps
Selector 3 position
Switch RWB
6 position
RWB
Voltmeter Range: RW
WB BR
As above +
Phase to N
Lamp Test
Facility
Indication
lamp
colours
Supply kWHr
Authority
Metering
Max. Demand
Meters
Power Factor
Indication
Other
Type : DOL, Soft Start, Variable Speed, Star Delta, Resistance tart, Slip ring, Reactor Start
Comment
Degree of protection IP ................
Doors Seals
Catches
Comment
Bus Bars Al Cu
Insulated Bare
Main bus mm x mm
Neutral
mm x mm
bus
Droppers mm x mm
Comment
Paint Thickness
Quality / (Nominal)
Finish
Spot Check
(Vendor to
Demonstrate)
Comment
Labels (check against SLD)
Comment
Earth Bar Position
Earth Bar mm x mm
Neutral/ Earth Link Position
Earth Connections to doors
Gland Fitted
Plates
Drilled
Earthing
Conductor to
Gland Plates
Comment
Specified: BS 88 Fitted (check)
DIN Fitted (check)
C2127.9 DOCUMENTATION
Nº/Rev Comment
Single line diagram
Wiring & schematics
General arrangement/layout
Comment
Packing Type
Ready for (date)
Despatch
Craneage at Site Required?
By Vendor / Client
C2130.1 GENERAL
C2130.2 PROTOTYPE
Prototype equipment shall be submitted for review by the Engineer before production
starts.
The Engineer will only verify that the prototype conforms with the specification and design
intent.
The Contractor shall install the prototype equipment in a trial ceiling in liaison with the
ceiling manufacturer and shall wire the luminaire temporarily for operation.
Following preliminary approval of the prototype, the actual performance of the luminaires
shall be tested at an approved laboratory. All costs associated with this testing shall be
borne by the Contractor. When testing has been approved, the prototype and the first
luminaire from the approved production run shall be held in the care of the Engineer for
quality control purposes.
Any laboratory providing photometric or other data shall be a registered facility with
ISO9001 accreditation.
The luminaires specified are an indication of the type quality and performance required.
The contractor is permitted to offer alternative luminaires to those specified, however the
contractor shall in all cases provide technical information verifying that the photometric
performance, luminaire housing, and all other aspects are equal to or better than that
specified. This information shall be provided at the time of tender, or when the alternative
is suggested. The contractor may also be required (at the contractor’s cost) to provide a
computer model for the installation to verify the alternative being offered.
• shall be of proprietary design and finish, readily available and, except where not
practicable or where indicated otherwise, be locally sourced. All luminaires shall be
subject to specific review by the Engineer prior to ordering. Provide samples for
review by the Engineer. Refer Specification Section PRE-MANUFACTURE
SUBMISSIONS.
• shall be complete with lamps or tubes and be fully assembled upon installation.
factors of less than 0.90 lagging are obtained, all luminaires shall be tested by the
Contractor for power factor and any having a power factor less than 0.90 lagging shall
be rejected.
• where fluorescent, compact fluorescent, HID and low-voltage tungsten halogen are
provided, luminaires shall, as a complete working installation, generate no spurious
transient or harmonic content to the mains which may adversely affect the proper
operation of any other electrical systems and electrical equipment installed within or
outside the Site. The total harmonic distortion of electronic ballasts or transformers
used for lighting shall not exceed 10% of the fundamental line frequency. Equipment
intending to be installed with values above this must be submitted for assessment by
the Engineer.
• where recessed, luminaires shall be installed to prevent visible light spillage in ceiling
or wall spaces; between light-box and diffuser; and between trim and ceiling (or
verandah) when viewed from floor level.
• where recessed, luminaires shall be easily installed and removable for maintenance
from below the ceiling surface, or where recessed in walls, from the front.
• in plant rooms and other areas where air conditioning ducts and other services
prevail, provide any additional brackets, or other suspension method, to enable final
positioning of these luminaires when the plant is installed.
• where recessed, luminaires shall have lamps, starter switches and fuses which are
easily accessible by the removal of the diffuser only.
• shall have fuses and starters accessible without exposing live metal or the removing
of covers, equipment or lamps other than the diffuser.
• shall not have any labels showing the manufacturer's name or trade mark visible on
an installed luminaire. This shall not apply to exterior luminaires. Labels inside
luminaires or light shrouds shall not be of the self-adhesive type.
• shall have a label clearly showing wattage (or maximum wattage) and generic type of
lamp to avoid incorrect relamping.
• shall be of robust construction with steel sheet accurately formed in dies or presses.
The various parts of the housing area shall be assembled by spot welding,
continuous gas welding or riveting techniques.
• reflectors shall be at least 99.8% high purity aluminium and shall conform with DIN
5036 and DIN 67530. They shall be polished, brightened and anodised to give a
maximum total reflectance factor of 0.7 specular and 0.83 total.
• control gear shall either be mounted on removable gear trays or secured by welded
threaded studs to allow speedy removal and servicing. With recessed luminaires, this
shall be possible without the need to disturb the surrounding ceiling. All wire ends
shall be crimp terminated to avoid faulty or loose connections.
• ballasts shall be mounted for maximum heat dissipation by conduction, radiation and
convection with at least 80% of the largest side of each ballast in direct contact with
the luminaire body or gear plate. There shall be a clearance of 75 mm between any
ballast, capacitor and other electrical component.
• the reflector and the luminaires as a whole shall be so designed that the lamp wall
temperature when in service gives optimum light output and life for the intended make
of lamp.
• during normal operation, the electrical components of luminaires shall not exceed a
noise level of PNC 30 in typical office areas, or PNC 27 elsewhere, measured at 1
metre from the luminaire. A predominance of audible pure tone hum or buzz
produced by luminaries will not be acceptable.
• six luminaires shall be tested by an approved laboratory, for noise under the
prototype testing programme. The sound power level of each luminaire shall not
exceed the specified value, when tested in accordance with ISO 3742.
Internal wiring shall be completed at the factory and all luminaires shall be delivered
ready for final connection to external circuits. Internal wiring shall be colour coded high
temperature (105oC) PVC secured to the luminaire metalwork by approved heat resistant
clips at not more than 200 mm centres and prevented from coming into contact with the
ballast. All internal wiring shall terminate on a ceramic or moulded terminal block, which
may incorporate an HRC fuse fixed to the gear plate.
Quick connect tags shall be machine fixed and subjected to random "pull-off" tests. Any
connections having greater than 10% of severed conductor strands shall be rejected and
all luminaires previously supplied shall be checked by the contractor and rejected if
subject to a similar defect.
All internal components utilised in luminaires shall be freely available for replacement
purposes and, in the case of lamps, capacitors, chokes and starter switches, the maker's
catalogue number must be clearly indicated.
Lamps, ballasts and associated lamp components shall conform to the following
standards.
The correct wattage and generic lamp shall be used with the appropriate control gear,
reflector, shade and luminaire. Luminaire manufacturers maximum voltage requirements
shall be followed to avoid damage to luminaire or mounting surface.
One lamp shall be used per ballast or transformer. This is not applicable to tungsten
G.L.S; low voltage or 230 V tungsten halogen (see Specification Section LUMINAIRES –
SPECIFIC REQUIREMENTS) or twin 18 w or 20 w fluorescent luminaires.
There shall be provision for adequate lamp support made of ultra violet, corrosion and
heat resistant materials.
Capacitors shall comply with BS 4017, be 250 volts rating, and shall be leak-proof
metallised dry film or polypropylene film varieties. Separate capacitors shall be used for
each luminaire circuit. Capacitors encapsulated in ballast housings will not be acceptable.
Suppressors of the ceramic type rated at 3,000 volts shall be fitted to comply with the
Radio Interference Regulations.
HRC fuses and holders or approved protection device shall be provided for each lamp
circuit.
The maximum exterior surface temperature of a luminaire shall not exceed 90oC if
adjacent to combustible surfaces. Insulation and roofing papers shall be kept at least 300
mm above a luminaire and at least 75 mm from the sides if these temperatures are likely
to be exceeded.
Luminaires in T-rail and tile ceilings shall be fitted with seismic restraints. The form of
these restraints shall be such as to allow, at any time, the easy removal of luminaires
without the need to remove any adjacent ceiling tiles. Design of seismic restraints shall be
co-ordinated by the Contractor with the suspended ceiling design.
Luminaires shall be suspended from the tile suspension system. Provide additional
support for luminaires supported from lightweight tiles.
G.R.P. or other plastics shall not be used in areas prone to vandalism where luminaires
are ground mounted or where they may get too hot.
Polycarbonate refractors and diffusers shall be ultra violet stabilised and shall not be used
on high pressure mercury or self ballast mercury luminaires.
Exterior luminaires shall be water and dust resistant to I.P. 65. Any perforations or air
vents shall be covered with a non-corrosive gauze to exclude insects.
Exterior luminaires shall be securely fixed by at least two stainless steel or galvanised
fastening bolts washers lock nuts. The method of fixing shall allow for adjustment both
horizontally and vertically with one of the fastening bolts locking the position.
Positions and mountings of luminaires shall be subject to specific prior review by the
Engineer.
Poles shall be designed for windage and seismic requirements. Pole loadings shall
conform to AS 1250, AS 1538. Poles shall be designed by a registered structural
engineer.
Wood poles shall conform to NZS 3605 and be treated to TPS Brand H5.
Steel pole holding-down assemblies shall be electrically connected to the reinforcing steel
in the foundation to reduce damage by lightning strike.
Steel poles shall be checked for defects before assembly. Any defects shall be reported
to the manufacturer before assembly.
The luminaire manufacturer shall provide an aiming device for preliminary aiming.
The proposed lighting layouts and general arrangement concepts for the modular
luminaire are as shown on the Drawings.
All recessed modules shall be interchangeable and easily installed from below the ceiling
surface without the necessity of removing adjacent tiles. Diffusers shall be removable
without the aid of tools.
Twin lamp modules shall not have lead/lag circuitry. Fluorescent luminaires shall operate
on a proven electronic or preheat start circuit arranged for optimum performance and
shall comply with standards referred to above.
Self adhesive labels will not be permitted within the light box of an enclosed fluorescent
luminaire.
Luminous ceilings and backlit signage shall not show the outline of tubes.
Luminous ceilings and backlit signage shall have 38 mm diameter tubes 300 to 400 mm
apart.
They shall not be further apart than 1.5 times distance between source and the diffuser.
Tubes shall overlap by 150 mm.
Cove lighting shall have diagonally overlappped tubes with an overlap of 150 mm.
Fluorescent battens shall be as near constant distance as possible from back board so as
to avoid dark or over bright spots being visible on the finished installation.
Cables shall not be run in illuminated coves unless they are appropriately temperature
rated.
Luminaires shall be so oriented within pelmets and coves that the lamps, starters and
fuses are accessible for maintenance, without having to remove the luminaires.
All module luminaire dimensions shall be fully co-ordinated with the ceiling system into
which they are to be installed, and with other services running in the ceiling space.
Light boxes shall be made up from folded steel, finished white inside and out.
As an alternative to bright steel sheets, zinc coated sheet may be used provided that the
final finish is equivalent to that obtainable with bright steel sheet.
Recessed luminaire diffusers shall be of the lay-in style and of adequate structural
strength to ensure ease of lamp changing and no sagging during service. The expansion
and contraction of the diffusers shall be taken into consideration to prevent distortion of
the diffuser panel.
Installed louvres and diffusers shall be self-aligning and sit square and straight within the
Luminaire.
All steel shall be thoroughly cleaned before painting and shall be finished all over (both
inside and out) with a polyester powder paint of the same type and colour as specified for
the ceiling system. Polyester powder coat paint is the preferred finish inside and out, but
baked enamel top-coat will be considered. The finished surface shall be smooth and have
a reflection factor of 85%. The steel shall be treated before painting as the paint
manufacturer's written instructions to obtain a satisfactory finish.
Trims and flanges which will be the only visible portion of the recessed module shall be
formed from proved and polished dies. They shall be jig tested for squareness.
All recessed fluorescent luminaires shall have a terminal arrangement of appropriate size
to accommodate a minimum 2 x 2.5 mm2 conductors. Luminaires shall be provided with a
separate convenient earth terminal spot-welded to the body of the luminaire. Two spare
terminals shall be provided.
Cable entry to recessed fluorescent luminaires shall be sufficient to allow entry of two 2.5
mm2 NYY 3 core cables.
Dimmable fluorescent luminaires shall use high frequency systems with an ability to dim
to 10% without flicker, spiralling or extinguishing. The appropriate high frequency
dimming ballast and suitable tube shall be used with a matched dimmer unit.
The 100 hr design lumen output of a 26 W compact fluorescent tube shall be no less than
1800 lumens. Tubes shall be rated for a minimum average economic life of 5,000 hrs
based on the I.E.C. standard of eight switchings per 24 hours. Tubes shall have
international 2G11 bases, and shall be interchangeable with other standard lamps
available in Indonesia.
The 2000 hr design lumen output of a 36 W compact fluorescent tube shall be no less
than 2610 lumens. Tubes shall be rated for a minimum average economic life of 5,000
hrs based on the I.E.C. standard of eight switchings per 24 hours. Tubes shall have
international 2G11 bases, and shall be interchangeable with other standard lamps
available in Indonesia.
Ballasts shall be low noise, low loss type. They shall have copper layer wound coils and
be of approved manufacture and be suitable for operation with electronic or switch start
fluorescent tubes and shall comply with NZS 6210.
Luminaires shall be vandal resistant. Diffuser holding clips shall be secured in such a
manner that they can not easily be released without specialised tools.
G.R.P. gear/back plates are preferable to mild steel backplates if low loss ballasts and
fuses are used. This reduces internal condensation corrosion.
Linear low voltage strip lighting shall not be installed against combustible materials. It
shall not be installed under counters where it can be easily touched by hand unless
protected by a guard.
All electrical connectors shall be checked for loose connections. Lamp spacing in cove
lighting must be maintained across adjacent sections.
Higher efficiency crypton lamps with long life filaments shall be used in preference to
standard 1,000 hr life argon lamps.
Incandescent luminaires shall not be used for security lighting (all-night operation) unless
activated for short periods by infra red, sound, or some other form of semi-automatic
switching.
Blown soft glass reflector and GLS lamps shall be enclosed within luminaires in exterior
situations.
A voltage regulator designed for inductive loads shall be used to reduce transformer
output voltage by 7%.
Electronic transformers shall not be used in large installations unless they conform to
Specification Section LIGHTING - GENERAL with reference to harmonics and spurious
trasients.
A minimum of 2.5 mm2 conductor size shall be used on secondary wiring. For 4 x 50W
multilamp systems not more than 3.5 m of 2.5 mm2 cable shall be used. On single
lamp/transformer circuits with 50W lamps, not more than 7 m of 2.5 mm2 shall be used.
On multi-lamp systems secondary lamp circuits shall be run individually back to the
transformer to avoid volt drop. Cable lengths should be as near as possible the same
lengths to avoid different light intensities.
Check voltages at the lamps nearest to, and furthest from the transformer with all lamps
installed. Primary voltages shall also be checked. A list of these voltages shall be given to
the engineer. Secondary voltages shall be between 11.8 and 12.2 Volts.
Provide a drawing showing transformer positions, the secondary circuits, a list of lamp
voltages, and beam angles of dichroic lamps as installed.
Due attention shall be given to adequate ventilation for dichroic luminaires and their
proximity to combustible materials.
Bare tungsten halogen lamps without outer envelopes shall not be touched by an
ungloved hand during installation.
Tungsten halogen lamps shall not be installed where mis-aiming could cause the focal
point of the lamp to ignite combustible materials.
Final positions, aiming and beamspreads of dichroic luminaires used for accent or flood-
lighting shall be checked with the Engineer before installation.
Linear tungsten halogen luminaires shall be enclosed. Dichroic reflector lamps shall have
closed front glasses.
Tungsten halogen luminaires shall not be used for security lighting (all-night operation)
unless activated for short periods by infra red, sound or some other form of semi-
automatic switching.
H.I.D. luminaires shall be wired with heat resistant cabling, fitted with porcelain terminal
blocks, configured to prevent components damaging or discolouring diffusers and or
adjacent building finishes, and complete with remotely mounted ballast where required.
Remote ballasts shall be mounted as close as possible to the lamp. The contractor shall
verify with the manufacturer that the maximum distance between control gear and lamp
for a particular conductor size are not exceeded and the efficient and effective running of
the luminaire are not impaired.
Constant wattage control gear shall be used with metal halide in the ranges of 175W,
250W and 400W unless reactor gear is approved by the lamp manufacturer.
H.I.D. lamps shall not cause flicker to a degree which annoys operators working under
these luminaires.
Metal halide lamps shall not appreciably change colour near the end of their average
rated life.
Self ballasted lamps shall not be used where ballasted mercury lamps can be used. They
may be used in situations where special colour rendition is required.
Special "Retrofit" high pressure sodium lamps made for running on mercury control gear
shall not be used on new installations. Only regular H.P.S. control gear shall be used in
sodium installations.
Provision shall be made for some fluorescent or incandescent light source to be circuited
in with a H.I.D. installation to give some light after momentary power strikes. The time lag
is to allow for hot lamps to restrike.
Any perforations or air circulation vents shall be covered with a non-corrosive gauze to
exclude the ingress of insects.
High wattage H.I.D. lamps shall be enclosed to reduce ultra violet light damage and the
production of ozone.
The external finish of control gear or luminaires shall not be altered without the
manufacturers approval.
Unenclosed lamps shall have hard-glass envelopes to take thermal shock from rain, hail
or snow.
Road lanterns shall have a filter against dirt and condensation in the optical compartment.
Luminaires shall be constructed and mounted so as to discourage birds vermin from
bringing combustible nest material close to hot control gear or from obstructing
ventilation.
For unit apartment using LED BULB lamp completed with Downlight housing.
C2132.1 GENERAL
The emergency lighting system shall be Single Point Units. The installation shall also be
in accordance with the Australia/New Zealand Standard Emergency Evacuation Lighting
for Buildings AS/NZS 2293 1998.
Batteries shall be rated or warranted by the manufacturer for 7 years. Batteries shall be
NiCad The in-service duration of the emergency lighting shall be 60 minutes. The initial
duration of the emergency lighting at the time of commissioning shall not be less than
1.33 times the in-service duration, i.e. 80 minutes.
The installation shall be arranged so that the failure of the electrical supply to final
subcircuits supplying normal lighting to a designated area will automatically energise
emergency luminaries and exit signs in the area served by the normal lighting subcircuit.
The normal lighting circuits from a DB shall be sensed with a phase failure relay on the
load side of the protective device.
One or more phase failure relays will be required at each area DB depending on the
number of lighting circuits.
On restoration of supply, the emergency power supply to lighting circuits shall switch off.
Every device (MCB, MCCB, isolator) which, if turned off, will cause the emergency
evacuation lighting to operate shall have the following warning notice clearly and durably
affixed to or adjacent to the device: “WARNING: Interrupting supply will discharge
emergency evacuation lighting battery banks”.
The Electrical Contractor shall allow in this contract to have the emergency evacuation
lighting installation inspected by an independent qualified person, and a certificate shall
be issued to the engineer prior to practical completion.
C2133.1 MANUAL
Generally light switches shall be mounted at a height of 1150 mm. Light switches shall be
of the white polycarbonate flush mounted. Mounting shall be in flush boxes or white
polycarbonate mounting blocks as applicable to the positions shown on the Drawings.
Unless otherwise specified, switches shall be within 200 mm of the door frame on the
handle side and shall be mounted square and level. Confirm all door swings before
installing conduits or cables for light switches. Pushbutton panels at lift lobbies shall be
within 400 mm of the lobby opening.
Where up to six switches are grouped together, ganged switch plates having the exact
number of switch positions required shall be used.
Where six or more switches are grouped together, six-gang switch plates shall be used.
Blank off, with proprietary blanking inserts, those switch positions not used.
All weatherproof light switches shall be of the surface mounted type to IP56 minimum as
BS 5490.
a. Public Area
b. Unit Apartment
Unless expressly noted otherwise, outlets shall be mounted at a height of 300 mm above
finished floor level or 200 mm above benches, or 1400 mm above finished floor level in
plant rooms and the like.
Socket outlets, unless otherwise specified, shall be 3 pin 10A white polycarbonate, flush
mounted.
Weatherproof socket outlets shall be of the surface mounted type to IP55 minimum.
Fixed outlets shall be installed for such items as hot water cylinders, autodoors, roller
shutter doors, hand dryers, etc, and be mounted 1400 mm nominal above finished floor
level, 500 mm above benches or as shown on the Drawings.
Single phase fixed outlets shall be white polycarbonate, complete with isolator. Provide,
install and connect all cabling and flexes from fixed outlets to the various items.
Fixed outlets for three phase connection or fixed outlets in plant rooms etc and carpark
areas shall be of an approved polycarbonate surface mounted type. They shall be
switched and have neon indication to show power is on.
In timber-framed walls, switch and socket outlet boxes shall fixed to dwangs, noggings or
studs to provide necessary support.
Where boxes are in blockwork or in concrete, a galvanised type shall be used. All
conduits shall be terminated with sockets and male bushes and the boxes completely
sealed to prevent the ingress of cement slurry. Boxes shall be securely fixed to prevent
movement during concreting.
As soon as possible after concreting, examine such boxes, clean out and protect against
corrosion.
C2142.1 CONSTRUCTION
C2142.2 MARKING
Each special purpose outlet shall be clearly permanently identified by fixing a label as
close as possible to the outlet, stating the purpose for which the outlet is intended.
Outlets which have voltages other than 220 Volts 50 Hz shall have pin configuration
and/or sizes which will not accept the standard 220 Volt plug used in Indonesia or 13A
British type plug.
Provide a floor box system for kiosk outlets and other purposes in positions shown on the
drawings. Floor boxes shall be two compartment with lid suitable for installation into a
60mm concrete screed. Infill panels shall be provided within the lid box for installing either
soft or hard floor finishes to match the surrounding areas.
The two compartments within the box shall be separated within a metal dividing panel.
The design of the box shall allow the lid to close whilst both power and communications
outlets are being used. Shielding shall be provided to protect cables from damage.
C2145.1 DEFINITION
Hazardous areas are those in which the risk of fire or explosion exists from the presence
of flammable liquids, vapour, gas or dust.
These areas shall be defined by Regulations or by the Local Authority, the Engineer or
the Principal, as the case may be, and confirmed by the Dangerous Goods Inspector.
C2145.2 EQUIPMENT
All equipment supplied for use in hazardous areas shall be approved by the relevant
Authority before installation.
C2160.1 GENERAL
Earthing shall be installed in compliance with the PLN, PUIL Electrical Regulations,
Electrical Supply Regulations and to the contract drawings.
The earth bars shall be of adequate size, thickness and spacing from the wall to provide a
robust, efficient and electrically sound installation. Each bar shall be oversized by 20% to
allow for future connections.
Each earth electrode shall be copper rod of 16mm dia. X 3.6m long and shall have
provisions for clamping the earth lead. It shall be buried inside the ground housed inside
concrete pits 300 x 300 x 250mm deep with removable concrete covers. Provide test links
at each electrode to facilitate isolation for testing of the earth electrode.
Provide earth bars and connect to earth electrodes and mats. Interconnect earth bars as
shown in the drawings.
The following shall be the minimum earth continuity conductor for each current carrying
conductors:
All non-current carrying metalwork must be adequately earthed with PVC sheathed
copper wire.
All earth continuity wires connected to the earth bar or neutral link must be threaded
through the block and NOT over the block to the earth bar or neutral link.
C2160.5 LIGHTING POIN, POWER OUTLET, LIGHTING SWITCH AND POWER OUTLET
SWITCH EARTHING
At every luminaire, power outlet, lighting switch and power outlet switch an earthing
terminal shall be provided and connected to the earth-continuity conductor of the sub-
circuit circuit.
Bond all metallic services such as pipes to the nearest earth bar.
Provide a technical earth bar in local telecommunication authorities room and a security
control room.
C2161.1 GENERAL
Supply and install the complete lightning protection system as shown in the Drawings.
The lightning protection system comprises all air terminations, copper down conductors,
joints and bonds, testing joints, earth terminations and electrodes.
The lightning protection system shall be installed in compliance with the manufacturers
instructions.
Care shall be taken to keep bonding points accessible but unobtrusive, to minimise
tripping and obstruction nuisance.
Bond to all metallic roof top equipment including, but not limited to, handrails, Building
Maintenance Units (BMU's), mechanical plant and portions of structure to nearest earth
bar and connect the earth bar to the earthing system. Provide earth bars as required to
suit equipment layout.
Where no handrail exists on roof or verandah parapets then 20mm x 3mm copper strips
shall be installed and bonded to structural steel.
All external building metalwork, cladding and roof such as curtain wall shall be bonded to
structural steel. The bonding conductor shall be copper minimum 35mm2 in size and 3mm
thick.
All roof and down conductors shall be fixed with copper saddles and phosphor bronze
screws at intervals not exceeding 1 metre. No jointing of down and roof conductors shall
be allowed. They shall be of full lengths except with specific prior review by the Engineer.
Where joints are unavoidable, they shall be mechanically and electrically effective, eg.
clamped, bolted or thermit welded. With overlapping joints, the length of the overlap shall
not be less than 20 mm. All contact surfaces shall be adequately tinned and tape-to-tape
bonding clamp and phosphor bronze screws shall be employed.
Make the necessary adjustments on Site and plan work to suit the building envelope and
the building external finishes to ensure that the down conductors are run in an
unobtrusive and unobstructive manner to the earth pit location.
Lightning protection conductors shall not be run in cable duct or lift shaft.
Each down conductor shall be provided with a bi-metallic type testing joint in such a
position that, whilst not inviting unauthorised interference, it is convenient for use when
testing. Test clamps shall be of screw-down pattern with bronze fixing screws. The
number of joints on the lightning protection system shall be kept to a minimum. Joints and
bonds shall be mechanically and electrically effective. With overlapping joints, the length
of the overlap shall not be less than 20 mm.
All test joints shall be protected from mechanical damage and hazard to persons by a
heavy duty non-metallic casing.
Each earth termination shall be protected by a concrete inspection chamber with heavy
duty cover as shown in the Drawings.
All electrodes, copper strip and connector clamp contact surfaces shall be heavily tinned
prior to connection and completion of the earth resistance tests.
.1 General
The work covered by this section includes the supply of all labour, materials and plant for
the detail design, design of materials and equipment, design of control systems, supply,
fabrication, manufacture, setting out, installation, testing and commissioning of the
Electrical Control Systems as described in the Contract Documents.
In this section of the works, the Drawings and Specifications identify the system concept
and standards of performance and quality required, but do not purport to identify all
problem areas and their solution, which shall be the responsibility of the Sub-Contractor.
The work shall be complete with and full allowance made for all items necessary for the
proper functioning of the whole system, even though not specifically detailed or
mentioned.
Provide the design AND installation of the Power Control and Monitoring System (PCMS)
and electrical component systems to meet the performance requirements specified
herein. The final design and configuration of the system shall be undertaken by the
equipment supplier.
The Tenderer shall provide details of all proposed equipment with the Tender offer.
The PCMS system shall provide automatic control, metering, diagnostic analysis,
monitoring, alarms, and event logging of the site electrical services.
The PCMS system shall be Direct Digital Control (DDC) technology via Distributed
Process Unit (DPUs) connected to a Local Area Network (LAN) communication trunk,
with on-site operator workstations. The PCMS shall control and monitor the following
systems and equipment:
(f) Monitor the generator switchgear. Communicate with Generator Control System
(GCS) for auto mains failure scheme.
(g) Control and monitor each LV main switch board incoming circuit breakers.
(i) Communicate with the MCS for load shedding of mechanical services.
(j) Control load shedding contactors where indicated on the drawings in main
switchboards, distribution boards and MCC’S.
(m) Load restoration on genset supply on mains failure and on return of mains supply
(a) A PC based operator workstation in the electrical generator control room. The
workstation shall comprise processing unit, keyboard, printer, colour monitor and
mouse.
(c) Uninterruptible power supply system to maintain operation for a period of 2 hours of
PUs, controllers and operator workstations (these may be in the form of DC battery
backup if appropriate for the equipment) on failure of mains supply. The UPS shall
be supplied from the generator supply (essential supply).
(f) oftware and application programmes, and configuration thereof, as necessary for
integrated operation of the PCMS as specified.
The PCMS controls critical functions integral to the operation of the electrical system
within the development. The design of the PCMS shall maximise the systems tolerance to
faults or failure due to fire or other emergencies.
Any controls equipment located anywhere in the building complex requiring specialised
environmental conditions or mains conditioning against any local supply voltage
fluctuations, including spikes, surges and sags, shall be provided with the equipment as
required. The conditions of the local power supply shall be ascertained by the Sub-
Contractor and any equipment required shall be provided. This shall also apply to any
locally generated (internal to the building) conditions which may adversely affect such
equipment due to the proximity of potential sources of such disturbance, such as large
switching motors, etc. Automatic controls suppliers shall be deemed to be experienced in
this area and to have full allowance for all necessary testing, selection and installation of
power conditioning equipment.
.5 Redundancy
The control system shall, where practicable, be designed such that the failure of any one
control component, or any one power supply to a group of control components, shall not
prevent the continued operation of any control group other than that in which the failure
occurs.
Where equipment is controlled and monitored by the DDC control system, status input
shall be provided from the controlled equipment contactor auxiliary contacts. The central
monitoring system shall log an alarm when the status input differs from the control output.
.7 Future Expansion
The PCMS system shall be installed with 25% spare capacity. The spare capacity shall
be spare I/O rack space and remote I/O allocation.
Space shall be provided in PCMS cubicles to incorporate 40% more controllers than that
required to control the specified systems.
.1 General
The PCMS shall utilise the latest distributed process control technology combined with a
local area network (LAN) to provide high processing integrity and fast system response
time.
.2 System Configuration
.3 Response Times
.4 Fault Tolerance
Failure of the workstations shall not impair in any way performance or operation of the
DPU's and shall signal to the DPUs such failure to allow storage of last two alarms and
change of status (COS) conditions per monitoring point for uploading to the workstations
when returned to service.
Failure of a DPU shall not impair performance of the workstation in any way, beyond loss
of supervision of that DPUs system. DPU control elements are to hold to 'last set level' or
'off' given DPU failure.
Communications between the operators workstation and DPUs shall be by a multi drop
Local Area Network (LAN) complying to an IEEE recognised standard format suitable for
the run lengths and environment. Communications shall be via twisted pair cabling using
an IEEE recognised format such as RS 485.
Loss of a DPU shall not affect the ability of the remaining network DPUs to communicate
with each other or with the workstation.
The LAN shall support multiple workstations functioning in a true network environment.
The LAN shall be capable of a LAN length of up to 1,000 metres without
repeater/equaliser.
Loss of communication with any device in the network shall be alarmed at each
operational level.
Loss of communication to any PCMS equipment shall cause the equipment to revert to
local control.
A break in the communication path of the LAN shall be announced as an alarm. If, as a
result of communication severance, any portion of the LAN that cannot communicate with
a workstation, all DPUs in the severed portion will be declared "LOST". Upon restoration
of the communication pathway, each returned DPU will be declared "RESTORED".
Data communication on the LAN shall include error detection techniques to ensure data
integrity. Error detection shall be of Cyclical Redundancy Check (CRC), Longitudinal
Redundancy Check (LRC) or equivalent, which has undetected error provability in the
range of 10EXP(-9). Errors detected shall be negatively acknowledged and data shall be
retransmitted. Automatic error correction is not acceptable.
.1 General
The operator workstation shall be provided for the purpose of loading, modifying and
dumping programs, setting parameters, overviewing and supervision of the PCMS.
It shall be used for displaying, programming, and modifying all software assignments and
parameters in proper engineering units and in direct decimal value. All program entries, or
modifications shall be displayed prior to execution for operator verification. The operator,
through the keyboard, shall be able to add, delete, and modify the system data file after
the proper access level code is entered (minimum of five levels) through the operator's
terminal.
The workstations shall ergonomically provide efficient operation of all console equipment
by a single operator.
A UPS shall be provided for the workstation, controllers (PLC etc) and associated
equipment to provide 2 hours of operation should a mains failure occur.
.1 General
If the number of points in a particular DPU location exceeds the points available in the
DPU, then additional DPUs shall be provided in that location. It is unacceptable to make
use of the spare capacity in DPUs at other locations.
The processing unit shall operate within the following environmental limits:
The system shall utilise PROM and/or RAM memory. All DDC algorithms and parameters
shall be EEPROM based for ready access for modifications and adjustment.
The software shall provide control application packages, interface the required sensor
and actuator types, and contain built-in diagnostic routines.
The processing unit shall have memory error checking. Upon detection of a memory error
the DPU sha ll automatically request for a re-transmission. If the memory error remains
then the processing unit shall halt to prevent erroneous operation. All "halts" shall report
as an alarm at the control operator's terminal and printer.
Software shall allow for scaling and for calibration of variations in transducer lead length
to ensure display accuracies.
Each DPU shall have independent facility providing full DPU operation for ½ hours on
mains supply failure and memory backup for a minimum period of 3 years.
After a power failure and upon a power restoration, the system shall provide automatic
sequential restart of equipment based on current program time and program
requirements without operator intervention.
DPUs shall contain power supply filtering to prevent memory corruption due to power
supply spikes or transients.
.3 DPU Upload/Download
Each DPU shall be able to download from or upload to the PC operator workstation either
locally or at the HOST LAN. All point data shall be modifiable by any authorised operator
at any workstation and downloaded to the DPU over the LAN. It shall not be necessary to
enter parameters locally at the DPU for control programmes to take effect.
Each DPU shall have the ability to place I/O points in a test mode. The test mode shall
allow control algorithms to be tested and developed on-line without disrupting field
hardware or controlled environment. The treatment of I/O points in test mode shall be:
(o) Scanning and calculation of all input points shall be inhibited. Manual control to
input points can be issued from any workstation.
(p) It shall be possible to control all output points but only the data base state/value
shall be changed, the external field hardware is left unchanged.
(q) Control actions on output points shall be enabled but only the data base state/value
shall be changed.
.1 General
All field devices shall be robust in construction, suitable for use in environmental
conditions of 0-50 degrees Celsius and 10% - 90% relative humidity (noncondensing).
Analogue devices shall provide long-term accuracy without need for regular calibration.
.2 KWh Meters
KWh meters shall be class 1 and comply with the requirements of IEC 1036.
KWh meters shall contain a 6 digit numerical digital display to indicate KWh consumed,
resolution shall be to 1 KWh.
KWh metres shall provide a pulse output to the PCMS system. Resolution shall be a
minimum of 10 pulses per KWh. (NOTE: The kWh reading shall be direct and shall
account for the CT ratio).
.3 PF transducers
.4 Voltage transducers
Voltage transducers shall measure true RMS voltage be selected to provide a final
accuracy of 1.5% in the voltage level displayed by the PCMS. In three phase feeds each
phase voltage shall be measured.
.5 Current transducers
Current transducers shall be selected to provide a accuracy of 1.5% in the final current
level displayed by the PCMS. In three phase feeds each phase shall be measured.
.6 Current Transformers
Current transformers shall comply with BS 3938 and shall be terminated on standard test
blocks and shall be supplied with shorting links.
In lieu of discrete voltage, current, powerfactor, and KWH transducers the Sub-Contractor
may elect to install a microprocessor based electrical monitoring unit.
Microprocessor based monitoring units shall meet as a minimum the requirements
specified for each range should individual transducers be provided.
Where the PCMS is required to provide low level outputs to other equipment or systems
this shall be in the form of voltage free contacts rated at 250 Volts, 5 Amps, resistive and
250V, 1A inductive.
.1 Control Panels
Control panels shall be lockable steel IP31 enclosures. All PCMS equipment shall be
installed in a separate enclosure to other electrical services. Where equipment is related
to a switchboard PCMS equipment shall be located in a separate cubicle that is integral to
the switchboard.
A neat cable installation shall be achieved wherever cables are visible outside the control
panels.
.3 Identification
Wire identification numbers shall form a logical and readily understood sequence which
shall relate to the relevant device identification number.
.4 Instrument Cables
Sensor, instrument control loop and indication cables shall be screened industrial grade
instrument cable.
Instrument cables shall be run separated from power cables by a minimum spacing of
1000 mm. Where possible instrument cables shall follow a separate route from, and shall
not be run parallel to large power cables or motor cables.
Cable screens shall be earthed at one end of the cable only. Where screened cable
circuits include an intermediate junction point the screens of the respective cables shall
be bonded between the two sides of the junction.
Where instrument cables enter panels and equipment, sealing glands shall be provided
which effectively seal and clamp the cable sheath.
Conductor terminations shall be made using correctly sized crimp lugs or pins.
Cores which form pairs in a cable shall be connected so that their correct pair relationship
is maintained.
.5 Communication Cables
Cable characteristics shall be suitable for the transmission rate and format to be used.
The Sub-Contractor shall obtain approval for the proposed cable type before proceeding
with procurement.
Communication cable shall be run separated from power cables by a minimum spacing of
500 mm. Where possible communication cables shall follow a separate route from, and
shall not be run parallel to large power cables or motor cables.
Where communication cables enter panels sealing glands shall be provided which
effectively seal and clamp the cable sheath.
.1 General
When an analog point goes outside the high warning or low warning limit for more than 5
seconds, a user defined warning message shall be output to alarm printers and a PC file
at the operator workstation.
When an analog point goes outside the high alarm or low alarm limit, a user defined
alarm message shall be output to alarm printers and to a PC file at the operator
workstation. Alarm messages shall require operator acknowledgment.
When a binary point goes into alarm, a user defined alarm message shall be output to
alarm printers and to a PC file at the operator workstation. Alarm messages shall require
operator acknowledgment.
When a point returns to normal, the event shall be recorded in a PC file at the operator
workstation.
The Operator Workstation shall be capable of displaying a list of all points in alarm for the
building.
To eliminate nuisance alarms, an operator shall have the capability of locking out alarm
reporting on a point.
.2 Monitoring Points
Controlled points in the PCMS system shall be able to be turned on or off by manual
control by the operator at the workstation, by automatic control when a predetermined set
of conditions occur and by preprogrammed timetables.
All points that are controlled by the PCMS system shall be able to be manually controlled
local to the device being controlled. Refer section C2123.6 for detail.
A graphic user interface shall be provided for accessing, displaying, modifying PCMS
Data, and controlling PCMS functions and equipment.
The interface shall utilise a keyboard and/or mouse to select user options via pull down
menus etc.
Dialogue boxes and multiple window displays shall be used to enhance the decision
making and information display.
All information and alarms shall be able to be displayed in either Bhasa Indonesia or
English.
The interface shall be colour and shall use animation to provide visual feedback of point
status and user decisions.
Access control to view and modify data shall be on at least 3 defined levels of authority.
(a) All controlled and monitored points shall be displayed graphically on display
screens (such as system schematics, and floor plans).
Point status and values shall be able to be modified by the user via the graphics
display.
(b) Graphical displays shall be presented on a hierarchial basis such that overview
screens are presented first that then allow progressive access to more specific
screens.
(c) Users shall be able to backtrack their progress through the screens.
(d) In addition the user shall be able to go directly to a screen by the use of pull down
menus.
(e) An on line context sensitive operator sensitive assistance facility shall be provided
via the pull down menus to clarify use of commands, messages and alarms.
(g) The interface shall display alarm conditions in real time irrespective of the current
location the user is with in the system.
All alarms, events and transactions shall be recorded to a industry standard file on the
hard drive of the workstation for further analysis.
The PCMS system shall generate an alarm when a point's status is outside a
preprogrammed value.
The value or status of points recorded shall be able to be recorded by the system when
the value of the point is outside a programmed range or on a periodic basis with the
period programmable between 30 seconds and 1 hour.
Provide an on-line report generator program to generate and format reports for loading on
hard disc memory at predetermined periods (e.g. 1 minute to 24 hour assignable for
display on the colour monitor and/ or for printing as directed by the operator. The operator
shall be able to select all points or only those points desired by geographical location,
system, point type, point within a location, or a single point. The report generator shall
produce, as a minimum, the following reports:-
The report format shall be user customised and shall have capability of graphics to be
incorporated in the report.
The PCMS system shall contain software to recover the logged history of a singular point
and 1. display the trend and 2. provide the raw data in a format that can be imported into
EXCEL.
All alarms events and transactions shall be stored in a format that is suitable for transfer
into the spreadsheet and word processing packages, EXCEL and WORD.
.3 Energy Consumption
The PCMS system shall calculate energy consumption for preprogrammed energy
centres. The PCMS system shall add the energy consumptions for all kWh metres and
accumulate energy consumption over a programmed period within a energy centre to
provide total energy used by an energy centre. The system shall have facility to produce
the information as an Excel sheet and in a customised billing format.
A separate manual shall be provided that details the operating procedures and
maintenance of the PCMS. The O & M Manual shall not require knowledge of digital
processor programming techniques, computer "jargon" or control system theory. Step-by-
step instructions for the execution of system functions and operating modes shall be
provided.
A separate programmers manual shall be provided. This document shall describe in detail
system software command techniques and higher level programming operations for use
by high access level personnel. These would normally be functions not available to the
normal operator. The guide shall discuss the owner programming capability, description
and interpretation of file structures, library capabilities and use, and a general
recommended approach to the programming activity.
The programmer's manual shall be included in the Operating and Maintenance Manual.
Provide one (1) complete set of software source code and source code documentation of
the command and application software described in these specifications.
The following requirements for instruction are in addition to the instruction for other
systems installed under this section of the Contract.
The instruction shall be oriented toward the system installed rather than being a general
training course. Each instructor shall be thoroughly familiar with all aspects of the subject
matter they are to teach. All equipment and material required for training shall be
provided by the Sub-Contractor.
The training schedule shall take place prior to the acceptance test period at a time
mutually agreeable between the Sub-Contractor and the Principal. Operating personnel
will be trained in the functional requirements of the system installed and the procedures
that the operators will employ for the system operation.
In addition to the requirements of Section C2100, testing and commissioning shall consist
of the following:
• Verification of the operation of all interfaces with systems installed as part of this
specification and other sections of the Contract works.
• Any tests as directed by the Project Manager to demonstrate compliance with the
Contract requirements.
The following Schedule details PCMS points that will be monitored or controlled. Note
that the Input/Output is with respect to the PCMS controller not the field device. The
points schedule does not detail every piece of equipment, but highlights generic points
only. Refer also to the Specification, and Drawings, which shall be read in conjunction
with this schedule
1. Generators
3. Transformers
6. 20 kV Isolator
Isolator open/closed I
Incoming cable earthed I
Outgoing cable earthed I
7. Main Switchboards
8. Distribution Board
9. MCS
In addition to monitoring load centres and specific pieces of equipment, the PCMS will
also control limited load shedding and generator operation under certain conditions.
.1 Normal Operation
Generally the building will operate on on PLN supply. The PCMS will monitor the status of
various devices and record various parameters.
.2 Generator failure
In the event that one of the generators fails, the PCMS will compare the available
generator capacity to the connected load and send appropriate load shedding signals to
mechanical plant via the MCS. In the event the other sets trip due to overload, the
operator will manually restart and synchronise the gensets.
During normal operation the PCMS will give a maintained signal to GCS and MCS. In the
event of failure of PLN supply the PCMS will remove these signals. The GCS will either
start generators which are not running or start all generators. The PCMS will shed non-
essential load. The incoming circuit breakers within the LVMSB on PLN supply will drop
out automatically. The load shed contactors within a distribution board on PLN supply will
drop out automatically. The PCMS will open motorised MCCBs and load shed contactors
in the system operating on genset supply.
PCMS will signal the MCS that mains has failed. PCMS will wait till load shedding is
complete (including that by MCS).
As soon as the first or next genset (if some gensets are already running) is available, the
PCMS will connect the part of the network on PLN supply to genset supply by
closing/opening appropriate 20kV breakers. Then the PCMS will restore the supply to
LVMSBs in a sequential manner as the gensets come on line (i.e. synchronise). The
contactor shall prepare a detailed load shedding and essential load sequence and submit
for review to Engineer.
After the genset supply is restored to the LVMSBs the PCMS will signal the MCS that
genset supply is available. At each step the PCMS will monitor the load vs available
genset capacity and proceed to the next step only if sufficient capacity is available.
On return of PLN supply the generators will automatically synchronise with the PLN
supply. After a time delay PCMS will restore the network to pre-PLN supply failure status
by opening and closing appropriate 20kV breakers. PCMS will finally restore the non-
essential load and signal MCS that PLN supply has returned.
• Safety gloves for working on LV/MV equipment (one set per room)
• One padlock with two keys per breaker in LV Switch Board and one per distribution
board, plus one for each room (including riser room) containing LV equipment.
• Resuscitation and first aid charts in each room containing LV/MV equipment.
• Safety tags to indicate an equipment has been isolated (submit sample and unit
price).
.1 Switchgear General
• Location Indoor
• Busbar Single
• Busbar Material Copper
• Phases 3
• Rated voltage 20 Kv
• Maximum voltage 24 kV
• Rated frequency 50 Hz
• Busbar rated continuous current 630 A
• Busbar short circuit current withstand - 1 sec 20 kA (RMS)
• Busbar peak fault current withstand 50 kA (Peak)
• Impulse voltage withstand 125 kV (Peak)
• Power frequency voltage withstand 50 kV (RMS)
• Protection provided by enclosure IP3X
• Unit construction Drawout type
• Control cable entry Top
• HV Cable entry Top
• Auxiliary Supply
- Control, indication shunt trip, closing coils and protection 24 V DC + 20%
- Space heaters & spring-charge motors/HV contactor pick 220/230/240 V AC
Up coils + 10%
.2 Circuit Breaker
• No of poles 3
• Method of interruption SF6
• Rated voltage 20 kV
• Maximum voltage 24 kV
• Circuit breaker maximum symmetrical interrupting 20 kA (RMS)
capability at rated voltage
• Making current – circuit breaker 50 kA (Peak)
• Short circuit withstand capacity (1 sec)– circuit breakers 20 kA
.3 Current Transformers
The current transformers supplied in the switchgear shall have the following ratings:
.4 Potential Transformers
The potential transformers supplied in the switchgear shall have the following ratings:
• Maximum voltage 24 kV
• Insulation class
A
.5 Surge Arresters
C2401.2 CONSTRUCTION
.1 General
Each cubicle shall be constructed of rigid steel frame strong enough to carry the static
and dynamic loading during operation and transport. Provide a 100 mm high base
channel for the assembly.
Provide a pressure relief device in each panel to safely vent excessive pressures
occurring during operation.
Provide engraved traffolyte labels for each panel of the switchboard eg “Main Incomer”,
and for each of the components. Provide sheet steel labels describing technical
particulars for each panel. IEC device function/number labels shall be used to identify
equipment and components where an IEC number is available.
Provide spaceheater per section of the HV switchgear suitable for 1 ph, 220 V, 50 Hz AC
supply in the HV cable compartment.
.2 Busbar Compartment
The main bus compartment shall have fire-rated barriers arranged to isolate the bus
compartment of each vertical panel. Busbars shall be air insulated with following
minimum clearances:
The joints shall be silver plated and shall be shrouded by heat-shrinkable material, PVC
boot or FRP material. Buses passing from one unit to the next shall be sealed around the
barrier to prevent corona discharge.
The bus bar shall be made of high conductivity, electrolytic-grade copper, either tubular or
bar with rounded edges.
The insulated bus shall be mounted on insulated non-tracking supports with co-ordinated
dielectric properties, strong enough to withstand magnetic stresses developed by currents
equal to the power circuit breaker momentary and interrupting rating.
The busbars shall withstand without deformation the dynamic forces and heating effects
due to the short circuit currents specified in the technical particulars.
.3 Equipment Compartment
a) Circuit breaker
b) Bus potential transformer and associated load-break switch and set of fuses on
primary side
The switch for potential transformers shall be an SF6 load-break type. The HV fuses shall
be powder-filled type and of high rupturing capacity. When it blows, the fuse shall trip the
associated switch.
Potential transformers shall be of the moulded, draw-out type. Secondary side shall have
HRC fuses. For line potential transformers provide HRC fuses on primary side.
Transformer accuracy classifications and ratings shall be as shown in drawings. No
access shall be available to fuses on the primary side of potential transformers unless the
primary side is disconnected and earthed.
Generally, the potential transformer shall be 3 phase type except when directional
earthfault protection is required. In that case, it shall be either 3 single phase units or one
3 phase, five limb unit. The rating of the potential transformer shall ensure 70% present
load and allow for 30% future loading to avoid ferro resonance.
The mechanism for levering the breaker is to be cell mounted. It must include all of the
necessary interlocks to prevent breaker levering unless the breaker has been tripped.
Provide either rails or a lifting device to allow withdrawal of each breaker mechanism for
inspection and maintenance.
The mechanism shall be readily accessible by removing the front panel when the breaker
is withdrawn.
The operating mechanism shall be arranged so that the closing speed of the contacts is
independent of both control voltage and the operator.
The operating mechanism for the circuit breaker shall be motor-operated, spring-charge
type with separate closing and opening springs. The opening spring shall be separate
and charged by the closing operation. After the closing operation, the fully charged
closing spring shall be able to perform an open-close-open cycle without any intermediate
charging.
The operating mechanism of the contactor shall be electromagnetic with pick-up, latching
and shunt trip coils (suitable for operation on AC/DC supply).
The operating mechanism of the switch shall be motor-operated type for close and open,
plus manual by means of a handle.
The operating mechanism shall be trip free type. Provide antipumping relay and circuit for
the circuit breaker and contactor.
The breaker shall be successfully able to perform OPEN-0.3 sec - CLOSE/OPEN -3 min -
CLOSE/OPEN operation sequence.
The switch/circuit breaker/contactor shall have facility for padlocking in the service and
isolated condition.
The spring charging motor and breaker/contactor close/trip mechanism/coils etc shall
operate within the respective supply voltage variations specified in the technical
particulars.
The withdrawable circuit breaker/contactor assembly shall have three distinct positions:
a) service
b) test
c) isolated
.4 Cable Compartment
Provide 3mm thick galvanised steel or 5mm thick aluminium gland plate for three core
and single core cables respectively.
The HV cable shall terminate on copper flats supported on cast resin or porcelain
insulators and be sized to:
(b) Terminate the cables indicated in the attached drawing. The cable terminations
shall be suitable to install Raychem brand boots.
The HV cables shall not terminate directly on the instrument transformer terminals.
The HV cable termination arrangement shall facilitate easy disconnection and hi-pot
testing of cables.
Current transformers shall be of the ring type or moulded type. The current transformers
on the circuit breaker shall have thermal and mechanical ratings commensurate with
circuit breaker ratings. The accuracy classification/rating shall be in accordance with
applicable standards, system fault levels and relay application. Transformer secondaries
shall generally be 5 A rated. For differential protection the secondary shall be 1 A rated.
.5 Instrument Compartment
All control wiring, except current transformer wiring, shall be by 1.5 mm2 600 V, single
conductor, stranded (7 strands minimum), Copper.
All current transformer wiring shall not be less than 2.5 mm2. Provide matching terminals
and shorting links.
Control wiring shall terminate on terminal blocks. No joints will be accepted. Wires shall
be terminated with compression ring-type connectors. Soldered connections are not
permitted. All wiring shall be adequately braced and supported and shall present a neat
appearance. No more than two conductors shall be connected to any one terminal.
Wire numbers shall be identified by markers. Wiring and terminals shall be identified
independently. Wire markers shall be applied to both ends of all wiring.
Where breaks between shipping sections occur, suitable arrangements shall be made for
continuation of the interconnecting wires.
All unused terminals of the equipment shall be wired to terminal blocks for future use and
labelled individually at both ends as "Spare".
All terminal blocks shall be located at the instrument compartment, and shall be arranged
to permit convenient terminations for the incoming control cables, and to enable the
identification labels to be read without difficulty.
Provide following spare auxiliary contacts (apart from those used for control, protection,
indication and interlocks):
Contacts of all auxiliary devices shall be electrically separate, reversible type and shall be
wired to terminal blocks. Contact rating shall not be less than:
1A DC Inductive at 125 V
1A AC Inductive at 230 V
5.0 A DC Inductive at 30 V/24 V
The remote indication points shall be wired up to the terminal blocks in each vertical
panel.
The meters shall be minimum 96 mm2 size. Unless specified the meters shall have a
quadrant scale.
Relays and meters shall be provided with proprietary test terminal blocks for connection
to the current and voltage transformers respectively.
Each shipping panel shall be equipped with all necessary interconnecting cables to
adjacent panels, furnished with sufficient length, and coiled for connection in the field.
All auxiliary supplies shall be appropriately fused using HRC fuses and have
disconnecting switches for isolation.
The protection relays shall be of the microprocessor based type, with cases suitable for
semiflush mounting with removable front covers. Each relay element shall be constructed
for complete withdrawal of the element without removing or disconnecting any wiring. All
disconnecting devices shall be accessible from the front.
The control and instrument switches shall be of the rotary type complete with suitable
operating handles and escutcheon plates with engraved marking, to identify the switch
positions.
Provide separate MCB to each panel to isolate the control, space heater and spring
charge motor supply.
.1 Control
Each circuit breaker shall have facility to electrically close and open locally (by means of
Trip- Neutral-Close switch) and from a remote location.
Wire “Normally Open” auxiliary contact of the breaker in series with the trip coil, and
“Normally Close” auxiliary contact in series with the close coil of the breaker.
All the controls and protection shall be hard wired. The controls shall not be wired through
a PLC or similar control system device.
Wire normally-close contact (i.e. the contact will remain closed if the protection device
has not operated to protect the equipment) of each protection device in series with the
associated circuit breaker closing coil. That means the breaker can be closed only if the
associated protective devices have not operated.
All the interlocks shall be wired through the “service” and “test” position auxiliary switches
so as to operate in both positions of the breaker/contactor.
The SF6 circuit breaker shall trip if the pressure falls below the safe level specified by the
manufacturer.
Provide intertrip facility to trip the breakers at both ends of equipment with unit protection,
e.g. pilot wire differential protection, transformer differential protection when the protection
operates.
.2 Protection
Operation of each protective device shall trip the associated breaker. The trip signal from
the protective device shall be directly wired to the breaker trip coil without going through
selection switches and interposing relays. Project Manager’s approval shall be obtained
for using interposing relays. The operating accuracy of the relays shall be within ±3%.
(b) The over current and earthfault relays shall have all of the following facilities:
The relays shall be switchable from one set of settings to another, e.g. from one set
of settings while running on mains to another set of settings while running on
standby gensets (two different supply sources). The switching shall be sensed by
external input such as a potentialfree relay contact.
The relays shall have the facility to momentarily increase the setting to override
inrush current while switching transformers/motors etc.
Operating time (definite time): 0.1 to 10 sec (in steps of 0.1 seconds)
The under and over voltage relays shall be three phase type, definite time, and
IDMT characteristic, with a facility to select either one. The setting ranges shall be
as follows:
The directional over current unit shall have the following setting range:
The synchro check relay shall have the following setting ranges:
- Voltage for dead condition sensing 0.1 to 0.8 Un (in steps of 0.05)
The transformer differential relay shall have the following setting facilities:
The pilot wire differential relay shall have the following facilities:
.3 Indications
Provide the metering as shown in the drawings. The meters shall have 0.5% accuracy.
.4 Interlocks
The access to the fuses of a switchfuse unit shall be possible only when the
corresponding earth switch is in the closed position.
The earthing switch shall be interlocked with the associated circuit breaker. The circuit
breaker shall not close unless the earthswitch is in the open position and vice versa.
Provide Castell Key Locks on the breakers and earth switches, to interlock with remote
breakers and earth switches.
The following operations shall be possible only when the stated interlock conditions are
satisfied –
(a) Transferring the withdrawable part from the test or isolated position to the service
position:
(b) Transferring the withdrawable part from the service position to the test or isolated
position:
- withdrawable part in the service and test position (operation shall be possible in
both these positions)
The equipment shall remain inside, with the door closed, in disconnected position
(isolated). Any attempt at racking out a closed circuit breaker shall trip the circuit breaker.
C2401.4 EARTHING
Provide an earthing switch for each circuit breaker, switch and contactor for earthing the
HV cable. The switch shall have padlocking facility in open and closed position. The
earthing switch shall have a making capacity equal to the switchboard fault level.
C2401.5 TESTING
.1 Type of Test
Furnish along with the tender, test certificates for the test carried out on identical
equipment. The tests shall include but not be limited to following:
HV Switchboard
(i) Breaking capacity tests for recovery voltage, the symmetrical and
asymmetrical breaking currents, amplitude factor, and either the natural
frequency or the rate of rise of the restriking voltage.
(ii) Making capacity tests for the applied voltage and making current
(iii) Test study
(iv) Short time current tests
.2 Factory Tests
The Manufacturer shall completely assemble, wire and adjust the equipment at the
factory and shall carry out all inspections, production and routine tests stipulated in
applicable standards to ensure that the materials and workmanship conform to the
specification and drawings. Certified test reports mush be submitted to the Engineer for
approval prior to shipment to site. The manufacturer must obtain the Engineer’s approval
before dispatch to site.
If any of the equipment to be supplied shall fail the test or are otherwise rejected by the
Engineer, all costs associated with the making good of the equipment, including its taking
down, re-erection and other associated charges, shall be borne by the Manufacturer.
.3 HV Switchboard
b) Power frequency dielectric withstand test on control wiring at 2000V for one minute.
c) Check insulation resistance of the busbars (R-E, Y-E, B-E, R-Y, Y-B and R-B) with
the outgoing switches in the closed position using 5000V Insulation Resistance
Tester. Apply 5kV for 1 minute for each test. The minimum acceptable value is 200M
ohms. Disconnect surge arrestors, if any, before the test. Disconnect potential
transformers. Test potential transformers separately.
d) Check insulation resistance before and after the power frequency voltage test. The
insulation resistance after the power frequency withstand test shall be at least the
same as that before the test.
h) Breakers: Mechanical and electrical closing and opening operation in test and service
position complete with interlocks specified. Mechanical closing and open operation in
isolated position. Check interlocks in service, test and isolated positions. Operation of
earth switch. Operation of auxiliary contacts.
i) The interlocks shown in block logic diagrams shall be tested in positive and negative
logic to ensure that the system is fail-safe.
j) Phase arrangement check between bus bar and cable terminals in each panel.
s) Set all protective relays in accordance with the protection report. The secondary
current and voltage injection shall be done at the test terminal block. Where the relay
has a time setting characteristic, test the curve by injection to give a minimum of three
separate points on each curve. Check the operation of each relay trips the associated
circuit breaker(s).
v) Synchro check relays shall be tested by two voltage sources. The phase angle,
magnitude and frequency of voltage of each source shall be adjustable. The relays
shall be tested for the conditions specified in the logic diagrams. For each condition
the phase angle, magnitude and frequency of the voltages shall be varied to check
whether the relay operates within set synchronising window.
w) For differential relays carry out the stability test by simultaneously injecting current at
the two ends where the current transformers are located. Also carry out the
differential test. Perform separate tests by single phase (to simulate earth fault) and
three phase injection for differential and stability tests.
.4 Site Tests
b) Power frequency dielectric withstand test on control wiring at 2000V for one minute.
c) Check insulation resistance of the busbars (R-E, Y-E, B-E, R-Y, Y-B and R-B) with
the outgoing switches in the closed position using 5000V Insulation Resistance
Tester. Apply 5kV for 1 minute for each test. The minimum acceptable value is 200M
ohms. Disconnect surge arrestors, if any, before the test. Disconnect potential
transformers. Test potential transformers separately.
d) Check insulation resistance before and after the power frequency voltage test. The
insulation resistance after the power frequency withstand test shall be at least the
same as that before the test.
h) Breakers: Mechanical and electrical closing and opening operation in test and service
position complete with interlocks specified. Mechanical closing and open operation in
isolated position. Check interlocks in service, test and isolated positions. Operation of
earth switch. Operation of auxiliary contacts.
i) The interlocks shown in block logic diagrams shall be tested in positive and negative
logic to ensure that the system is fail-safe.
j) Phase arrangement check between bus bar and cable terminals in each panel.
k) Continuity of secondary and control circuit wiring.
l) Primary injection test on current transformers to verify ratio.
m) Verification of terminal markings and polarity of current transformers.
s) Set all protective relays in accordance with the protection report. The secondary
current and voltage injection shall be done at the test terminal block. Where the relay
has a time setting characteristic, test the curve by injection to give a minimum
of three separate points on each curve. Check the operation of each relay trips
the associated circuit breaker(s).
v) Synchro check relays shall be tested by two voltage sources. The phase angle,
magnitude and frequency of voltage of each source shall be adjustable. The relays
shall be tested for the conditions specified in the logic diagrams. For each condition
the phase angle, magnitude and frequency of the voltages shall be varied to check
whether the relay operates within set synchronising window.
w) For differential relays carry out the stability test by simultaneously injecting current at
the two ends where the current transformers are located. Also carry out the
differential test. Perform separate tests by single phase (to simulate earth fault) and
three phase injection for differential and stability tests.
C2405 - HV ISOLATOR
• Type SF6
• Location Indoor
• Degree of protection provided by enclosure IP3X
• Rated voltage 20kV
• Maximum voltage 24kV
• Rated continuous current 200A and 400A
• Rated short circuit withstand current 20kA – 1 sec
• Rated making current 50kA (peak)
• Rated fault closing current of the earth switch 20kA (RMS)
• Rated frequency 50Hz
• Impulse voltage withstand 125kV (peak)
• Power frequency voltage withstand 50kV (RMS)
• Integral stand 900mm high
C2405.2 CONSTRUCTION
The isolators shall be metal clad with an integral base stand. The cable entry shall be
from the bottom. Provide separate earthing switches on the incoming and outgoing cable
side of the isolator. The earth shall be interlocked with the isolator such that:
(i) The isolator can be closed only if the earthing switch is open.
(i) The earth switch can be closed only if the isolator is open.
Access to parts which are intended to be in service shall be possible only when the earth
switches are closed. Provide local mechanical ON/OFF indication. Provide air-insulated
cable boxes for the incoming and outgoing cables.
The isolator shall successfully interrupt the full load and no-load current of the associated
transformer and cable.
Provide a 40 x 4 mm copper earth bar and provide two earthing terminals on the
enclosure to terminate 120 mm2 copper earthing conductor. Every part of the equipment
which is intended to be earthed shall be electrically bonded to the earthing bar, and
reliance shall not be placed on fortuitous contacts. The earthed terminals shall be marked
with the “earthed" symbol.
Provide capacitive-type, voltage presence-indicating lamp for each phase to indicate the
presence of voltage in the cable.
A stainless steel rating plate listing all the technical particulars shall be fixed to the
enclosure. The lettering shall be engraved and filled with a contrasting enamel.
Provide 2 N.O. + 2 N.C. auxiliary contacts for the main switch, and 1 N.O. + 1 N.C.
auxiliary contact for the earth switch.
Provide a space heater in each panel suitable for operation on 1 phase, 230 V, 50 Hz, AC
supply.
All surfaces shall be self draining, and all air filled enclosures such as terminal boxes
shall have an insect-proof drain hole with a diameter of 3 to 5 mm.
Materials and combinations of materials used in the construction of the equipment shall
be selected and arranged to prevent bimetallic corrosion.
Surfaces to be galvanised or painted shall be sound, clean and free from harmful scale,
rust, grease, moisture or any other foreign matter which will in any way detract from the
life and usefulness of the coating.
C2405.3 TESTING
.1 Type of Test
Furnish along with the tender, test certificates for the test carried out on identical
equipment. The tests shall include but not be limited to following:
HV Isolator
(j) Making capacity tests for the applied voltage and making current
.2 Factory Tests
The Manufacturer shall completely assemble, wire and adjust the equipment at the
factory and shall carry out all inspections, production and routine tests stipulated in
applicable standards to ensure that the materials and workmanship conform to the
specification and drawings. Certified test reports mush be submitted to the Engineer for
approval prior to shipment to site.
The manufacturer must obtain the Engineer’s approval before dispatch to site.
If any of the equipment to be supplied shall fail the test or are otherwise rejected by the
Engineer all costs associated with the making good of the equipment, including its taking
down, re-erection and other associated charges, shall be borne by the Manufacturer.
HV Isolator
(a) Power frequency withstand test on the complete assembly at the voltage specified
in technical particulars.
.3 Site Tests
(a) Check insulation resistance with the isolator closed. Use 5000V megger. The
minimum acceptable value is 200MΩ.
Check insulation resistance before and after the power frequency voltage test. The
insulation resistance after the test shall be at least the same as that before the test.
(b) Carry out power frequency voltage test (R/Y-B/Earth and Y/B-R/Earth) at 40 kV for
1 min with isolator closed.
.1 General
• Cooling AN (AF)
• Phase 3
• Frequency 50 Hz
• Impulse voltage withstand (primary) 125 kV (peak)
• Power frequency withstand voltage (primary) 50 kV (RMS)
• Secondary winding earthing Solidly earthed
• Winding insulation class F
.2 Details
Refer Table 1.
.3 Accessories
.4 Mounting
Channel
C2406.2 CONSTRUCTION
The windings shall be copper or aluminium. The low voltage winding shall consist of foil-
type conductor, while the high voltage winding shall be of circular or rectangular
conductors. The minimum insulation class for both the windings shall be F.
The insulation shall not emit toxic gases and smoke to the extent of causing discomfort or
danger to the operating personnel in fire conditions. Discomfort shall include poor
visibility. Insulation materials shall not propagate flames and shall be self extinguishing.
Unless specified otherwise, the protection provided by the enclosure shall be IP00.
Provide lifting lugs for the enclosure. It shall be possible to lift the enclosure without
moving the transformer.
Provide removable bolted access panel for access to tappings on the high voltage side.
Provide warning label on the access panel. Earth the access panel by copper braid.
Provide earthing terminal for enclosure suitable for 120mm2 copper conductor.
Provide 5mm thick aluminium gland plates on the top of the enclosure for primary and
secondary side cable entry.
The transformers shall be capable of continuous performance at rated capacity under the
Service Conditions specified.
The forced cooling fan shall be able to be manually started remotely or via the local
winding temperature relay. Provide warning label on the fan cover saying “WARNING –
THIS FAN MAY START AUTOMATICALLY”
The operating schedule is 24 hours per day, 365 days per year.
The winding temperature relay shall have the following three potential-free contacts:
C2406.3 TESTING
.1 Type Test
Furnish along with the tender, type-test certificates for the tests carried out on identical
equipment. The type tests shall include but not be limited to the following:
.2 Factory Tests
The Manufacturer shall completely assemble, wire and adjust the equipment at the
factory and shall carry out all inspections, production and routine tests stipulated in
applicable standards to ensure that the materials and workmanship conform to the
specification and drawings. Certified test reports mush be submitted to the Engineer for
approval prior to shipment to site. The manufacturer must obtain the Engineer’s approval
before dispatch to site.
If any of the equipment to be supplied shall fail the test or are otherwise rejected by the
Engineer, all costs associated with the making good of the equipment, including its taking
down, re-erection and other associated charges, shall be borne by the Manufacturer.
.3 Site Tests
These tests shall be carried out not more than one week before energising the
equipment. The test shall include but not be limited to the following:
(a) Clean the transformer windings from inside and outside, by air blower (for dry type
transformer).
(d) Check operation of tap changers. Measure and record voltage at each tap.
(e) Calibrate temperature sensors. Test alarm, fan start and trip temperature operation.
Rating kVA Voltage Ratio Vector Location Primary Secondary Neutral CT Neutral CT Enclosure Quantity
kV/kV Group Indoor/Outdoor Neutral Neutral Earth ratio earth Ratio Type
Earthing Secondary
2000 20 kV/400V Dyn5 INDOOR - Solidly earthed - - IP20 As shown in
drawing
1600 20 kV/400V Dyn5 INDOOR - Solidly earthed - - IP20 As shown in
drawing
These units shall be used to provide DC Supply for control and indication in the High
Voltage Switchboards.
The Tenderer shall determine the rating required based on the equipment consumption.
The system sizing shall be done by IEEE 485 sizing method. The Contractor shall submit
design calculations for review. The following factors shall be allowed for:
• Sizing 1.25
• Design Margin 1.10
• Temperature (high and low) variation from 25°C ambient.
The batteries shall be designed for a life of 20 years for Nicad and 10 years for lead acid
type. The capacity at end of life shall be adequate for proper operation of the devices.
The following simultaneous worst operating conditions shall be considered:
• Closing and Trip Coils of the circuit breakers. Three successive open and close
operations of all the breakers.
• Indications for two hours after loss of input supply to the charger.
The batteries and the battery charger unit shall be housed in a free-standing, sheet metal
cabinet for floor/platform fixing. Provision shall also be made for wall fixing through the
rear of the unit. Side ventilation louvres shielded with wire mesh inside shall be provided.
All hardware used shall be cadmium plated. The protection provided by the enclosure
shall be minimum IP23.
The battery charger and controls shall be housed in a separate section at the top of the
cabinet above the batteries.
The battery section is to have a minimum of two removable trays to support the batteries.
These trays shall allow the batteries to be positioned in a staggered formation, so that the
inspection and maintenance of the cells can be effected without their removal.
Install four sets of fuses for controlling outgoing DC circuits. Provide separate local
indication by means of illuminated windows/lamps and potential-free contacts for remote
indications for the following:
• Mains fail
• Battery undervoltage
• Over voltage
The unit shall be supplied with nickel-cadmium lead acid maintenance free cells in
polypropylene containers. The containers shall provide visual indication of the electrolyte
level. The lead acid cells shall be sealed, valve-regulated type with gelled plate
construction.
Connections between the charger and the battery and between the cells on different
shelves shall be made with coiled flexible insulated leads. The connections between cells
on the same shelf shall be made with nickel plated links.
A 24 volt two rate constant voltage charger suitable for a single phase 220 volt 50 Hz AC
input shall be supplied in the top section of the panel. The charger shall be suitable for
boost and float charging the batteries. The charging rate shall be controlled by a suitable
changeover switch. The charger shall be solid state type having automatic voltage
regulating characteristics that controls the DC output voltage between no load and full
load to within ± 1% with an alternating current input voltage variation of ± 10%.
The output ripple shall not exceed 2% mean square root. The charger shall be capable of
fully charging a completely discharged battery bank within eight hours while supplying the
normal load requirements. The charger shall have soft starting mechanism with full output
voltage available within a minute of switching the mains power on. The charger shall be
current-limited in both float and boost charging modes to protect the equipment on load
side short circuits and prevent the batteries from being overcharged. The following
minimum shall be provided:
• An ammeter for the high rate and a milli-ammeter for the low rate shall be provided in
the charging circuits. “Load Test” facilities incorporating a DC voltmeter and an
ammeter across the complete battery unit shall be provided.
All instruments, control and test switches, warning and indicator lights, and an AC fuse for
the incoming supply shall be mounted on the fascia of the charger unit.
Provision shall be made for easy access to the charger unit for maintenance and
inspection.
The metalwork shall be thoroughly cleaned, free from rust and degreased before painting.
The painting shall comprise three stages:
• Etching primer
• Undercoat
• Finishing coat of stove enamel, satin finish French Grey Shade 630 to BS 381 C.
Refer PAINTING.
C2409.3 TESTING
.1 Type test
Not Applicable
.2 Factory Tests
The Manufacturer shall completely assemble, wire and adjust the equipment at the
factory and shall carry out all inspections, production and routine tests stipulated in
applicable standards to ensure that the materials and workmanship conform to the
EL-SPEC PT Hantaran Prima Mandiri 30 Nov’ 2018
Loggia Apartment Project – Jakarta
C2409 – BATTERY AND CHARGER Page 112
specification and drawings. Certified test reports mush be submitted to the Engineer for
approval prior to shipment to site e manufacturer must obtain the Enginer’s approval
before dispatch to site.
If any of the equipment to be supplied shall fail the test or are otherwise rejected by the
Engineer, all costs associated with the making good of the equipment, including its taking
down, re-erection and other associated charges, shall be borne by the Manufacturer.
.3 Site Tests
These tests shall be carried out not more than one week before energising the
equipment. The test shall include but not be limited to the following:
(a) Adjust all battery charges for normal float and equalising charge rates in
accordance with manufacturer’s recommendations.
(b) Fully charge the cells. Apply rated load (Load in amps = battery AH capacity
divided by 10). Then measure and record the voltage of each cell. Measure the
total battery voltage. Compare the two values to check correct polarity connections.
The battery voltage shall be minimum 24 V DC.
(c) Check systems and circuits individually by manually operating the initiating device
for each alarm condition.
(d) Ensure that the charger input supply has the plant generator back up.
C2410.1 PLATFORMS
Provide steel platforms on which to install the switchboards specified in C3401 and
C3402. The platforms shall be made of painted galvanised steel supports and removable
rectangular or square chequer plates. It shall be possible to remove the chequer plates
for access beneath the platform to reach any part of the switchboard bottom for
installation, testing and maintenance purposes. The chequer plate opening shall be
minimum 600 x 600 mm. Provide flush lifting handles for each chequer plate. The height
of the platform shall be 1000 mm or 18 times the outer diameter of the largest size cable
whichever is maximum. For drawout-type switchboards provide smooth galvanised steel
plates in front of the board for full length of the board plus two panel widths on each end
to allow withdrawal of the equipment trucks. The width of the plates shall be 1000 mm.
Provide an access ladder and 1000 mm high safety railings. The sides of the platform
shall be open to allow easy access below the platform.
In the event that the room height or location cannot accommodate the required height
platform, either provide a trench of the same depth, or a combination of platform and
trench to obtain the same height/clearance. Where it is not possible to have a trench
provide a local recess/trough in the floor.
C2410.2 STANDS
Generally the equipment specified in C2405 shall be supplied with integral stand of the
height specified in the respective specification. If more than one such equipment are
installed in the one room, a combined platform as specified above may be provided
subject to the Engineer’s approval. The height of the platform shall be as specified above.
The stand shall be painted galvanised steel frame and should permit access to the
switchboard from below without removing any cover or similar.
In the event the stand height requires steps to allow a person to stand and operate the
switches, provide the same as an integral part of the stand for the full width. The height of
the steps shall be 160-180 mm, and tread width shall be 320-340 mm.
In the event the room height or location cannot accommodate the required height stand,
either provide a trench of the same depth or a combination of stand and trench to obtain
the same height/clearance. Where it is not possible to have a trench, provide a local
recess/trough in the floor.
C4500 INDEX
C4501 General
C4502 Deviations from Tender Documents
C4503 Interpretations
C4504 Regulations
C4505 Reference Documents
C4506 Quality Plan
C4507 Co-ordination and Setting out
C4508 Materials
C4509 Pre-manufacture Submissions
C4510 Installation
C4511 Date Processing
C4512 Power Quality and Electromagnetic Interference
C4513 Supports and Fixings
C4514 Access and Protection Structures
C4515 Fire Stopping
C4516 Dissimilar Materials
C4517 Painting
C4518 Identification
C4519 Off Site/Factory Testing
C4520 Testing and Commissioning
C4521 Operating and Maintenance Manuals
C4522 Construction Record Drawings
C4523 Updating Existing On-Site Operational Information
C4524 Instruction of Employer’s Staff
C4525 Completion
C4526 Defects Liability Period
C4527 Routine Maintenance
C4528 Timing of Submissions
C4501 GENERAL
This section is referred to in individual building services trade sections of the Specification, and
shall apply to those sections. The requirements of individual trade sections override conflicting
requirements in this section.
Receipt of tenders that comply with the Tender Documents is preferred. However Tenderers
may offer materials, equipment, workmanship, system designs or other matters of
performance, construction, quality or space requirements that differ from the requirements of
the Tender Documents.
Tenders shall list the specific material, equipment, workmanship or system designs that differ
from those specified. The tender shall be deemed to be complying in all matters other than
those specifically listed as deviations.
Should any proposed alternative require changes to any other parts of the Works, the Tender
shall allow for all costs of such changes whether to these works or other works affected. No
costs will be accepted for additional work which may be required arising from the acceptance
of an alternative.
The Employer reserves the right, at the Employer’s discretion, to decide if any deviation will be
accepted.
C4503 INTERPRETATIONS
Review of quality control procedures shall not imply acceptance of the appropriateness or
completeness of those procedures.
Review of Supplier’s Certificates of Compliance shall mean a general review of the certificate
and determination of the acceptability or otherwise of any stated non-compliance.
Review when used in relation to matters other than above shall mean a general review for
apparent compliance with the Contract requirements.
Inspection, when used in relation to on-site or off-site inspections, shall mean routine
observation to ascertain whether the Works are being carried out in general accordance with
the Contract Documents.
Such reviews or inspections with "no exceptions taken" shall not relieve the Contractor of any
of his obligations for producing materials, equipment and workmanship that are in compliance
with the Contract requirements.
C4504 REGULATIONS
The whole of the works shall comply with the latest relevant Regulations which are in force 14
days prior to the tender closing date and the current Regulatory Authority requirements at
Practical Completion. The cost of any materials or equipment and all reports, fees and charges
required to meet such regulations and requirements shall be included in the Tender whether
specifically shown or described or not.
Reference documents cited are deemed to form a part of this Specification. Reference to any
Standard shall include any amendments thereto, and any Standard in substitution thereof,
issued up to 3 months before the closing date for tenders. In the event of this Specification
being at variance with any provision of these documents, the requirements of this Specification
take precedence over the provisions of the document. Responsibilities of the parties to the
Contract are not altered by requirements in referenced documents.
The following documents are referenced in this and/or building services trade sections of the
Specification:
.1 General
The Contractor shall set up and maintain throughout construction, a Quality Assurance system.
The Contractor shall submit details of the system with his Tender.
• all Works are completed in accordance with the drawings and specifications and comply
with all statutory requirements
• all testing and commissioning required by this specification or the Regulatory Authorities
has been conducted and have achieved the required standards
• all inspections are conducted, checklists completed and self certified
• significant construction operations, or checkpoint milestones are identified where Works
should not proceed further until the relevant checklist is completed, self certified and an
opportunity given for the Employer to also inspect (eg: supports, insulation, making good
service penetrations and the like to be inspected and certified prior to installation of ceiling,
backfilling or other activity that prevents further visual inspection without removal of
following work
• all reports have been submitted
• all services are operational
• the works have been demonstrated to have allowed the required standards
• all warranties as required by the Contract have been submitted.
The Contractor is responsible for the supervision of the works and for all inspection and testing
required for the quality control of the Works. The Contractor’s quality system shall include the
following:
• Checklists which are to be completed and signed off by the Contractor’s Quality Engineer
prior to each significant closing-up operation being performed.
• A monthly report on the project including all relevant quality matters eg: results of quality
control inspections and tests, problems experienced, corrective actions taken.
The Contractor’s attention is drawn to the fact that the Employer’s staff will monitor the Quality
System and make random inspections from time to time. The Employer is entitled to stop the
Works proceeding at any time if the Contractor's Quality system is deficient or substandard
work is being undertaken. Work shall not recommence until the Contractor can demonstrate to
the Employer that the necessary steps are being taken to remedy the situation. If the
Contractor cannot demonstrate to the Employer’s satisfaction that the works meets the
required quality standards, the Employer reserves the right to engage other parties to carry out
inspection. testing and remedial works and charge the cost of this work to the Contractor.
Any inadequacy, damage or defect to the Works shall be made good by the Contractor at his
own expense. The Contractor shall submit details of his remedial works proposals to the
Employer for his review prior to carrying out the work. Failure to submit these details may lead
to the Employer rejecting the remedial works.
The Contractor shall conduct detailed checks on the Works and rectify all defects to his
satisfaction before arranging for the Employer to inspect the Works for the purpose of certifying
completion of the Works.
.2 Checklists
Checklists are to be provided by the Contractor. The checklists shall be completed and signed
off by the Contractor’s Quality Engineer and submitted to the Employer prior to each significant
construction operation being carried out. Refer to the TESTING AND COMMISSIONING.
Inspection and testing records and certificates shall be obtained by the Contractor’s Quality
Engineer. Records required prior to construction of an item shall be obtained and incorporated
in the checklist for that item. Records required after the construction of an item shall be
obtained within 14 days of completion of that item.
A copy of all inspection and testing records is to be included in the monthly project quality
report.
The Contractor shall install the Works according to the “Issue for Construction” drawings.
However, the Contractor shall be responsible for the detailed setting out of his section of the
Works so as to:
• co-ordinate with other Trades, particularly with respect to other building services and to the
set-out of ceilings, including area by area discussions with all appropriate trades, having all
up to date drawings with them at these discussions. If the Main Contractor’s M&E Manager
is not present at any of these area by area discussions, then brief notes of the conclusions
reached at that discussion are to be prepared by each Trade and submitted to the Main
Contractor to enable it to check that this process of setting out discussions, is working
property.
• locate the Works in the spaces allocated for the purpose with suitable access and
clearances for normal and long term operation and maintenance requirements.
Where a discrepancy exists which prevents successful setting out and co-ordination, other than
as set out under DEVIATION FROM TENDER DOCUMENTS, obtain clarification instructions.
Should the Contractor consider that it is not possible to coordinate the setting out of their work
in the space available, they shall advise the Main Contractor who shall designate which Trade
shall sketch a proposed solution and submit it to the Employer for consideration and for the
Employer to issue an instruction on how to proceed.
No account will be taken of any abortive manufacture, fabrication or installation work which has
been due to the failure of the Contractor to carry out proper setting out and co-ordination.
C4508 MATERIALS
Materials shall include all plant, machinery, equipment, and components which form a part of
the Works to be handed over to the Employer.
Where any material is mentioned by a trade name or by any other specific reference, it is for
the purposes of indicating suitable standards of quality (including but not limited to finish,
durability and serviceability), space requirements and structural loading for the purpose
intended, and for no other reason. Material characteristics other than those specifically covered
by the Drawings and Specifications, shall be at least equivalent to those of any mentioned
trade name, or if no trade name is mentioned, typical of the respective material kind.
Provide consistent type, brand, size, quality and appearance for the whole quantity of each
material or equipment item.
Deliver materials and equipment to the Site with the manufacturer’s label intact and with the
manufacturer’s written installation procedures. Upon receipt, ensure that they are correct,
complete and undamaged before proceeding with installation.
Store and protect all materials and equipment furnished in connection with the Works.
Protection shall include preventing moisture and foreign substances from entering the working
parts or damaging the structure or finish of materials and equipment. Make good or replace
any damaged materials or equipment from whatever cause, at no extra cost.
Submit Suppliers' Certificates of Compliance in the format of APPENDIX C45A for all major
equipment items as listed under the respective Trade sections of this Specification.
Certificates of Compliance shall identify the brand, series and model number, and shall list:
• all other requirements of the Contract Documents (e.g. construction details, quality details,
weights, etc.).
Certificates of Compliance shall certify "Comply", "Exceed" or "Exception" against each and
every requirement. They shall specifically certify that the equipment is suitable for the purpose
and proven in service for the specific application in which it is intended to be used.
Do not indicate Comply unless the proposed system exactly meets the specification
requirement. If Exceed or Exception is indicated, then provide a clear and concise explanation
of the variance from the specifications and the net effect this would have on the specified
system performance.
Equipment shall be deemed to comply with any Contract requirement that is not specifically
identified as a non-compliance in the Supplier’s Certificate of Compliance.
Manufacturers' trade literature may be submitted in support of, but not in lieu of, a Supplier’s
Certificates of Compliance.
EL-SPEC PT Hantaran Prima Mandiri 30 Nov’ 2018
Loggia Apartment Project – Jakarta
C4500 – BUILDING SERVICES - GENERAL Page 119
Submit layout drawings of all areas, including plans and elevations. Submit layout and/or
schematic system diagrams for those items where design forms a part of the Works. Submit
other layout or detail drawings as listed under the respective trade sections of this
Specification.
Submit details of any changes to the Works as shown in the Drawings arising from the
acceptance of a deviation from the Tender Documents as under DEVIATIONS FROM
TENDER DOCUMENTS, drawn at the same or larger scale as the Drawings.
The Contractor may prepare other layout drawings to assist him in the setting out of the Works.
The Contract Documents do not require the submission of such drawings. Should such
drawings be submitted they may be returned without comment.
For each trade, submit Contractor's Certificate(s) of Compliance certifying that the equipment
selected complies with the Contract requirements and will fit into the spaces shown on the
Drawings with access and clearances as specified under MATERIALS. Certificates shall cover
all major equipment items as listed in the respective trade sections of this Specification.
.4 Design Details
• Certification that the Contractor has completed design of seismic restraint details in
accordance with SUPPORTS AND FIXINGS.
• Trade specific design details as listed in the respective trade sections of this Specification.
.5 Samples
Submit samples of all materials and equipment which are intended for fixing in public areas or
are visible to the building occupants or otherwise indicated in the respective Trade sections.
No items of any such materials or equipment shall be installed on Site until this submission and
review has been completed.
Identify each sample with the project, trade, supplier, manufacturer, model number, and
applicable options. Identify non-compliances with Contract requirements.
.6 Procedure
Submit the information and samples to the Employer for review. Refer TIMING OF
SUBMISSIONS. In addition to whatever copies of submission information are needed on Site
for use by the Contractor, submit two copies of submission information to the Employer. One
copy will be returned within 28 Working Days of receipt. Resubmit in amended form if so
ordered.
Neither failure to make these submissions on time, nor any requirement calling for amendment
to or resubmission shall relieve the Contractor of any of his obligations under the terms of the
Contract.
Retain corrected, unsoiled, clean copies of all submissions for future inclusion in Operating and
Maintenance Manuals.
C4510 INSTALLATION
• to a high standard of construction and leave an efficient, robust, tidy and fully operational
installation.
Install materials and equipment in accordance with the manufacturer's written instructions.
Provide labour and materials required to clean, treat, shim, grout, adjust, alter, support or do
any other work on materials and equipment which the manufacturer, or his agent, may
consider necessary to achieve a satisfactory installation.
Provide proper connections and interfacing between relevant materials and equipment, such
as to avoid such interfacing causing damage to or adversely affecting the performance or
durability of the Works.
If materials are required to comply with product certification schemes, use them in accordance
with the certification requirements.
Where material samples are required, incorporate in the works only those materials which
match the approved samples.
Arrange reticulated services to run parallel with adjacent services, building elements, and grid
lines where possible and practical.
Hardware, software and firmware products and systems provided under this Contract, including
proprietary equipment incorporating date aware electronic controls or embedded microchips,
shall accurately process date data (including, but not limited to, calculating, comparing and
sequencing) from, into and between centuries, including leap year calculations, when used in
accordance with the product documentation provided by the Contractor.
The Contractor’s attention is drawn to supply voltage variations at the Site which may be
expected to occur beyond the normal limits referred to in the Electricity Regulations. These
variations may include harmonics, surges, sags and impulses (spikes) and may be generated
either outside or within the installation. The Contractor must note that the complex will, from
time to time, run on on-site electricity generators.
Provide appropriate devices such as power conditioners, voltage stabilisers, harmonic filters or
surge diverters as necessary to protect all equipment installed under the Contract which may
be sensitive to supply voltage variations. The Contractor shall be responsible for the adequate
selection and provision of all necessary protective measures.
The Contractor’s attention is also drawn to the high electromagnetic environments caused by
radio transmitters used by Police, Fire Brigade, Security and other services, which may cause
premature failure of or interference to electronic equipment. Provide all necessary earthing,
screening, protection etc, so that the system will operate satisfactorily and without degradation
in this environment.
Where cable routes are not designated on the drawings, route cables so as to minimise the
effects of electric and magnetic fields on other equipment. Run single core cables in trefoil with
the neutral conductor adjacent the phase conductors. Route cables clear of computer or VDU
suites and the like.
Design or select supports, frames, hangers, fixings and the like such that they are capable of
transmitting the loads imposed, sufficient to ensure the rigidity of the assembly, and withstand
seismic loading, without excessive stress or displacement, in accordance with SNI 03-1726-
2002 (or a recognised International Standard).
Submit major support details to the Employer for review. Any secondary steel support
structures deemed necessary by the Employer shall be provided by the Contractor at no cost.
Design and fabricate support frames from mild steel in accordance with AS 4100 (or other
recognised International Standard), or as otherwise detailed. Frames that are exposed to the
external environment, or an otherwise moist or corrosive environment, shall be hot dip
galvanised to AS 1650.
Fixings to structural steelwork shall be by clamping, not by welding or drilling, except with
specific prior review by the Employer.
Use security screws for fixings in public areas that may be liable to vandalism.
Select fixings that are compatible with and exhibit equivalent or better corrosion resistance to
the material to which they are joined or held. Fixings, including bolts, screws, threaded rods,
nuts, washers, pipe clamps, saddles and the like, and steel items cast in concrete, shall be, as
a minimum, electroplated to AS 1789 (minimum 12 microns), except that where such items are
exposed to the external environment, or an otherwise moist or corrosive environment, they
shall be stainless steel, brass or hot dip galvanised to AS 1650 as appropriate.
Provide access and protection structures as necessary to give proper access for maintenance
or protection to all parts of the Works where required, and as otherwise indicated on the
drawings. Where such access and protection structures are not detailed on the Drawings,
design them to meet the requirements of SNI 03-1726-2002 and AS 4100, and fabricate them
in accordance with AS 4100.
Maintain the continuity and effectiveness of fire separations around penetrations, and in gaps
between or within fire rated building elements, by the use of approved fire stops. Fire stops
shall have certified fire resistance ratings (FRR) no less than that required for the separation in
which they are installed. Refer to Architectural drawings for the location and rating of fire rated
building elements.
Fire stop certification shall be based on tests carried out by an independent laboratory in
accordance with internationally recognised fire resistance rating test procedures.
Select fire stop materials that are appropriate for the type and size of the gap or penetration,
and for the type of material and construction used in the fire separation. Materials and methods
of installation used on site shall be identical to those of the prototype used in their FRR tests.
• Ducts: Automatic self closing fire dampers, fixed within the fire separation.
• Plastic pipes, including plastic water pipes: Fire rated intumescent collars (closures).
• Metal pipes: Fire seal gaps between pipes and fire separation with a material capable of
maintaining the fire rating.
• Electric cables: Fire seal gaps between cables and fire separation with a material capable
of maintaining the fire rating.
Fire stops for penetrations in hollow construction shall protect the penetration over the full
depth of the fire separation.
• be restrained from moving or parting from the surfaces of both the penetration and the fire
separation during a fire
• allow for normal expansion and contraction of the services that run through the penetration.
Specific requirements for penetrations in fire rated dry wall and floor construction (in addition to
the above requirements) shall include:
• Through penetrations: Provide trimmers around penetration to support the fire rated lining
material
• Partial penetrations (e.g. for light fittings, socket outlets, switches and the like): To be in
accordance with the specific detail of the dry wall/floor system manufacturer.
Prevent galvanic corrosion from occurring due to the use and connection of dissimilar metals.
Electrically insulate dissimilar metals by means of bituminised felt, rubber gasket, Teflon tape,
insulating union or equivalent means suited for the duty.
Prevent copper pipework or equipment components from coming into direct contact with
cement bearing compounds.
C4517 PAINTING
.1 General
Provide protection against corrosion, deterioration, absorption of moisture and the like for all
materials and equipment.
Paint work as specified in the following sub-clauses for the relevant substrate. The following
definitions apply :
In the absence of a particular substrate specification, paint all work which is Exposed, Exterior
or in a Corrosive Environment. Concealed work does not require painting except for black
steel, galvanised steel touch up, and identification.
Painted materials shall in general be finished in standard colours. Qualities of finish shall be
equivalent to or better than those specified. Finishes on Exposed and Exterior work shall be
free of blemishes.
Provide painting systems for each different substrate from the one manufacturer and apply in
accordance with that manufacturer's written instructions. Keep one copy of those instructions
on Site.
Surfaces to be surrounded by concrete shall be painted 30 mm into the future concrete zone.
On request, demonstrate that the specified paint dry film thickness has been achieved, using a
Type 2 magnetic gauge in accordance with SSPC-PA2.
(a) Concealed:
Black steel pipework may be painted after installation using brush, hand mitt or
equivalent. Alternatively, it may be pre-primed or mill-primed, with threads, site welds,
fittings and damage touched up after installation with two coats zinc rich paint (90%
minimum solids) for 20 mm each side.
Hot dip galvanise to AS 1650 except for black steel pipe which shall be painted as below:
Painting not required except for galvanised steel touch up - refer GALVANISED STEEL
TOUCH UP below.
(b) Exposed:
Top Coat(s) 2 part epoxy gloss top coat compatible with primer
and suitable for touch up.
Painting not required except for galvanised steel touch up - refer GALVANISED STEEL
TOUCH UP below.
(b) Exposed:
The following shall be cleaned and touched up with two coats of zinc rich paint (90% minimum
solids) immediately after installation:
All welds and damage to exterior galvanised steel shall be deslagged and cleaned to Grade B
St 3 or C St 3, heated to 160°C and the zinc protection restored with "Galv-over" rods or
equivalent.
Where the working temperature exceeds the paint manufacturer's recommended maximum
temperature for the systems specified, paint as follows:
.8 Pipe Insulation
Concealed insulation and insulation in plantrooms does not require painting. Paint Exposed
and Exterior insulation in accordance with the insulation manufacturer's written
recommendations.
.9 Concrete Bases
Powder coating shall be to BS 6496 (on aluminium) or BS 6497 (on galvanised steel) as
appropriate. Powder coating shall not be used for Exterior or Corrosive Environments.
C4518 IDENTIFICATION
.1 General
Ensure colours, letters, arrows and labels are plainly visible at the angle from which the Works
are most likely to be viewed. Use English and Bahasa Indonesia.
Provide machine engraved traffolyte or black anodised aluminium nameplates to identify each
major equipment item. Similar labels shall identify and indicate the function of ancillary
equipment such as gauges, valves (isolating - including whether normally open or closed,
balancing, regulating, check and control), strainers, water flow measuring devices, flow
switches, balancing and motorised dampers, fire dampers, switches, indicating lights,
pushbuttons, relays, contactors, fuses, circuit breakers, and other devices which provide a
manual or automatic control function, or an indicating function, or otherwise requires periodic
inspection.
Uniquely identify such items using a numbering system conforming with that shown on the
Drawings for major equipment items. Uniquely list such items in the Operating and
Maintenance Manual.
Attach labels by instant adhesive or rivets. Do not mount labels on removable covers. Attach
labels to valves with chromium plated brass chain.
Provide approved, printed (not embossed), self adhesive circuit designation labels on data,
telephone and power outlets. Similarly identify light switches, but also including switching zone
or function as appropriate. Label size shall be 10 mm x 5 mm minimum.
Equipment labels for Main Switchboard (MSBs) and 400A or larger Distribution Boards (DBs)
and Motor Control Centres (MCCs) shall include equipment designation, manufacturer’s name,
type designation or other traceable identification number (to enable the Employer to obtain
relevant information from the manufacturer), busbar rating, fault level, and duration of fault.
Locate labels in a prominent position adjacent to the main switch.
Equipment labels for MSBs and 400A or larger DBs and MCCs circuit breaker and fuse switch
labels shall include:
For rear access MSBs, DBs and MCCs, provide additional component labels affixed inside the
panel to enable component identification from the rear.
Label each way of MSBs, DBs and MCCs with phase and circuit number.
Provide typed schedules, listing circuit number, fuse/mcb rating, and service, for each MSB,
DB and MCC. Insert into a plastic sleeve fixed on the inside of the cabinet door.
Provide an as-installed single line drawing of the electrical distribution system, laminated and
fixed in each switch room or control room.
Identify pipework, ductwork, busduct, trunking, cable tray, conduits, etc with letter and colour
coding as below. Apply identification lettering and banding:
• for buried and concealed runs (including in floors and walls) - the points where the service
disappears/reappears.
• for concealed runs in ceiling spaces – every 5 m but at least once at point of entry to/exit
from ceiling space.
• for exposed runs - every 15 m but at least once within each space.
The identification lettering shall be 25 mm high, or half the height of the service that it identifies,
whichever is smaller.
.5 Cable Reticulations
Data Green
Electrical Orange
Security Brown
BMS Light Blue
Mechanical Dark Blue
Fire Red
Public Address Yellow
Appropriately coloured cable ties may be used where multiple cable services are installed on a
common cable tray, in lieu of coloured bands and letters.
Indicate the direction of flow in pipes and ducts by an arrow of length 3 x diameter of pipe and
its insulation.
Where services are required to be painted, extend the identification band colour throughout the
length of the service, except where otherwise directed for services that are exposed to view.
Power cabling conductors shall be colour coded or otherwise identified. Ensure phase, neutral
and earth colours are consistent throughout the Site.
Label each HV cabling conductor at each end of the cable, with stainless steel punched tags
fixed with two wires or cable ties, or permanent punched PVC tags. Fix the labels where the
cable exits from the switchgear. Identify the cable number, destination and the conductor
designation.
EL-SPEC PT Hantaran Prima Mandiri 30 Nov’ 2018
Loggia Apartment Project – Jakarta
C4500 – BUILDING SERVICES - GENERAL Page 128
Label each LV main and submain cable (or conductor if they are not colour coded) and earth at
the MSB end of the cable, with stainless steel punched tags fixed with two wires or cable ties,
or permanent punched PVC tags. Fix the labels where the cable exits from the MSB, in a
position where the label can be clearly seen from outside the MSB cubicle. Identify the cable
number, destination and the conductor designation. Similarly label other large cables (e.g.
generators, chillers, etc).
Label each control wiring conductor at each termination with ferrules or other approved
methodgiving the circuit number. Self-adhesive labels will not be accepted for this work. For
multicore control cables with permanent numbering on each core, additional identification is not
required that double ferrules are used at cable junctions where a change of numbers cannot be
avoided, and provided the conductor numbering matches that recorded on the Construction
Record Drawings.
Ensure each terminal of all terminal blocks, relays, etc, is identified in a traceable manner that
matches that recorded on the Construction Record Drawings.
Testing requirements and procedures are defined in the respective trade sections of the
Specification, under the respective equipment clauses.
Give 10 working days minimum notice so that the designated tests may be witnessed.
Use instruments that have been calibrated by an accredited testing laboratory within the last 12
months.
Submit copies of test reports recording the observations, results, and conclusions regarding
compliance or otherwise with the Contract requirements. Include type test certificates.
.1 General
Carry out testing and commissioning to clearly demonstrate and record that the Works
efficiently meet the specified performances and have been successfully commissioned as a
complete, integrated and efficiently operating installation.
Supply all necessary testing equipment, measuring instruments and the appropriately skilled
labour required for conducting the tests. Arrange for the specialist subcontractors / trades and
their subcontractors / suppliers to be in attendance.
Should any test reveal a fault, correct and re-test the fault.
For major one-off tests and a sample of repetitive tests, give the Employer five Working Days
prior notice to enable him to attend.
Record testing and commissioning results on test sheets, sign and date the sheets, and submit
for review. Testing and commissioning results shall demonstrate performance within the
acceptance criteria specified. The Employer reserves the right at his discretion to accept
results which may be outside the specified acceptance criteria but which are not, in his opinion,
detrimental to the overall performance of the Works.
At completion of the Contractor’s testing and commissioning, including recording of results, the
Employer reserves the right to instruct the Contractor to carry out random sample confirmatory
tests in the presence of the Employer.
Where required by the respective trade sections of this Specification, provide a Testing and
Commissioning Manual containing:
• descriptions of testing and commissioning procedures to be used for each equipment item
or system as appropriate
• check list of all equipment and systems requiring testing and commissioning
• pro-forma Test Sheets for each equipment item or system as appropriate
• day to day commissioning programme
• space for inclusion of completed testing and commissioning results.
.1 General
Provide an Operating and Maintenance Manual for each Trade section. Use authors and
compilers that are experienced in the maintenance and operation of equipment and systems
installed, and in editorial ability. Include all necessary information to enable the Employer to
efficiently operate and cost effectively maintain the systems.
Provide also an electronic text file of Contractor generated material, using Microsoft Word 2010
or later software. For material from other sources (e.g. manufacturers data) provide PDF files
of each document hyperlinked to the contents and headings contained within the main
document
.2 Format
Binding: A4 size, D type, 3 ring binders with black plastic or vinyl faced hard covers.
Dividers: Use durable index tab dividers between each element, with the section
number typed on the tab and section name typed on the divider.
Contents Lists: Provide at front of each volume, listing contents of all volumes. Provide at
front of each section, listing contents of each section.
.3 Content
Record names, addresses, phone and facsimile numbers of the relevant consultants,
contractors, subcontractors, suppliers, specialist trades, and Employer.
Record the date on which the defects liability period will expire for each Separable Portion.
Include an explanation of the purpose of the manual and a brief description of each section
included in the manual. Describe that in general, Section 3 (Operating Instructions) details
instruction for the building owner and Section 4 (Routine Maintenance) is intended for
engineering personnel.
Where parts of the installation are supplied under other contracts or by the owner, related
information shall be included in the manual or expressly excluded.
Provide a technical description of each individual system, including function, normal operating
characteristics, limiting conditions, and interfaces with other installations. Describe type and
location of major equipment.
Where parts of the installation are supplied under other contracts or by the owner, or were
existing, describe how the Works relate to those parts.
Describe the procedures necessary to operate the plant under normal operating conditions,
plus other operations which may be carried out by unqualified personnel under abnormal or
emergency conditions, e.g. power failure.
Where appropriate, describe how best to operate the system under different conditions in order
to obtain the most energy and cost efficient operation, e.g. seasonal changeovers.
Provide notes, cautions and warnings, especially against hazardous procedures or those likely
to cause malfunctions, e.g. a caution that operating personnel should not carry out any
adjustments to control set points etc, unless they are aware of the consequences to the total
system on adjusting controls.
Describe relevant day-to-day routine operations, e.g. checking fuel levels, general inspection of
plant rooms for undue noises, leaks etc. This work, although classed as maintenance, should
be included in daily operation instructions.
Describe alarm and warning indicators and functions, and remedial action required should they
be activated, including, where appropriate, methods of overriding automatic control.
Operating instruction shall be concise and clear such that unqualified personnel can operate
the system.
Provide an Asset Register listing all materials, equipment and systems requiring maintenance,
their reference number, manufacturer, model number, location and maintenance programme.
Provide maintenance schedules listing routine maintenance inspections and activities, and the
intervals at which they should be performed. Identify the persons responsible and identify any
liaison with other maintenance personnel and contractors necessary to enable inspection and
maintenance of inter-related installations. Maintenance procedures for proprietary equipment
items shall be in accordance with the manufacturer’s written recommendations, and shall
include recommendations for periodic vibration measurement and analysis where appropriate.
Provide a schedule of consumables (e.g. belts, lubricant, etc.) and their source of supply.
Records shall provide all information necessary for reordering consumables without the need
to inspect installed equipment.
Provide a schedule of spare parts recommended to be held on Site, being those items subject
to wear or deterioration and which may involve the manufacturer in extended deliveries when
replacements are required. Include complete nomenclature and model numbers, and local
sources of supply.
Provide a schedule of equipment items installed, identifying make, model, location, duties,
details (e.g. serial number, speed, motor size, belt size, etc.). Provide names, addresses,
phone and facsimile numbers of suppliers and manufacturers. For systems aggregating many
minor components (e.g. controls) a schematic drawing showing all model numbers etc., may be
included in lieu of their inclusion in the schedule.
Include manufacturer’s technical literature for equipment installed, assembled specifically for
the project. Mark each sheet as necessary to clearly identify information relevant to the specific
equipment used in the installation. Do not include sales literature and the like that has no
useful content.
Include a set of Construction Record Drawings, legibly reproduced on A3 (reduced from A1).
Fold to A4 size such that drawings can be unfolded without removal from the ring binder. For
A2 drawings (reduced from A0) provide a separate A2 folder.
.1 General
Provide Construction Record (As-Built) Drawings recording the Works as installed by the
Contractor. Show the as installed locations and details of building elements, plant, equipment,
cables, piping, ductwork and the like. Include schematic drawings of each system.
Update existing Construction Record Drawings recording the Works as installed by the
Contractor. Do not create new drawings if it is practicable to record the work by updating
existing drawings.
Obtain electronic copies of the relevant "Issue for Construction" drawings from the Employer.
Construction Record Drawings shall be in CAD electronic format, properly draughted to scale
and clear to read. Obtain copies of Architectural Reference Files (RF's, Xrefs for AutoCAD)
relevant for the Works from the Employer. Check for consistency between the external
reference file content and the actual construction. Undertake any relevant minor external
reference file updates to suit.
Retain one “Mark Up” set of the pre-manufacture drawings at the Site. Neatly mark up all
changes to the installed work from the drawings, including all amendments under site
instructions or contract instructions, as they occur. These prints shall be available for
inspection on request.
Any drawing showing in part or in its entirety a floor or ceiling plan, shall have the appropriate
external reference files (Xrefs and Images) referenced into it (e.g. “Xref …. attached”). External
reference files shall be attached to Modelspace with the insertion point being 0,0. Do not alter
any external reference file names. Do not include a path name to any attached file in the
drawing.
All CAD files (excluding Xrefs) are to have a single title block. The variable part of the title
block is to be an "Attributed Block", named “[Insert Client name]TITLE”. The Attribute Block
shall contain the following attributes, plus any other appropriate and necessary attributes:
The title block and Contractor logo shall be placed in Paperspace and only one “Paperspace
Layout” should be used. Insert the block on the same layer across the company’s series of
CAD files. The layers used in the attribute block are to be consistent. All other work shall be
undertaken in the Model Space environment.
Only fonts supplied with standard AutoCAD are to be used in the composition of drawings. All
objects in the drawing shall be drawn “Colour by Layer”. All objects should be separated into
consistent, logical and logically named layers.
.3 Submission
Prepare first draft Construction Record Drawings based on the “Mark Up’ set, and submit prior
to Practical Completion.
Provide final Construction Record Drawings, checked and certified correct by the Contractor, in
the form of A3 or A2 copies in the Operating and Maintenance Manual and one set of A1 or A0
prints in "Cyclopak" tubes, titled as the Operating and Maintenance Manual. Provide four
copies of all electronic files on CD-ROM. Include all external reference files (Xrefs and Images)
on the CD.
Provide any relevant instruction to the Employer’s staff to familiarise them with the Works and
enable them to operate and maintain the systems.
Run a course of instruction for the Employer's representative and staff in operating and
maintaining each of the systems. Such instruction shall be at a time and for a period as
necessary to demonstrate the operation of all systems and make the Employer's staff
competent in operating and maintaining those systems. At the same time hand over to the
Employer one copy of the draft Operating and Maintenance Manual and the draft Construction
Record Drawings, and explain the contents thereof.
Provide instructors that are thoroughly familiar with the subject matter they are to teach.
Provide all equipment and material required for classroom training.
Provide a condensed version of Phase 1 training and address any operational, system
capability, usage or other matters of concern noted by the Employer.
C4524 COMPLETION
In addition to the general requirements for Practical Completion as defined in the Conditions of
Contract, the following specific requirements shall apply for the building services sections of
the Works.
.1 Demonstrate Compliance:
Demonstrate that the Works have been successfully tested and found to be in accordance with
the Contract Documents. Demonstration shall be by submission of testing and commissioning
results.
Where it is only feasible to complete preliminary testing and commissioning prior to Practical
Completion of a Separable Portion, complete final testing and commissioning prior to Practical
Completion of the last Separable Portion unless otherwise specified.
In the event that the draft Operating and Maintenance Manuals and Construction Record
Drawings have not been delivered or the Employer's staff have not been instructed prior to
Practical Completion, the Contractor shall carry out all routine day-to-day oiling, greasing and
general upkeep of the items to which the manuals or instruction relate, notwithstanding that a
certificate of Practical Completion may have been issued in respect of such items.
Completion will not be certified until receipt by the Employer of all relevant Authority Approvals
and Certificates of Compliance.
(a) Authority Approvals: Required for each relevant trade, in a form acceptable to the
relevant Approving Authority.
(c) Fire Protection and Alarm System Certificates of Compliance: Refer Fire Protection and
Fire Alarm Services Specifications.
The Defect Liability Period for each Separable Portion shall commence on the date of Practical
Completion of that Separable Portion, and conclude at the end of the Defects Liability Period of
the last Separable Portion.
Where any part of the Works requires defect rectification, the Contractor's obligations for that
part of the Works, and for any other part of the Works whose proper operation had been
affected by the defect, shall continue until the expiration of 12 months (unless extended under
the Trade sections) from the date of the defect rectification or until the end of the Defects
Liability Period, whichever is the longer. Notwithstanding the above, where such defect
rectification requires replacement or renewal of any part of the Works, the Defects Liability
Period for such replaced or renewed part shall continue until the expiration of 12 months from
the date of such replacement or renewal.
The last Separable Portion shall include the routine operation and maintenance of the Works of
previous Separable Portions, from the date of Practical Completion of each respective
Separable Portion until the date of Practical Completion of the last Separable Portion.
The routine maintenance shall be carried out in accordance with the relevant requirements of
SEPARATE ROUTINE MAINTENANCE CONTRACT PROPOSALS below.
Where required by the respective Trade sections (refer TENDERER’S SUBMISSIONS therein),
Tenderers shall submit their fixed price proposal for a Routine Maintenance Contract for the
systems supplied and/or installed under this Contract. If accepted by the Employer, this
Routine Maintenance Contract will be a separate Contract between the Employer and the
respective contractors.
The separate Routine Maintenance Contract shall commence on the date of Practical
Completion of each Separable Portion and expire at the end of the Defects Liability Period for
the last Separable Portion, unless otherwise specified below.
For the purposes of pricing, use the Defects Liability Period specified in the Conditions of
Contract. If the Defects Liability Period proves to be longer than this (due to defect repair
resulting in extension of the period, or failure to fulfil other Defect Liability Period obligations by
the due date), the extension of the Routine Maintenance Contract period shall be paid for on a
fair and reasonable pro-rata basis.
Routine Maintenance shall be defined as the day-to-day routine oiling, greasing and general
upkeep not covered by the Contractor's Defect Liability Period obligations in terms of the
Conditions of Contract.
Routine maintenance shall be in accordance with Section 4 of the Operating and Maintenance
Manual and shall include replacement of parts not covered under the Defects Liability Period
obligations.
The routine maintenance contract shall include the preparation of Maintenance Report Sheets
for each individual or group of materials, equipment items and systems on the Asset Register.
The Report Sheets shall list maintenance procedures, their frequency, persons responsible,
and a column or group of columns to enable servicemen to tick off each procedure for each
individual material, equipment item or system. They shall also include space for recording
which of the weekly, monthly, quarterly, six monthly, annual, etc inspections being undertaken
by the servicemen, and space for servicemen's comments.
The Asset Register and filled in Maintenance Report sheets are to be submitted to the
Employer following each inspection together with the invoice for payment.
.1 Quality Plan
At least 25 Working Days prior to placing the materials order with the supplier or manufacturer
of the first item of its type.
(a) Authority Approvals: Immediately on completion of the Works to the extent necessary to
enable certification.
(b) Electrical Certificates of Compliance: Prior to Practical (or Sectional) Completion.
(c) Fire Protection and Alarm System Certificates of Compliance: immediately on completion
of the Works to the extent necessary to enable certification.
(d) Warrantees: With the Draft O&M Manual
Equipment : Revision :
Supplier : Date :
Note 1:
Provide supplementary pages to describe non-compliances and comment on equivalence.____ pages attached.
Note 2:
The attached schedules list the manufacturer, series, model number, and specified and offered performance
parameters for each individual equipment item as required by the relevant Equipment Schedule. Non-
compliances are highlighted. ____ pages attached.
Type test certificates for switchboards and motor control centres that are required to be type tested, are
attached. _____ pages attached.
We certify that the offered equipment complies with the Contract requirements other than as specifically
identified above and in the attached pages.
Signed:
APPENDIX
3 PANEL COMPONENT
- ACB, MCCB, MCB 1. Schneider France
2. ABB Europe
3. Siemens Germany
4. Legrand
4 MEASURING EQUIPMENT
- Transformer for Measuring 1. AEG Germany
2. CIC
3. Celsa, Lifasa Europe
5 ACCESSORIES PANEL
- Busbar, Terminals, Insulator 1. Socomec France
1 of 3
LOGGIA\MATERIAL LIST -MEP
No. MATERIAL / COMPONENT BRAND NAME MANUFACTURER
6 CABLES
- Low Voltage 1. Kabelindo Local
* Control Cable 2. Kabel Metal Local
* Medium Voltage 3. Supreme Local
4. Jembo Local
5. Voxel Local
7 INSTALLATION EQUIPMENTS
- PVC Conduit 1. Clipsal Australia/Lokal
2. Boss Local
3. MK Europe
2 of 3
LOGGIA\MATERIAL LIST -MEP
No. MATERIAL / COMPONENT BRAND NAME MANUFACTURER
3 of 3
LOGGIA\MATERIAL LIST -MEP