LatitudeInstallation Hochiki
LatitudeInstallation Hochiki
CONTENTS
Contents 3
Glossary 13
Compliance Information 15
NFPA 15
Introduction 16
Technical Support 16
Warranty Service 17
Advanced Replacements 17
Installation 18
Placement 28
Network Connections 31
Wiring Diagram 36
Notification Appliances 39
Door Holder 41
Resettable 42
Relay Contacts 43
Network 44
RS-485 I/O 44
Prog Input 45
Hochiki Protocol 47
Hochiki Protocol 48
Panel Start-up 51
Loading Configuration 52
Panel Tests 53
Display Test 54
System Information 54
Event Log 54
Loop Explorer 2 56
Troubleshooting 57
Overview 58
Notification Appliances 63
Synchronization 63
Printer (S768) 66
Restrictions 68
Restrictions 69
Batteries 73
Fascia 74
Panel LEDs 76
Terminals 81
Board Slot C 84
Board Slot D 84
Board Slot E 85
Board Slot F 85
0V Terminals 88
Board Slot G, H, J, K 93
Slot G 93
Slot H 94
Slot J 95
Slot K 96
Other Terminals 96
Installation 101
Batteries 102
Features 107
Fire 111
CO 112
Trouble 112
Supervisory 112
Disablement 113
Batteries 115
Fuses 116
Electrical 122
Fuses 123
Battery 125
Cabling 126
129
Mechanical 135
Accessories 149
Index 190
GLOSSARY
SYMBOLS
AHJ
Authority Having Jurisdiction. The government body, organization, office, or individual hav-
ing the power to enforce and/or interpret laws, codes, and rules.
Ancillary Device
A device connected to a fire alarm system not required by the fire alarm standard, but may
be required by other standards, e.g. door holders, smoke control fans, remote LED indic-
ators, remote alarm, or trouble units.
AWG
American Wire Gauge. The standard American designation of wire sizes. Wire size is an
inverse relation to gauge numbers that range from 0000 to 40 AWG. Also called Brown and
Sharpe or B&S gauge.
Class A
A wiring classification of circuits capable of transmitting an alarm signal during a single
open or non-simultaneous ground fault on a conductor.
Class B
A wiring classification of circuits NOT capable of ransmitting an alarm signal beyond a
single open or during a short between conductors.
Class X
A wiring classification capable of transmitting an alarm signal during a single open, short, or
non-simultaneous ground fault on a conductor.
DIP Switch
A group of two-position electrical contacts mounted in a Dual Inline Package (DIP), typically
used to set address or function information.
NAC
Notification Appliance Circuit. A supervised output circuit that connects horns, strobes,
speakers, etc. to the control panel.
SLC
Signaling Line Circuit. A Signaling Line Circuit (SLC) carries data to and from the field
devices for the fire alarm system, and also carries power from the control panel to the
devices.
Supervision
Monitoring the integrity of a circuit or device to detect a fault condition that would prevent nor-
mal operation.
COMPLIANCE INFORMATION
n Types of signaling services are automatic fire alarm and manual fire alarm
n Class A, B, and/or X Signaling Line Circuits
n Class A and/or B for Notification Appliance Circuits
n Protected Premises Unit (PPU) for Local Service, Remote Station Service, Center Station Service, Proprietary
Service, Auxiliary Service.
NFPA
Install this product in accordance with NFPA 72, NFPA 70, and NEC 70 and all local codes.
Install SLC detectors with spacing as specified in section NFPA 72. Units employing "multiple detector
operation" shall include guidelines for installing of a minimum of two detectors in each protected space and to
reduce the detector installation spacing to 0.7 times the linear spacing in accordance with National Fire Alarm
Code, NFPA 72.
All field wiring should be installed using fire rated cables according to the NFPA 72. Riser conductors shall be
installed in accordance with the survivability from attack by fire requirements in National Fire Alarm Code, NFPA
72, Section 12.3. Riser conductors shall employ either a 2 hour rated cable system, or meet requirements
approved by the AHJ.
INTRODUCTION
Technical Support
Contact Technical Support to obtain an RMA for any product to be returned. Returns will not be accepted
without an accompanying RMA number. An RMA number is assigned when:
All returned products are tested to confirm operating failures experienced in the field. If the product is found to be
functional, contractors must absorb expenses for return shipping, as well as the cost and shipping of the
advanced replacement product.
Prominently display the RMA number on all packages sent for return.
Warranty Service
Technical Support can replace or repair a defective product when the original purchase is within the warranty
period defined in the sales contract. Check your contract for more information, or contact your sales
representative about your specific warranty period.
Advanced Replacements
Products that fail to operate in the field can be replaced quickly using the advanced replacement process. The
advanced replacement process is available to all contractors who maintain an acceptable line of credit.
Initiate the advanced replacement process by requesting an RMA number from a Tech Support representative.
Advanced replacements can be shipped to your location when the product is covered under warranty and when
a replacement product is in stock.
l Advanced replacements can be expedited at the request of the contractor. Shipping costs associated with this
process are the responsibility of the contractor.
l Products returned using the advanced replacement process must be received within 30 days of the RMA issue date.
INSTALLATION
This section provides instructions for connecting cables, mounting, and testing the FireNET L@titude Fire Alarm
Control Panel for installation. The following is a general checklist for the installation of the panel. Detailed
instructions are provided for each step.
WARNING! Disconnect AC and battery power before making any field connections.
Double-check all termination points before applying power to the panel! Incorrectly
terminated wiring may cause permanent damage to the panel.
IMPORTANT! The FireNET L@titude Fire Alarm Control Panel installation must be performed by qualified service
personnel. Maintain extreme care when anchoring the cabinet to the premises wall. Electronic components within the
panel are vulnerable to physical damage from severe shock and vibration. Remove the cabinet door and fascia for the
installation of the panel. Detailed instructions are provided for each step.
Task
Obtain required mounting hardware, tools, and batteries.
q
Disconnect ribbon and ground cables.
q
Open and remove the fascia from the cabinet.
q
Open and remove the door from the cabinet.
q
Remove the backplate and any installed batteries from the cabinet.
q
Anchor the empty cabinet to the premises wall.
q
Thread the cabling into the cabinet.
q
Reattach the backplate to the cabinet.
q
Secure the cabling to the terminals.
q
Place standby batteries in the base of the cabinet and connect them to the power supply.
q
Reconnect the ribbon and ground cables.
q
Reattach the fascia and door.
q
Apply power to the panel from the AC source.
q
Program the panel.
q
Test the installation.
q
Item Description
Power Supply Depending on the model, the FireNET L@titude Fire Alarm Control Panel will have either a
5.25 Amp or 10.25 Amp power supply.
Main Back Board The Main Back Board contains slots for six circuit boards, and accepts the System A Panel
Module, System B Panel Module, Dual Loop Panel Module(s), and various optional panel
modules.
LCD Main Processor Board The LCD Main Processor Board provides operation of the panel GUI.
System A Panel Module System A Panel Module is required for operation of the fire alarm control panel. All models of
the FireNET L@titude Fire Alarm Control Panel contain one System A Panel Module.
System B Panel Module System B Panel Module is required for operation of the fire alarm control panel. All models of
the FireNET L@titude Fire Alarm Control Panel contain one System B Panel Module.
Item Description
Dual Loop Panel Module The Dual Loop Panel Module provides two addressable loop functions for the fire alarm control
panel. All models of the FireNET L@titude Fire Alarm Control Panel contain at least one Dual
Loop Panel Module.
Ground Cable(s) Ground cabling is green and yellow, insulated wire containing connecting lugs. Ground cabling
provides common electrical grounds of the cabinet to the lid, fascia, and backplate.
14 Conductor PSU Cable The 14 Conductor PSU Signal Cable connects from the power supply to the Main Back
Board.
34 Conductor Cable The 34 Conductor Cable connects the Main Back Board to the LCD Main Processor Board.
40 Conductor Cable The 40 Conductor Cable connects the Main Back Board to the LCD Main Processor Board.
10 Conductor Zone LED The 10 Conductor Zone LED Cable connects from the Zone LED Module to the LCD Main
Cable Processor Board.
(optional)
10 Conductor Zone LED to The 10 Conductor Zone LED to LED Cable connects from one Zone LED Module to the next
LED Cable (optional) Zone LED Module. This cable is required when two or more Zone LED Modules are installed
on the fascia.
10 Conductor Printer Cable The 10 Conductor Printer Cable connects the printer assembly to the LCD Main Processor
(optional) Board.
4. The following items are not included with the FireNET L@titude Fire Alarm Control Panel, but may be required for
the installation:
Mount the cabinet box on a flat, dry surface and align it so that it is at eye-level with the center of the panel GUI.
Use the cabinet box as a template and mark the position of the mounting holes while ensuring that the wall is flat
at the chosen location.
The FireNET L@titude Fire Alarm Control Panel must be mounted in an accessible location. It must not be
mounted in another enclosure or near sources of excessive heat. The FireNET L@titude Fire Alarm
Control Panel is intended for indoor, dry use only.
Use knockout tabs of the cabinet box to route external cabling into the panel.
IMPORTANT! Drilling additional holes in the cabinet will void the product warranty.
Remove the fascia, lid, backplate, and batteries before mounting the cabinet box. The fascia contains the LCD
Main Processor Board and, optionally, Zone LED indicators and a printer. The backplate contains the Main Back
Board, power supply, and grounding terminals. To remove these components:
2. Disconnect the ribbon cables from the LCD Main Processor Board, leaving the cable ends connected to the Main
Back Board.
3. Remove the hinge pins of the fascia and then remove it from the cabinet box. Return the hinge pins to the hinges of
the cabinet box for safekeeping.
4. Remove the hinge pins of the cabinet lid and then remove the cabinet lid from the cabinet box of the fire control
panel. Return the two hinge pins to the hinges of the cabinet box for safekeeping.
5. Remove the retaining screws from the backplate, slide the backplate tabs up, and remove the backplate from the
cabinet. The empty cabinet box is now prepared for mounting on the premises wall.
6. If the power supply is not mounted to the backplate (as with an extension board), disconnect the power supply and
remove it from the cabinet.
7. Mark hole locations on the wall for mounting the empty cabinet.
8. Drill four holes in the premises wall.
9. Anchor the empty cabinet box to the wall using appropriate mounting hardware to secure it.
10. Remove the necessary number of knockout tabs from the cabinet box and feed external cabling into the FireNET
L@titude Fire Alarm Control Panel.
This section describes connections between the power supply and the Main Back Board of the FireNET
L@titude Fire Alarm Control Panel. Separate high and low voltage wiring in the enclosure with a minimum gap of
0.25".
Refer to Connecting Field Wiring for specific details about proper wiring. To connect 24V wiring of the power
supply to the Main Back Board:
1. Connect the red wire from the positive ( + ) 24V terminal of the power supply to the positive ( + ) terminal on the Main
Back Board.
2. Connect the black wire from the negative ( - ) RTN terminal of the power supply to the negative ( - ) terminal on the
Main Back Board.
3. Connect the 14 Conductor Cable from the power supply to the Main Back Board.
FireNET L@titude Fire Alarm Control Panels can be equipped with either a 5.25 Amp or 10.25 Amp power
supply. Set DIP switches on the 5.25 Amp and 10.25 Amp Power Supplies before completing the installation
process. Refer to DIP Switch Settings. The power supply settings must be performed to establish the optimal
charge current of the standby batteries. These power supplies can be set to operate at inputs of 115 VAC or 230
VAC. For more information about the power supplies and their functions, see Power Supplies.
The 5.25 Amp Power Supply contains a jumper setting for changing from 115 VAC to 230 VAC. Check the
jumper setting prior to wiring and operating the 5.25 Amp Power Supply with the FireNET L@titude Fire Alarm
Control Panel.
Confirm that the 5.25 Amp Power Supply is set for 230 VAC before operating at 230 VAC. Permanent damage
of the power supply will result if the 115 VAC jumper setting exists while operating the power supply at 230 VAC.
WARNING! Remove jumper J1 before operating the FireNET L@titude Fire Alarm Control Panel at 230 VAC.
Failure to remove jumper J1 prior to operating at 230 VAC will cause permanent damage to the 5.25 Amp power
supply.
High voltage present on jumper pins. Remove AC power before changing jumper setting.
Refer to Connecting Field Wiring for specific details about wiring the power supplies. Provide an AC power
connection to the terminal block from a 15 Amp branch circuit. The following figure illustrates AC connections of
the 5.25 Amp Power Supply:
1. Connect a wire from the ground terminal ( ) to the grounding block of the cabinet box.
2. Connect a wire from the grounding block of the cabinet box to a ground. Provide this connection in close proximity to
the cabinet box.
3. Connect a wire from the neutral terminal (N) to the neutral of the power source.
4. Connect a wire from the line terminal (L) to the line of the power source.
Unlike the 5.25 Amp Power Supply, the 10.25 Amp Power Supply does not require a jumper to switch between
115 VAC and 230 VAC. The 10.25 Amp Power Supply provides an auto-detect feature that automatically
compensates for input voltages of 115 VAC or 230 VAC.
Provide an AC power connection to the terminal block from a 15 Amp branch circuit. To connect AC power to the
10.25 Amp Power Supply:
1. Connect a wire from the ground terminal ( ) to the grounding block of the cabinet box.
2. Connect a wire from the grounding block of the cabinet box to a ground. Provide this connection in close proximity to
the cabinet box.
3. Connect a wire from the neutral-terminal (N) to the neutral of the power source.
4. Connect a wire from the line-terminal (L) to the line of the power source.
The FireNET L@titude Fire Alarm Control Panel provides connections for two standby batteries. Refer to
Calculations for determining the minimum required battery capacity for the fire alarm system. If the required
battery capacity exceeds the space available in the cabinet, an appropriately-sized auxiliary UL listed battery
cabinet suitable for fire alarm service will be required. If needed, install that cabinet (wired close-nippled)
adjacent to the panel to minimize battery lead length.
WARNING! Battery terminals and leads are not power-limited. Shorts can cause a fire or an explosion. Use
extreme caution while connecting standby batteries.
Refer to Connecting Field Wiring for specific details about connecting the standby batteries.
1. Place two 12 VDC, VRLA, rechargeable, standby batteries in the base of the cabinet.
2. Orient terminals of the standby batteries so that the positive ( + ) terminal of one standby battery is facing the
negative ( - ) terminal of the other.
3. Connect the black wire of the power supply to the negative ( - ) terminal of Battery 1.
4. Connect the red wire of the power supply to the positive ( + ) terminal of Battery 2.
5. Connect the jumper wire from the ( + ) of Battery 1 to the ( - ) of Battery 2.
6. Route battery leads at least 0.25" from all other cabling.
The series connection described provides the 24 V standby voltage required by the panel. Do not connect the
two batteries in parallel. A parallel connection will not provide the 24 V required for operating the panel in a
standby condition.
The battery connections can be made while AC power on or off. If AC power is off, the battery connection will not
be recognized (and the unit will remain unpowered) until AC is restored. Once AC power is on and the batteries
are connected, examine the LED Status Indicators on the power supply:
l Confirm that the AC NORMAL and DC OUT ON indicators are both illuminated, and the HEARTBEAT indicator is
blinking yellow.
l Confirm that BATTERY DISCON is off. If it is on, recheck the battery connections and test or replace the batteries.
l Wait 3 minutes and confirm that no trouble indicators are illuminated.
Using a volt meter, measure the voltage across each battery separately. Typically, the voltage of each battery will
measure 12.0 to 14.5 volts depending on the level of charge. Voltages below 12.0 are possible if the battery is
severely discharged. Compare the two battery voltages. A difference of more than 1 volt may indicate a problem
with the batteries.
Each panel module of the FireNET L@titude Fire Alarm Control Panel must contain a unique setting before
being connected to the Main Back Board. The binary setting of the DIP switch sets the specific address for the
panel module. The numeric order of the address setting between modules does not impact operation, but each
panel module must be assigned a separate / unique address.
The black portion of the DIP switch identifies the switch actuator.
Address 0 is shown above for illustrative purposes only. Address 0 should never be used.
l For address 16-31, switch 5 should be in the ON position. Switch 5 ALONE adds 16 to the address number. For
example, for address 20, set the switch position to address 4 shown above and switch 5 in the ON position.
l For address 32-47, switch 6 should be in the ON position. Switch 6 ALONE adds 32 to the address number.
l For address 48-63, switches 5 AND 6 should be in the ON position. Switches 5 and 6 TOGETHER adds 48 to the
address number.
Placement
1. Disconnect AC power and standby batteries prior to performing the module installation.
2. Remove the retaining screw and plastic cover.
3. Remove the panel module from the protective packaging using adequate electrostatic protection.
4. Point the conductor side of the panel module toward the backplate.
5. Insert the notched end of the panel module in the metal guide notch of the backplate at an angle, as shown.
The photo above is an example of panel module placement and may not be representative of the specific module
and slot placement described in this guide. Refer to the checklist above for details on placement.
6. Rotate the panel module until all conductors are securely inserted into connectors of the Main Back Board.
3. Secure the Network Module to the LCD Main Processor Board with supplied hardware .
4. Reconnect the battery and restore AC power.
Network Connections
Provide network connections to NETWORK IN and NETWORK OUT terminals of the FireNET L@titude Fire
Alarm Control Panel's Main Back Board after installing the Network Module. The following figure illustrates the
typical network connections of a 3 panel, Class X network:
Because network connections are supervised, if a network module is installed and there are no other devices on
the network, the IN and OUT network terminals must be connected together to prevent an
OPEN CIRCUIT TROUBLE indication.
Bridge networking is supported for FireNET and FireNET Plus panels. Advanced features are not available
when using bridge networking.
When designing or installing a network of panels, any network segment or combination of segments can be
connected with fiber optic cable instead of copper wire. Two fiber optic converters are required per segment as
shown. Connections between the panel and the converter must be within 20 feet and wired in conduit (or
equivalently protected against mechanical injury). Converter DIP Switch settings must be set as shown . Refer to
the Equipment List for the model numbers of the fiber converters.
Single-Mode Multi-Mode
Fiber Types 9/125 μm, 8.3/125 μm, 7/125 μm, or 10/125 μm 50/125 μm, 62.5/125 μm, or 100/140 μm
Wiring Distance 24.8 miles (40 km) 3.1 miles (5 km)
Do not insert more than one conductor per terminal. Use wire nuts or other suitable splice connectors to
connect the 24V DC cables to both the AUX 24V OUT and RTN terminals.
WARNING! Disconnect AC and battery power before making any field connections.
WARNING! Do not route low-voltage cabling through the same conduit as AC lines. AC power lines should be
threaded through a dedicated conduit. Refer to the following illustration when connecting any wiring.
Wiring Diagram
The FireNET L@titude Fire Alarm Control Panel provides a trouble signal when unused loops are not
terminated. All loops are supervised. Follow NFPA guidelines for placement of isolators with Class X wiring.
When using Class X wiring, SCI Short Circuit Isolators must be installed before and after each analog
addressable device on the SLC loop. Alternatively, analog devices with built-in SCI may be used.
The wiring from the control panel to the first SCI and from the last SCI back to the control panel must be in
conduit.
Notification Appliances
Notification appliance circuits can be configured in pairs for Class A operation. Class A operation can be
assigned to the first pair of notification appliance circuits (NAC1&2) or the second pair (NAC3&4) or both pairs.
When wiring a pair of NACs for Class A operation, only one of the two End-of-Line diodes is used. Remove the
one from the +/- terminals of the first NAC. Leave the other in-place on the terminals of the second NAC.
For Class B operation, the End-of-Line diode must be removed from the NAC terminals and connected across
the terminals of the last device on the NAC circuit.
Branching of Class A or Class B notification appliance circuits prevents proper circuit supervision and is not
permitted.
Do not insert more than one conductor per terminal. Use wire nuts or other suitable splice connectors to connect
the end-of-line diode and Class A loop return wire. Cable gauge must be sized according to length and device
load to ensure that voltage-drop of the cable does not result in less than the minimum operating voltage of the
notification appliances. Different limitations will apply for devices with a higher or lower minimum working
voltage. Refer to Specifications for cabling information.
To install notification appliances on the FireNET L@titude Fire Alarm Control Panel:
Notification appliances connected to NAC outputs on a single panel are synchronized. Notification appliances
connected to SLC loops on a single panel are synchronized. However, notification appliances on separate
panels are not synchronized. Per NFPA 72,
Audible Devices The installation of one group of synchronized-audible notification appliances shall not be installed in
hearing range of another group of synchronized-audible NACs.
Visual Devices The installation of one group of synchronized-visual notification appliances shall not be installed in line-
of-sight of another group of synchronized-visual notification appliances.
Refer to Equipment List for synchronization devices that are UL listed and authorized for use with the FireNET
L@titude Fire Alarm Control Panel. Refer to Calculations to determine wire size requirements for your
application.
There are 3 NAC power output modes: continuous constant power, door holder, and resettable. NAC power
outputs can be wired as 2-wire or 4-wire circuits as shown. When wired using 2-wire configuration, select "Class
B" in the configuration menu. When wired using 4-wire configuration, select "Class A" in the configuration menu.
Regardless of the wiring schema, when the NAC is used in continuous constant power mode, it is a special
application output with a voltage range of 20.0 - 26.4V. It can be used to power Hochiki ASB and ASB-L sounder
bases. When powering these devices, the circuit acts as a Class B pathway. The wiring loss must not exceed 4V.
If devices other than those listed are powered by this circuit, the circuit may not meet the Class B supervision
requirements.
Door Holder
Regardless of the wiring schema, when configuring for door holder, the circuit is a regulated 24V output and
meets the requirements for a Class D circuit.
Resettable
When the NAC is used in resettable mode, it is a special application output with a voltage range of 20.0 - 26.4V.
It can be used to power the following:
l System Sensor i3 series Models: 4W-B, 4WT-B, 4WTA-B, 4WTR-B, 4WTAR-B, 4WITAR-B
l System Sensor i4 Series Models: COSMO-4W, COSMOD4W
l System Sensor End-of-Line Relay: EOLR-1
When powering these devices, the circuit acts as a Class B pathway only when an EOLR-1 is the last device on
the circuit and the relay contacts are supervised. The wiring loss must not exceed 8V. Refer to the
System Sensor Installation Instructions for wiring information.
The AUX 24V output terminals provide regulated, non-programmable 24V DC for powering ancillary devices
such as loop modules, I/O boards, and remote displays. The outputs are fused at 900 mA and include a
maximum load rating of 900 mA. Outputs of AUX 24V 1 and AUX 24V 2 are also supervised for circuit trouble
conditions.
Wiring gauge on AUX 24V 1 or AUX 24V 2 outputs must be sized as a function of cable length and device load to
ensure that voltage-drop of the cable does not result in less than the minimum operating voltage at the ancillary
devices.
Relay Contacts
The FireNET L@titude Fire Alarm Control Panel contains five programmable relays that provide volt-free
changeover. These relays include:
TROUBLE RELAY Activates on any trouble and clears when all troubles are clear.
FIRE RELAY Activates on any fire condition and remains active until all fire conditions are clear.
SUPERV RELAY Activates on any supervisory condition and remains active until all supervisory conditions
are clear.
PROG 1 RELAY User-definable. Not programmed by default.
PROG 2 RELAY User-definable. Not programmed by default.
Each relay has three volt-free changeover contacts labeled NO, COM, and NC respectively.
Dry contacts between the NO terminal and the COM terminal are open when the output is inactive, and closed
when the output is active.
Dry contacts between the NC terminal and the COM terminal are closed when the output is inactive, and open
when the output is active.
Each relay can be configured independently through Loop Explorer 2 or the panel GUI using Access Level 3.
Refer to the Programming the Panel for LE2 information. Refer to Specifications for operating characteristics of
these field terminals.
Network
These terminals provide Class X connections for intra-panel and annunciator networking and allow for individual
panels to communicate the following data with each other:
Data passed can be reported at each panel GUI and trigger panel responses such as the buzzer or fire alarms.
Networked panels that go off-line will appear as missing at networked panels. Refer to Network Connections for
wiring information.
RS-485 I/O
These terminals provide data communication between the panel and legacy products, such as the 16 Channel
I/O Interface Card. Connections are:
Prog Input
There are three programmable Inputs (PROG INPUT) and one 0V terminal. The inputs are non-supervised and
are designed to be activated by voltage-free contacts. To activate, connect a PROG INPUT to the 0V terminal.
Do not insert more than one conductor per terminal. There are additional 0V terminals if needed.
The default configuration of all three programmable inputs is non-latching, transparent. They must be configured
to perform a function. The line impedance of the circuit connection to the Prog Input terminals must be less than
50 ohms. Each programmable input can be separately configured to provide actions, delays, zones, and location
messaging using the panel GUI.
l The interconnected equipment must be located in the same room as the FireNET L@titude Fire Alarm
Control Panel.
l Wiring must be in conduit (or equivalently protected against mechanical injury) and connections must be made
within 20 feet.
NOTE The output impedance of the Prog Routing Output is 3.3k ohms when in the NORMAL state and 680 ohms
when in the ACTIVATED state. Connect these terminals to any device input that matches these impedance values.
SLC device sensitivity is configurable using the panel GUI or LE2. Refer to the Programming the Panel for LE2
information. Sensitivity levels should be determined and planned in advance.
Detector calibration automatically occurs once per day. The FireNET L@titude Fire Alarm Control Panel is
responsible for drift compensation of individual smoke sensors. It will make automatic sensitivity checks and
sensor adjustments once per day.
Hochiki Protocol
All SLC modules must have a unique address number that acts as a point of reference for the panel. An
SLC module address number can be any number from 1-127. SLC detectors that are paired with compatible
SLC sounder bases provide the sounder base with a unique ID of detector address +127.
Addressing an SLC module requires the use of an Analog Device Programmer (not included with the FireNET
L@titude Fire Alarm Control Panel). Use the operating instructions when programming each device.
Hochiki Protocol
Each SLC device must be connected using S and SC terminals; S to S and SC to SC. Refer to device-specific
wiring requirements when connecting each device.
Devices with IN and OUT S and SC terminals should be connected IN to OUT and vice versa.
SC on the device should connect to LOOP (-) on the panel. S on the device should connect to LOOP (+) on the
panel.
Perform this installation to connect the Gamewell Master F. A. Box for municipal-station notification. Install this
product in accordance with NFPA 72, NEC 70, the National Electrical Code and all local codes. The NAC output
can provide a non-pulsing, regulated 24 VDC, 2.5A maximum output when a fire condition is reported to the
L@titude Panel. The OUT leads of the EOLD (K14070) shall connect directly to the terminal block of the
municipal box.
Panel Start-up
1. Connect the batteries and apply AC power to the FireNET L@titude Fire Alarm Control Panel.
2. Allow the panel to go through its start-up process.
3. After Loading Graphics clears, press Controls & Other Events> Other Events to display details of ongoing start-
up processes. Other Events will always include initialization of the SLC loops, but may include additional items as
well, such as User Logged In and Bootloader Update events.
At this stage, it is common for many trouble events to be reported. The most common is "Unexpected Device".
This is a normal part of panel commissioning.
The start-up process is complete when all of the panel's Other Events clear.
4. If Bootloader Update events were present during the start-up process in step 2, power down the panel and repeat
Panel Start-up.
• User Logged In indicates that a key switch is turned to the Enable position or a user access code has been
entered.
• Bootloader Update indicates software on panel modules is being updated by the main panel. This typically
occurs
only when a panel module is changed or the main panel firmware is updated.
• If the panel is part of a network, some status events may reflect the status of other network nodes.
Loading Configuration
1. Load (or import) the appropriate configuration from Loop Explorer 2. After the import, the panel will begin device
initialization.
The node address must be set on the panel before importing a configuration from LE2.
2. Press Controls & Other Events > Other Events to display details of the ongoing device initialization process.
3. Once initialization is complete, address any outstanding troubles that may be reported.
4. Confirm that the Fire System Normal condition is displayed.
1. Apply AC and battery power to the FireNET L@titude Fire Alarm Control Panel.
2. Check that the AC Normal LED is illuminated on the power supply.
3. Check that the Heartbeat LED is flashing on the power supply.
4. Remove AC power and ensure that the standby batteries are powering the fire control panel. The AC Normal LED on
the power supply switches off after 30 seconds to indicate the loss of power.
5. Reapply AC power to the FireNET L@titude Fire Alarm Control Panel.
6. Disconnect the red wire from the Standby Battery terminal. The Battery Disconnect LED on the Power Supply
illuminates and the fire control panel continues to operate.
7. Reconnect the red wire from the Standby Battery terminal.
Check connections and test voltages at the primary and secondary of the power supply if the panel does not
operate as described above.
Perform the following field circuit tests to confirm proper connections of the loops, NACs, inputs, and outputs:
1. Connect external devices to field terminal loops, NACs, inputs, and outputs.
2. Confirm that correct connections exist between the batteries and the power supply.
3. Apply AC power to the FireNET L@titude Fire Alarm Control Panel.
4. Perform the Learn Panel function on the panel GUI. Buzzer activation occurs when performing the Learn Panel
function.
Buzzer activation during the Autolearn Panel function is part of configuration process. Once Autolearn is
complete, the panel will initialize loop devices with the default settings.
5. Once device initialization is complete, address any outstanding troubles that may be reported.
6. Confirm that the Fire System Normal condition is displayed following the booting cycle.
A “comms time-out” trouble occurs following the booting sequence when the FireNET L@titude Fire Alarm
Control Panel includes a network card. Reset the panel in Access Level 2 of the menu to obtain the Fire System
Normal condition when this trouble condition occurs.
7. Test and verify that all inputs and outputs operate as intended and in accordance with NFPA 72 guidelines.
Perform the following tests to confirm proper operation of the buzzer, panel GUI, indicator lamps, and the fire
control panel system.
The Fire System Normal screen displays when the FireNET L@titude Fire Alarm Control Panel is operating
properly and indicates that the installation was successful. Determine that the Fire System Normal condition is
visible on the panel GUI before initiating the Panel Tests. Fire System Normal condition is displayed following
the booting cycle and occurs when trouble conditions are not reported.
Panel Tests
Panel Tests are provided through the No User Group of the panel GUI. No User Group contains a limited set
of operations and does not require password authorization to initiate. The No User Group menu is immediately
available for operation following the booting cycle.
This test confirms operation of the indicator lamps and the buzzer. To perform the Lamp & Buzzer Test:
1. Press the panel GUI during the Fire System Normal condition.
2. Press Panel Tests and then Lamp & Buzzer Test. The internal buzzer of the fire control panel sounds and all
indicator lamps light for 5 seconds. Contact Technical Support if fascia lamps do not light.
Display Test
1. Press the panel GUI during the Fire System Normal condition.
2. Press Panel Tests and then Display Test. A confirmation window will appear.
3. Press Continue to test the display. The panel GUI cycles through a series of blank raster colors.
System Information
The System Information window includes details such as Software Version, File manager, LED Controller, I/O
Board Controller, Configuration Manager, and the Event Log. View the System Information to determine the
operating status of the FireNET L@titude Fire Alarm Control Panel. To view system information on the FireNET
L@titude Fire Alarm Control Panel:
1. Press the panel GUI during the Fire System Normal condition.
2. Press System Information. Press More to display subsequent System Information windows.
Event Log
View the Event Log to determine the status of initiating devices, signaling line circuits, and notification
appliances. To view the Event Log of the FireNET L@titude Fire Alarm Control Panel:
1. Press the panel GUI during the Fire System Normal condition.
2. Press View Event Log on the User Controls window.
3. Press More Details to display additional information about the posted event message.
Most features can be programmed using the panel GUI. However, some advanced features can only be
programmed using the Loop Explorer 2 utility.
Loop Explorer 2
Many of the FireNET L@titude Fire Alarm Control Panel features and settings can be configured using the
program Loop Explorer 2. Licenses can be obtained through your sales representative. The following features
are configurable.
l SLC configuration, including SLC Detector sensitivity, SLC device input action, and SLC device delay.
l Zone settings (Alarm Verification, Pre-Signal, Positive Alarm Sequence)
l Network settings
l Common or Zonal Mode setting
l Panel Module settings
l Panel NACs
l Ring Mode options
l Maintenance date keeping
l Unique device labels (i.e., ALK-V can be renamed “APT 101 Bedroom 1”)
l Unique panel labels (i.e., Node 1 can be renamed “Building 10”)
Troubleshooting
For troubleshooting information, refer to the VES Network website.
OVERVIEW
The FireNET L@titude Fire Alarm Control Panel provides connections for addressable devices in 2 to 16 loop
model configurations. All model configurations support SLC loads up to 400 mA per loop. Networked models can
support over 200,000 addressable devices and 65,000 programmable inputs and outputs. A 16 loop model of the
panel can support up to 2032 addressable points and 512 additional programmable inputs and outputs.
This manual describes 2 to 16 loop models of the FireNET L@titude Fire Alarm Control Panel. In order for the
product to comply with the requirements in the Standard for Control Units and Accessories for Fire Alarm
Systems, UL 864 10th Edition, certain programming features or options must be limited to specific values or
not used at all as indicated below. Refer to Equipment List for the specific models described in this table.
Minimum operation describes the FireNET L@titude Fire Alarm Control Panel as an operating fire control
panel. All modules are field replaceable.
System A Panel Module provides essential functions on the FireNET L@titude Fire Alarm Control Panel.
These functions include:
Functions Description
NAC 1 and NAC 2 Class A or two Class B. Default Class B.
NAC 3 and NAC 4 Class A or two Class B. Default Class B.
PSU monitor Battery disconnected, power failure, battery low, PSU ground trouble, charger trouble.
Power fail input A connection of <2K to 0V will indicate a power fail
Ground trouble A connection of 30K or less between a back board terminal (except volt-free terminals)
and the ground will be indicated by a trouble.
System A Panel Module fits into slot A of the Back Board and contains power supply monitoring, trouble
monitoring, and four NAC circuits.
System B Panel Module monitors and controls essential input and output functions on the FireNET L@titude
Fire Alarm Control Panel. The System B Panel Module includes the following input and output functions:
The System B Panel Module fits into slot B of the Main Back Board and controls the fire, trouble, and
programmable relays, auxiliary 24 volt, fire routing, trouble routing, and programmable inputs and outputs. This
figure illustrates System B Panel Module of the FireNET L@titude Fire Alarm Control Panel.
The Dual Loop Panel Module monitors loop device status and provides status to the panel processor. It holds
device configurations and operates in a standalone manner when catastrophic failures occur. The Dual Loop
Panel Module can be connected in any available slot (C-K) on the Main Back Board to provide this operating
function.
Notification Appliances
Notification Appliances operate with the FireNET L@titude Fire Alarm Control Panel in a special application or
regulated mode. The panel supports the simultaneous operation of regulated and special application outputs
between NACs.
The FireNET L@titude Fire Alarm Control Panel does not support the simultaneous operation of regulated and
special application outputs on the same NAC channel.
Synchronization modules are not required and should not be used on special application outputs.
Synchronization
NAC synchronization can be performed across all NAC channels of an individual panel. NAC synchronization
cannot be performed across multiple panels.
The FireNET L@titude Fire Alarm Control Panel provides internal device synchronization between the outputs
of NACs when operating NAC devices from Gentex, Amseco, System Sensor, or Wheelock without the use of
an external synchronization module. External synchronization modules must not be used on the NAC outputs
when operating in the synchronization mode.
While most systems only use one device manufacturer, the L@titude panel can synchronize strobe devices
from any two manufacturers simultaneously. Devices from different manufacturers cannot be combined on the
same channel. Audible synchronization across manufacturers can only be accomplished between Gentex and
System Sensor.
The maximum number of strobes that can be synchronized for each brand is
Settings are provided in the panel GUI and Loop Explorer 2 for controlling the NAC outputs of the FireNET
L@titude Fire Alarm Control Panel. Selections are available in these utilities for providing outputs with
synchronization or various forms of constant power. Settings are also provided to allow the Alarm Silence
button to operate on the front panel in various modes.
Review the settings described below to configure each NAC output for operation.
Output Options General Alarm and Emergency are selected as default conditions. Alternative output options for this
field include Auxiliary Output, Pre-Alarm Output, Supervisory Alarm, and Trouble. Do not select the
General Alarm option if the NAC channel is to be controlled by cause-and-effect programming.
Strobe Strobe Output is not selected for operation as a default condition. Selecting this field allows the user
to define which synchronization protocol to be used.
NAC AUX 24V DC When the Strobe option above is not selected, Off is selected as the default operating condition.
Options for this output are continuous constant power, door holder, and resettable.
n Network Module
n Dual Loop Panel Module
n Printer
n Zone LED Module
n 16 Channel I/O Interface Card
n 16 Channel I/O Panel Module
n L@titude Network Vision Annunciator
n Media Gateway™ Panel Module
n 8 Channel Relay Panel Module
n 8 Channel Conventional Zone Panel Module
n 4 Channel NAC Panel Module
The L@titude Network Module can be configured to operate in a "bridge mode", which enables the FireNET
L@titude Fire Alarm Control Panel to operate on a network with FireNET and FireNET Plus panels. The
FireNET and FireNET Plus network can support up to 64 fire control panels, and has other limitations, such as
more limited text-field lengths, zones, C&E relationships, etc.
For more information about the L@titude Network Module , refer to the L@titude Network Module
Information Guide (MAN-1436HA).
Printer (S768)
The L@titude Printer is an optional feature for printing fire
system events as they occur. The printer is located on the
fascia, below the Zone LEDs (if present). It is a thermal
printer and never requires replacement ink. Printing is
performed on heat-sensitive paper rolls. A trouble message
is reported when the paper runs out. The printer includes a
front loading feature for replacing paper rolls. Refer to
Equipment List for the part number and description of the
paper roll replacement.
When using a printer with a FireNET L@titude Fire Alarm Control Panel fitted with a Plex-Door, the paper may
adhere to the door because of the static generated when removing the protective film. To combat this, wipe the
surface of the door with a slightly damp, soapy cloth before the first use.
The Zone LED module contains 48 LEDs and is connected to the LCD Main Processor Board of the FireNET
L@titude Fire Alarm Control Panel. A maximum of three Zone LED modules can be connected to provide the
fascia with 144 Zone LED indicators. The following figure illustrates the component-side of the Zone LED
Module:
The component side of the Zone LED module is visible when the cabinet door is open. Zone LED indicators are
not present on the component-side of the Zone LED module. The opposite side of the image shown contains
Zone LED indicators.
The 16 Channel I/O Interface enhances the versatility of the alarm system by providing additional input and
output capabilities to the FireNET L@titude Fire Alarm Control Panel. Inputs and outputs can be selected for up
to 16 individual channels. All inputs and outputs are configured in the same way as devices connected to
addressable loops of the panel. The 16 Channel I/O Interface can be configured to contribute or act upon cause
and effect logic.
The 16 Channel I/O Interface can be used to interface the L@titude panel to a NAC extender or Voice
Evacuation system, by providing
l inputs to the L@titude panel for dry contact closures such as General Trouble, AC Power Trouble, or Battery Trouble
from these devices.
l outputs from the panel to control various NAC or Voice Evacuation outputs.
The 16 Channel I/O Interface can be used to interface the L@titude panel to a secondary panel or releasing
panel, by providing
l inputs to the L@titude panel for dry contact closures such as Fire, Supervisory, and Trouble from these panels, and
various stages of release from the releasing panel.
l outputs from the panel to activate NAC outputs on these panels.
Restrictions
Inputs are intended for use as control signals from other life safety equipment. Inputs of this device are not
supervised, and therefore cannot be used directly as initiating circuits for life safety applications within a UL listed
system. Outputs are intended for use as control signals to other life safety equipment. Outputs of this device are
not supervised, and cannot be directly connected to notification or releasing-type appliances in a UL listed
system.
For more information about the 16 Channel I/O Interface, refer to the 16 Channel I/O Interface Information Guide
(MAN-1438HA).
The 16 Channel I/O Interface enhances the versatility of the alarm system by providing additional input and
output capabilities to the FireNET L@titude Fire Alarm Control Panel. Inputs and outputs can be selected for up
to 16 individual channels. All inputs and outputs are configured in the same way as devices connected to
addressable loops of the panel. The 16 Channel I/O Interface can be configured to contribute or act upon cause
and effect logic.
The 16 Channel I/O Interface can be used to interface the L@titude panel to a NAC extender or Voice
Evacuation system, by providing
l inputs to the L@titude panel for dry contact closures such as General Trouble, AC Power Trouble, or Battery Trouble
from these devices.
l outputs from the panel to control various NAC or Voice Evacuation outputs.
The 16 Channel I/O Interface can be used to interface the L@titude panel to a secondary panel or releasing
panel, by providing
l inputs to the L@titude panel for dry contact closures such as Fire, Supervisory, and Trouble from these panels, and
various stages of release from the releasing panel.
l outputs from the panel to activate NAC outputs on these panels.
Restrictions
Inputs are intended for use as control signals from other life safety equipment. Inputs of this device are not
supervised, and therefore cannot be used directly as initiating circuits for life safety applications within a UL listed
system. Outputs are intended for use as control signals to other life safety equipment. Outputs of this device are
not supervised, and cannot be directly connected to notification or releasing-type appliances in a UL listed
system.
l must be wired in conduit (or equivalently protected against mechanical injury) and within 20 feet of equipment being
interfaced.
l must not be used to control the release of extinguishants.
For more information about the 16 Channel I/O Panel Module, refer to the 16 Channel I/O Panel Module
Information Guide (MAN-1420HA).
The L@titude Network Vision Annunciator is a display and control unit which duplicates the indications and
primary controls of FireNET L@titude Fire Alarm Control Panels connected to the same network. The
Annunciator connects via the network interface, and any number of repeaters can be connected up to the
maximum number of nodes allowed by the network.
L@titude Network Vision Annunciators can be configured to replicate fire control panel functionality or to operate
as simple, display-only devices for applications where access to fire alarm controls are inappropriate. The
Annunciator can be configured to display events from any combination of nodes on the network.
For more information about the L@titude Network Vision Annunciator , refer to the L@titude Network Vision
Annunciator Information Guide (MAN-1434HA).
The Media Gateway™ is a communication panel module for the FireNET L@titude Fire Alarm Control Panel. It
provides connectivity to a remote monitoring center via Sur-Gard Fibro or dial-up. SIA is the recommended
format for usage, but Contact ID is also supported. Transmission can be made through one or two telephone
lines, and/or IP through Ethernet. Standard reporting codes have been pre-defined, although the user may
customize these codes through the Loop Explorer 2 programming application.
For more information about the Media Gateway Panel Module, refer to the Media Gateway Panel Module
Information Guide (MAN-1439HA).
The 8 Channel Relay Panel Module has 8 voltage-free, unsupervised SPST Normally-Open relay contacts,
each of which can be individually programmed. All outputs are configurable in the same way as devices
connected to the loops and all may be acted upon by cause and effect logic.
The 8 Channel Relay Panel Module are typically used in applications which require more than the four standard
relay outputs, such as signaling to other systems or plant control.
This module can be used to interface the L@titude panel to a NAC extender or Voice Evacuation system, by
providing
l outputs from the panel to control various NAC or Voice Evacuation outputs.
This module can be used to interface the L@titude panel to a secondary panel or releasing panel, by providing
For more information about the 8 Channel Relay Panel Module, refer to the 8 Channel Relay Panel Module
Information Guide (MAN-1440HA).
The 8 Channel Conventional Zone Panel Module has 8 supervised detection circuits (Class B). If Class A circuits
are needed, they can be made from Class B circuit pairs (1 & 2, 3 & 4, 5 & 6, 7 & 8). Each circuit, regardless of
class, can support up to 20 conventional detectors and approved devices. Individual circuits may be configured
for trigger resistor or short circuit activation. These circuits may be used for any of the standard input actions and
can be configured to contribute to cause and effect logic.
For more information about the 8 Channel Conventional Zone Panel Module, refer to the 8 Channel
Conventional Zone Panel Module Information Guide (MAN-1441HA).
The 4 Channel NAC panel modules are typically used in applications that require more than the standard panel
NAC outputs. Each of these modules adds 4 additional supervised NAC outputs, each of which can be
individually programmed.
These modules may be mixed with 16 Channel I/O modules, 8 Channel Conventional Zone modules, or 8
Channel Relay modules to provide a very flexible system of I/O to satisfy almost any requirement. All inputs and
outputs are configurable in the same way as devices connected to the loops and all may contribute to, or be
acted upon, by cause and effect logic.
For more information about the 4 Channel NAC Panel Module, refer to the 4 Channel NAC Panel Module
Information Guide (MAN-1442HA).
Batteries
Batteries are used as a secondary power source for the FireNET L@titude Fire Alarm Control Panel, in the
event that the primary power source (AC) fails.
Required standby battery capacity is dependent on the required standby period and load of the FireNET
L@titude Fire Alarm Control Panel system. Determine the current consumption of the fire alarm system for
alarm and standby conditions. Use these maximum current values to determine the minimum required battery
capacity of the fire alarm system.
Perform the installation only after calculations have been completed and a suitable battery capacity determined.
Refer to Calculations or Loop Explorer 2 to determine the minimum required standby battery capacity of the
system.
The FireNET L@titude Fire Alarm Control Panel is a 24 volt system designed to use Valve Regulated Lead Acid
(VRLA) batteries as a secondary (backup) power source. VRLA batteries are not commonly available in 24V, so
two 12V batteries are typically used, wired in series.
FASCIA
This section describes the features (standard and optional) of the FireNET L@titude Fire Alarm Control Panel
that are located on the fascia.
LED Panel Indicators Refer to LED Status Indicators below for details.
Panel GUI The 7 inch, full-color, high-resolution panel GUI provides a resistive touchscreen that allows
operation when users are wearing gloves.
Key Switch The key switch on the FireNET L@titude Fire Alarm Control Panel provides level 2 access to the
panel, which allows the user to silence alarms and reset the system. These functions can also be
accessed by using a 6-digit access level 2 code.
Cabinet Lock This provides access to panel electronics. Some models of the FireNET L@titude Fire Alarm
Control Panel place all user controls behind glass. In these models, the cabinet lock provides
access to all controls, including access level 2 controls.
Fire In Zone Refer to Fire In Zone Indicators below for details.
Indicators (Optional)
Printer (Optional) The L@titude Printer is an optional feature located on the lower portion of the fascia. It is a thermal
printer that never requires replacement ink and uses thermal paper rolls accessible from the fascia.
Panel LEDs
For complete information about each event type, refer to Events and Status.
Fire In Zone indicators are an optional feature provided on the fascia of the FireNET L@titude Fire Alarm
Control Panel in single, double, or triple bank configurations. The following figure illustrates a single bank of 48
Fire In Zone indicators:
Single bank configurations contain 48 Fire In Zone indicators. Two bank configurations contain 96 Fire In Zone
indicators, and three bank configurations contain 144 Fire In Zone indicators.
Minimum functions of the FireNET L@titude Fire Alarm Control Panel are provided when Slot A of the Main
Back Board contains System A Panel Module, Slot B contains System B Panel Module, and Slots C, D, E, or F
contain a Dual Loop Panel Module . Two addressable loops are provided by the Dual Loop Panel Module in this
configuration. The following figure illustrates the Main Back Board and the Power Supply of the cabinet box:
The Main Back Board contains connector slots A through F. Operation of the FireNET L@titude Fire Alarm
Control Panel requires that one Dual Loop Panel Module is connected in slots C, D, E, or F to meet minimum
operating requirements.
The Dual Loop Panel Module can be connected in slots C, D, E, or F of the Main Back Board. Slot C of the Main
Back Board is the factory location for the Dual Loop Panel Module connection.
Terminals
The default designation is as shown below, however all 5 relays are user-configurable.
Slots A and B do not contain corresponding lettering on field terminals of the Main Back Board. These slots are
dedicated system boards that operate primary functions. System A Panel Module must connect to slot position A
on the Main Back Board and System B Panel Module must connect to slot position B on the Main Back Board.
Board Slot C
The following figure illustrates the Board Slot C terminals of loops 1 and 2:
Board Slot D
The following figure illustrates the Board Slot D terminals of loops 3 and 4:
Board Slot E
The following figure illustrates the Board Slot E terminals of loops 5 and 6:
Field Terminals Board Location Possible Panel Modules No. of Circuits Function
1-8 (9-16 not used) Slot E Dual Loop Panel Module 2 SLC In /
Out
1-8 (9-16 not used) Slot E 4 Channel NAC Panel Module 4 NAC
Outputs
1-16 Slot E 8 Channel Relay Panel Module 8 Form A
Dry
Contacts
1-16 Slot E 8 Channel Conventional Zone Panel Module 8 Two-
wire
Initiating
Device
Circuits
(IDC)
1-16 Slot E 16 Channel I/O Panel Module 16 Input /
Output
Circuits
Board Slot F
The following figure illustrates the Board Slot F terminals of Loops 7 and 8:
If you have, or plan to obtain, a Media Gateway Panel Module, it must be installed into Board Slot F.
Field Terminals Board Location Possible Panel Modules No. of Circuits Function
1-8 (9-16 not used) Slot F Dual Loop Panel Module 2 SLC In / Out
1-8 (9-16 not used) Slot F 4 Channel NAC Panel Module 4 NAC Outputs
1-16 Slot F 8 Channel Relay Panel Module 8 Form A Dry
Contacts
1-16 Slot F 8 Channel Conventional Zone Panel 8 Two-wire
Module Initiating
Device Circuits
(IDC)
1-16 Slot F 16 Channel I/O Panel Module 16 Input / Output
Circuits
1-16 Slot F Media Gateway Panel Module N/A External
Communication
This figure illustrates Extension Board Power Terminals of the Main Back Board.
These terminals are non-power limited.
The following figure illustrates Network, RS-485 I/O, Fire Routing Output 1, and Prog Input of the Main Back
Board:
0V Terminals
Fire and Trouble routing outputs provide supervised, 24V DC voltage with
reversing outputs. Refer to Main Back Board Specifications for detailed
information about these terminals.
WARNING! Separate high and low voltage wiring in the enclosure with a minimum gap of 0.25". AC power lines
should be routed through a dedicated conduit.
The extension board is connected to the Main Back Board through the Extension Board Power Terminals and a
34 Conductor ribbon cable. The DIP switches should be set as shown.
Panel module slots and field terminals of the FireNET L@titude Fire Alarm Control Panel contain corresponding
lettering to identify position on the Extension Board. Slots G, H, J, and K correspond to terminals G, H, J, and K
of the Extension Board.
Board Slot G, H, J, K
Field Terminals Board Location Possible Panel Modules No. of Function
Circuits
1-8 (9-16 not used) Slot G, H, J, K Dual Loop Panel Module 2 SLC In / Out
1-8 (9-16 not used) Slot G, H, J, K 4 Channel NAC Panel Module 4 NAC Outputs
1-16 Slot G, H, J, K 8 Channel Relay Panel Module 8 Form A Dry
Contacts
1-16 Slot G, H, J, K 8 Channel Conventional Zone Panel Module 8 Two-wire
Initiating Device
Circuits (IDC)
1-16 Slot G, H, J, K 16 Channel I/O Panel Module 16 Input / Output
Circuits
Slot G
Slot H
Slot J
Slot K
Other Terminals
The LCD Main Processor Board, optional Zone LED module(s), and optional L@titude Printer are mounted on
the fascia of the FireNET L@titude Fire Alarm Control Panel. The LCD Main Processor Board can operate a
maximum of three Zone LED modules. One Zone LED module provides 48 LED indicators, two provides 96
LED indicators, and three Zone LED modules provide 144 LED indicators.
Zone LED modules connect to the LCD Main Processor Board through a 10 conductor cable. Subsequent Zone
LED modules are connected in sequence through additional 10 conductor cables.
Installation
This section provides instructions for connecting cables, mounting, and testing the 19" Rack Mount Enclosure.
The following is a general checklist for the installation of the enclosure.
WARNING! Ensure AC mains is turned off and battery power is disconnected at the
source before making any field connections. Double-check all termination points before
applying power! Incorrectly terminated wiring may cause permanent damage.
IMPORTANT! The 19" Rack Mount Enclosure installation must be performed by qualified service personnel.
Exercise care when fastening the cabinet to the rack. Electronic components within the enclosure are vulnerable to
physical damage from severe shock and vibration.
Task
Obtain required mounting hardware, tools, batteries, and external battery cabinet.
q
Open and remove the hinged door from the FACP Rack Mount Enclosure.
q
Following the manufacturer's instructions, configure the (separately-purchased) battery cabinet for 24V operation.
q
Install the battery cabinet.
q
Install the FACP cabinet in the 19" rack in close proximity to the battery cabinet.
q
Route field wiring to the FACP. Dress it in a manner to ensure proper separation of low-voltage wiring,
q telecommunications wiring (if any), and AC power wiring.
Secure the cabling to the terminals.
q
Connect the battery leads of the FACP power supply to the appropriate connections of the battery cabinet.
q
Reattach the hinged door.
q
Apply power to the panel from the AC source and install batteries.
q
Program the panel.
q
Test the installation.
q
Batteries
Refer to Calculations for determining the minimum required battery capacity for the fire alarm system.
WARNING! Battery terminals and leads are not power-limited. Shorts can cause a fire or an explosion. Use
extreme caution while connecting standby batteries. To ensure the battery is not short-circuited, do not connect the
batteries until all wiring of the battery cabinet and power supply is complete. The final wiring connection must be made
at the terminal of the battery.
Connect the 24V output of the battery cabinet to the BATTERY connections on
the FACP Power Supply module. The cable connecting the power supply and
battery must be a jacketed cable with a VW-1 flame rating. The cable between
the power supply and the battery cabinet should be kept as short as possible. It
must be no longer than 5 feet if using 12 AWG wire or 3 feet if using 14 AWG
wire.
NOTE The most commonly available wire that meets these requirements is
heavy duty outdoor extension cords of type SJ, which would need to be modified to
suit the application.
WARNING! To avoid injury and damage to the equipment, ensure AC mains is turned off and battery power is
disconnected at the source before making any field connections. Double-check all termination points before applying
power! Incorrectly terminated wiring may cause permanent damage.
Power Supply
The 19" Rack Mount Enclosure is only available with the 5.25 Amp power supply.
POWER SUPPLIES
Models of the FireNET L@titude Fire Alarm Control Panel can include the 5.25 Amp or the 10.25 Amp power
supply. 5.25 Amp power supplies are capable of charging batteries with capacities ranging from 7 to 60 Ah.
10.25 Amp power supplies are capable of charging batteries with capacities ranging from 12 to 100 Ah. Both
power supplies provide an output voltage of 24V and accept input voltages of 115 VAC or 230 VAC .
A jumper connection for the 5.25 Amp power supply is set at the factory according to input voltage requirements
of the customer, either 115 VAC or 230 VAC.
The 10.25 Amp power supply does not provide a jumper connection to select between input voltages. This
power supply includes a universal input feature that automatically compensates for input voltages between 95V
and 250V AC.
Features
Features of the power supplies include:
Features Description
Deep Discharge Prevention Prevents deep-discharge of the standby batteries by disconnecting the load
when the standby battery-voltage drops below 19 +/- 1V DC. A deep-
discharge can cause permanent damage to standby batteries. Preventing this
condition allows standby batteries to recharge for continued operation after
extended power outages.
Battery Backup Provides battery power to the load when the AC input of the power supply falls
below the rated level. The voltage at the load remains within the specified
range during these switching-transitions.
Battery Boost Boosts standby battery voltage to maintain a constant 22 VDC when the
voltage drops below the 22 VDC level.
Short-Circuit Protection Provides a shut down on the load side of the power supply when the load-
current exceeds the maximum level.
Automatic Retry Restores output to the load when operating conditions return to nominal
levels. This feature restores voltage levels at the load following conditions
such as over-current and AC restore.
Battery Impedance Provides a trouble warning when the impedance of the battery reaches a level
that could prevent proper system operation.
Battery Supervision Battery presence and low battery voltage supervision
Ground Trouble Detection Ground Trouble Detection
General Trouble Relay All troubles are reported over the common trouble contacts.
DIP Switches
The tables below describe DIP switch settings 1 through 4 of the 5.25 Amp Power Supply. For
UL compliance, DIP switches should be set to the defaults, as shown.
SW1&2 together define the Battery Load Test (also known as Battery Impedance Test)
SW3 is not used on the 5.25 Amp Power Supply and should be set to OFF. SW4 defines Battery Manufacturer.
Switch 4 Description
On (DEFAULT) Sets standby batteries for the Powersonic manufacturer.
Off Sets standby batteries for the Yuasa manufacturer.
Other manufacturer batteries can be used. Consult the manufacturer's datasheet for proper settings.
The tables below describes DIP switch settings 1 through 4 of the 10.25 Amp Power Supply.
For UL compliance, DIP Switches 1 and 2 must be set to the default, as shown.
l Disabling Battery Indication - Set DIP switch 1 to the ON position, DIP switch 3 to the ON position and DIP switch 4
to the OFF position to disable the "BATTERY DISCONNECTED" warning indication.
l Disabling the Impedance Test - Set DIP switch 1 to the ON position and DIP switch 3 to the OFF position to disable
the battery impedance test and trouble reporting.
SW1 SW2 SW3 SW4 Battery Mfr. Battery Size Ground Trouble Impedance Test Battery Missing Trouble
Detection Intervals
ON ON ON ON RESERVED FOR FUTURE USE
ON ON OFF ON PowerSonic > 18 Ah Static Disabled Reported
ON ON ON OFF Yuasa < 18 Ah Static 1 min Masked
ON ON OFF OFF Yuasa > 18 Ah Static Disabled Reported
Status Indicators
l Fire
l CO
l Trouble
l Supervisory
l Disablement
l Other Events
These event types correspond to the tabs displayed at the top of the Panel GUI. The event tabs will numerically
indicate active events on the panel; the event type with the highest active event priority will automatically be
displayed. Any event type can be accessed by pressing the associated tab.
Fire
l panel outputs programmed to operate in the event of a fire, such as the Fire Relay and the Fire Routing Output 2, will
activate
l the panel buzzer activates
l Silence Alarms: Press Activate Controls> Silence Alarms to silence notifications. The notifications can be
reactivated by pressing the Re-Sound Alarm button.
l Buzzer Silence: Press Buzzer Silence to silence the panel buzzer.
l Reset System: Press Reset System.
CO
l Silence Alarms: Press Activate Controls> Silence Alarms to silence notification appliances. They can be
reactivated by pressing the Re-Sound Alarm button.
l Buzzer Silence: Press Buzzer Silence to silence the panel buzzer.
l Reset System: Press Reset System.
Trouble
l the General Trouble indicator on the front of the panel flashes yellow
There may be other trouble LED indications which identify the nature of the trouble.
l panel outputs programmed to operate in the event of a trouble, such as the Trouble Relay and Trouble Routing
outputs, will activate
Troubles will typically reset automatically once the condition has cleared. With Access Level 2 or higher, the
following functions are available:
l Silence Alarms: Press Activate Controls> Silence Alarms to silence notification appliances. They can be
reactivated by pressing the Re-Sound Alarm button.
l Buzzer Silence: Press Buzzer Silence to silence the panel buzzer.
l Reset System: Press Reset System.
Supervisory
l the Supervisory Alarm indicator on the front of the panel illuminates yellow
l panel outputs programmed to operate in the case of a Supervisory event, such as the Supervisory Relay, will
activate
l the panel buzzer activates
Supervisory Alarms will typically reset automatically once the condition has cleared (device may be programmed
latching or non-latching). With Access Level 2 or higher, the following functions are available:
l Silence Alarms: Press Activate Controls> Silence Alarms to silence notification appliances. They can be
reactivated by pressing the Re-Sound Alarm button.
l Buzzer Silence: Press Buzzer Silence to silence the panel buzzer.
l Reset System: Press Reset System.
Disablement
If one or more disablements are active, the panel generates a trouble. Refer to the Trouble section above.
Disablements will reset automatically once the device or zone has been re-enabled. With Access Level 2 or
higher, the following functions are available:
l Silence Alarms: Press Activate Controls> Silence Alarms to silence notification appliances. They can be
reactivated by pressing the Re-Sound Alarm button.
l Buzzer Silence: Press Buzzer Silence to silence the panel buzzer.
l Reset System: Press Reset System.
Other Events
Other event statuses are displayed in the Controls & Other Events tab.
IMPORTANT! The FireNET L@titude Fire Alarm Control Panel maintenance and repair must be performed by
qualified service personnel.
Batteries
Load test the batteries and inspect their connections to the power supply as part of annual system maintenance.
WARNING! Battery terminals and leads are not power-limited. Shorts can cause a fire or an explosion. Use
extreme caution while connecting standby batteries.
When replacing leads, disconnect them from the battery before disconnecting them from the power supply.
Typical battery life is 5 years. Specify replacement batteries that are Valve Regulated Lead Acid (VRLA) types.
Refer to Connecting Standby Batteries for information describing the standby battery installation process.
Fuses
The FireNET L@titude Fire Alarm Control Panel contains fuses to protect it against overloads. During the life of
the product it may be necessary to replace one or both of the fuses. Replace fuses only after addressing the
cause which resulted in the fuse failure.
Failure of the battery lead fuse will result in a Battery Missing trouble. Verify that the fuse is the problem by
disconnecting the fused-lead from the battery, and measuring the resistance of the lead from end-to-end with
an ohm meter. The resistance should measure less than 1 ohm. If it measures higher, replace the fuse with a
UL listed slow blow fuse. After replacing the fuse, measure the resistance again. If it still measures higher than 1
ohm, replace the lead. Refer to the Equipment List for fuse part numbers.
Once the replacement is complete, reconnect the lead to the battery terminal and verify the Battery Missing
trouble has cleared.
Refer to Equipment List for parts supporting the assembly and connection of the fuse.
Failure of the power supply fuse will result in a Power Failed trouble. Verify that the internal fuse is the problem
by checking that the proper AC voltage is present across the L & N terminals on the AC-in terminal block of the
power supply.
WARNING! This is high voltage area. An electrical shock hazard exists. Use extreme care.
If the terminals have proper AC voltage and the green AC NORM indicator on the power supply is not lit,
disconnect AC power at the source and replace the fuse.
Replace the power supply fuse by removing it from the fuse housing contained on the circuit board of the power
supply. Install the replacement fuse in the fuse housing and then test the power supply to determine that it
operates. The following figure illustrates the fuse of the power supply:
WARNING! This is a high voltage circuit area. An electrical shock hazard exists in this area when the fire control
panel is operating. Do not remove the fuse while powering the fire control panel. Remove AC power at the source
before attempting to remove the fuse of the power supply.
WARNING! This is a high voltage circuit area. An electrical shock hazard exists in this area when the fire control
panel is operating. Do not replace the fuse while powering the fire control panel. Remove AC power at the source
before attempting to replace the fuse of the power supply.
For the 5.25A power supply, use only a UL listed 250V, 3A, slow blow, 5x20mm fuse.
For the 10.25A power supply, use only a UL listed 250V, 5A, slow blow, 5x20mm fuse.
2. Press the upper housing on the lower housing until the halves snap together. The following figure illustrates the
closed fuse housing:
3. Restore AC power.
4. Monitor the AC NORMAL and DC OUT ON LED indicators on the power supply of the FireNET L@titude Fire
Alarm Control Panel to determine that trouble conditions are not reported following fuse replacement.
APPENDIX A: SPECIFICATIONS
This appendix provides electrical and environmental specifications for the FireNET L@titude Fire Alarm
Control Panel. Current levels provided in the tables of this appendix are maximum ratings unless otherwise
indicated.
Operating Constraints
Installation of the FireNET L@titude Fire Alarm Control Panel must include the operating constraints of the
system to maintain continuous signal monitoring and reporting. Operating constraints are based on the current-
driving capability of the panel while maintaining external loading caused by devices and cabling.
External loading must be selected within the limits of the FireNET L@titude Fire Alarm Control Panel to provide
continuous operation. External loading is caused by individual or multiple combinations of Signaling Line Circuits,
Notification Appliance Circuits, and Initiating Devices. It is also caused by the size and length of cabling
connections. Refer to Calculations to determine the appropriate size and length of cabling.
Electrical
AC Input Ratings
AC line and AC neutral terminals are supervised for open and short circuits, provided standby batteries are
functional.
Power Supply
Fuses
Designation Description
Output voltage 22V DC minimum, 26.4V DC maximum
Ripple Voltage 1 V Maximum
Maximum Standby Current Rated maximum output current which can be supplied continuously in normal
standby.
S406 5.25A Power Supply 1.9 A
S408 10.25A Power Supply 3.4 A
Maximum Alarm Current Rated maximum output current which can be supplied in alarm.
S406 5.25A Power Supply 4A
S408 10.25A Power Supply 8A
A ground trouble indication occurs on the FireNET L@titude Fire Alarm Control Panel when 15K Ohms or less
exists between the ground and either DC RTN or +24 VDC of the power supply.
System Power
When AC power is present, the system operates entirely from AC power (primary). During an AC power failure,
the entire system load is transferred to the standby batteries (secondary).
Standby and Alarm Currents of the FireNET L@titude Fire Alarm Control Panel with two loops are provided
below. Two loop operation includes System A Panel Module, System B Panel Module, and the Dual Loop Panel
Module. Two loop operation represents the minimum board configuration of the FireNET L@titude Fire Alarm
Control Panel. The data excludes all external loads. Primary loads assume a fully charged battery.
The data provided above for standby and alarm current includes loads of a two loop fire control panel alone and
excludes current loads from external devices or equipment.
Battery
Designation Description
Standby Battery Type Two 12 VDC, rechargeable, valve-regulated, lead-acid batteries wired in series
Charger Type Temperature compensated, current limited float charger
Low Battery Disconnect Voltage 19 V (+/- 1 volt)
Standby Battery Capacity Installation-dependent. Refer to Determining the Standby Battery Capacity to
determine the amp hour rating of the standby batteries.
Standby Battery Charge Voltage 27.6 V nominal, temperature-compensated and current-limited
Charge Current Maximum charging current of standby batteries.
5.25 Amp Power Supply 1.25 A
10.25 Amp Power Supply 2.25 A
Standby battery loads are generated by measuring the series battery current of the power supply following a
power failure condition. Standby and alarm current of the FireNET L@titude Fire Alarm Control Panel can
include all or part of the following loads:
Cabling
Specify cabling that meets or exceeds NFPA 72 and UL 864 guidelines.
Property Ratings
Resistance 100 Ω total for both conductors
Core to Core Capacitance 300 nF
Core to Screen Capacitance 450 nF
Inductance Per Core 600 µH
Property Description
Serial Data Connection up to 3900 feet of 18/2 FPLR
Maximum Terminal Capacity 14 AWG
Cable Maximum Parameters 25 Ω per conductor, 600 µH per conductor, 300 nF
Connection Rating
LOOP ( - OUT ), ( + OUT ) 36 V DC @ 400 mA
LOOP ( - IN ), ( + IN ) 36 V DC @ 400 mA
Refer to SLC Loop Cabling for maximum allowable cable length calculations.
NAC Outputs
NAC Outputs Terminal
NAC 1 ( + ), ( - )
NAC 2 ( + ), ( - )
NAC 3 ( + ), ( - )
NAC 4 ( + ), ( - )
NAC 1 and 2 can be configured to provide one Class A circuit (NAC 1&NAC 2) or two Class B circuits (NAC 1
and NAC 2).
NAC 3 and 4 can be configured to provide one Class A circuit (NAC 3&NAC 4) or two Class B circuits (NAC 3
and NAC 4).
Each NAC circuit, whether Class A or Class B, has the following ratings:
AUX Power Output Range Channels configured to power non-NAC devices are rated special application
20V - 26.4V at 2A max, power-limited. Refer to NAC Power Output Modes for
compatible devices.
Quiescent Current Consumption 30 mA
Maximum Current Consumption 50 mA (exclude current draw on outputs)
Current per NAC Output 2.5A per channel, power-limited
Fuse (Electronic) Average Current Limit: 1 to 2.5A, programmable
Peak Current Limit: 3.0 A, fixed per channel
Supervision Reverse-polarity
End-of-Line Device Diode (S2029)
Short Circuit Threshold 130 Ohms +/- 20%
Maximum Line Impedance 4V loss (load-dependent)
NAC outputs operate in a regulated mode when conforming to specific levels of continuous or pulsed DC. NAC
outputs meet requirements for regulated levels when the output current does not exceed the constraints
described below.
Regulated Non-Pulsing Currents cannot exceed 2.5A from any single NAC output:
Output Current
Combined currents of all four NAC outputs cannot exceed 5A
10.25A Power Supply - Regulated pulsing DC output = Max 600mA from any
NAC output, Max 2.4 A per Board
NAC outputs can operate in a special application mode. NACs configured for special application have specific
loading limitations, as detailed below.
Manufacturer Maximum No. of Maximum Current Power Maximum Current Draw Across All
Devices per Channel Draw per Channel Supply NACs1
Amseco 27 2.4A S406 5.25A 2.5A
S408 10.25A 5A
Gentex 32 2.5A S406 5.25A 2.5A
S408 10.25A 5A
System 20 1.32A S406 5.25A 2.1A
Sensor S408 10.25A 5A
Wheelock 41 2.5A S406 5.25A 2.5A
S408 10.25A 5A
1 When System Sensor is used in combination with any other manufacturer, the 2.1A limit applies across all NACs.
Refer to Specifications for operating NAC outputs in the special application mode.
AUX 24V
Terminal Rating
AUX 24V (1) Regulated 24 VDC @ 900 mA
OUT ( + ) and ( - )
AUX 24V (1) Supervision only. Not an output.
RTN ( + ) and ( - )
AUX 24V (2) Regulated 24 VDC @ 900 mA
OUT ( + ) and ( - )
AUX 24V (2) Supervision only. Not an output.
RTN ( + ) and ( - )
Relay Ratings
Network (RS-485)
Terminal Rating
W Ground for cable shield (if applicable)
( + ), ( - ) IN Data 3.3 V, current-limited
( + ), ( - ) OUT Data 3.3 V, current-limited
RS-485 I/O
Terminal Rating
W Ground for cable shield (if applicable)
( + ), ( - ) IN Reserved for future use.
( + ), ( - ) OUT Data 3.3 V, current-limited
The RS-485 I/O utilizes standard RS-485 signaling in multi-drop mode with 120 Ohm terminations.
Prog Inputs
Terminals Rating
1, 2, 3 Supervision: None
Open Circuit Voltage: 24 VDC
Activation: Short to 0V terminal (< 100 ohms)
Activation current: 3.3 mA typical
Supervised input to receive confirmation signal from fire routing equipment. Reprogrammable for any input event
type.
Terminals Rating
( + ), ( - ) Supervision: Class B
Open Circuit Voltage: 10V
End-of-Line device: 3.3K Ohm resistor (S2063)
Activation device: 680 Ohm resistor
Terminals Rating
( + ), ( - ) Regulated 24V DC @ 60 mA
Fuse: Self-resetting
Supervision: Reverse-polarity DC
End-of-line device: Diode (S2029)
Terminals Rating
( + ), ( - ) Supervision: Class B
Open Circuit Voltage: 10V
End-of-Line device: 3.3K Ohm resistor (S2063)
Activation device: 680 Ohm resistor
Terminals Rating
( + ), ( - ) 24V max.
Impedance between (+) and (-) terminals measures 3.3K ohms when inactive.
Impedance between (+) and (-) terminals measures 680 ohms when active.
Terminals Rating
( + ), ( - ) Supervision: Class B
Open Circuit Voltage: 10V
End-of-Line device: 3.3K Ohm resistor (S2063)
Activation device: 680 Ohm resistor
Terminals Rating
Regulated 24V DC @ 60 mA
Fuse: Self-resetting
( + ), ( - )
Supervision: Load > 5 mA
End-of-line device: 3.3K ohms if load < 5 mA
Terminals Rating
( + ), ( - ) Supervision: Class B
Open Circuit Voltage: 10V
End-of-Line device: 3.3K Ohm resistor (S2063)
Activation device: 680 Ohm resistor
System Information
Property Description
Software Zones 2000 zone capacity
Software Groups 5000 group capacity
Event Log 10,000 event capacity, 1 second resolution. Filterable and printable.
Cause and Effects 5000
Mechanical
Fascia Components
Property Description
Display Full color 800 x 480 LCD with resistive touch screen and automatic backlight dimming
L@titude Printer 40 column, front loading thermal (optional)
Zone LED Indicators Up to 3 banks of 48 (144) (optional)
Operating Environment
Cabinet Housing
Housing Description
Dimensions 4 Slot Standard Cabinet - 420mm (W) x 590mm (H) x 153mm (D), approximately 16.5in (W) x
23.2in (H) x 6in (D)
8 Slot Standard Cabinet - 540mm (W) x 720mm (H) x 160mm (D), approximately 21.3in (W) x
28.3in (H) x 6.3in (D)
4 Slot Deep Cabinet - 420mm (W) x 590mm (H) x 203mm (D), approximately 16.5in (W) x 23.2in
(H) x 8in (D)
8 Slot Deep Cabinet - 540mm (W) x 720mm (H) x 212mm (D), approximately 21.3in (W) x 28.3in
(H) x 8.3in (D)
Construction Standard and Deep Cabinet Models
These models include:
This following figures illustrate the FireNET L@titude Fire Alarm Control Panel cabinet housing options. All
cabinets can be ordered with an optional second aperture to accommodate a printer or Fire In Zone LED
indicators.
Option Ranges
Valid
Panel Options Description
Entries
LA FireNET L@titude Fire Alarm Control Panel
Product Style
LF FireNET L@titude Vision Annunciator
1 4 Slot Standard Enclosure
2 4 Slot Standard Plex-Door Enclosure
3 4 Slot Deep Enclosure
4 4 Slot Deep Plex-Door Enclosure
6 4 Slot 19” Rack Mount Enclosure
Enclosure Style
7 8 Slot Standard Enclosure - 16 Loop
8 8 Slot Standard Plex-Door Enclosure - 16 Loop
9 8 Slot Deep Enclosure - 16 Loop
A 8 Slot Deep Plex-Door Enclosure - 16 Loop
C Annunciator
0 English
1 Portuguese
Language
2 Spanish
3 Taiwanese
0 None
1 5.25 A 115V
Power Supply
2 5.25 A 230V
3 10.25 A (auto-voltage sensing)
00 Not Fitted
NC Network Module only (Network Vision Annunciator)
Loop Modules & H# 2-Loop Panel Module, Hochiki Protocol
Communication Modules I# 2-Loop Panel Module, Hochiki Protocol, and Media Gateway™
J# 2-Loop Panel Module, Hochiki Protocol, and Network Module
K# 2-Loop Panel Module, Hochiki Protocol, Network Module, and Media Gateway™
Option Ranges
Valid
Panel Options Description
Entries
1 Red (RAL3002)
Cabinet Color 4 Gray (BS 00 A 0S)
6 Black (RAL9005)
0 No Printer / No Zone LEDs
1 No Printer / No Zone LEDs, Blank 2nd Aperture
3 Printer / No Zone LEDs
Printer, Zone LEDs & Aperture 4 Printer / 48 Zone LEDs
5 No Printer / 48 Zone LEDs
6 No Printer / 96 Zone LEDs
7 No Printer / 144 Zone LEDs
a 16 Channel I/O Panel Module (S772)
Optional Peripheral Cards b 8 Channel Relay Panel Module (S791)
c 8 Channel Conventional Zone Module (S792)
d 4 Channel NAC Module (S793)
Replacement Parts
The following replacement parts are provided for the FireNET L@titude Fire Alarm Control Panel. All part
quantities are “one” unless otherwise indicated in parentheses.
Models Description
MAN-1431 FireNET L@titude Fire Alarm Control Panel - Installation Manual
S406 5.25 Amp Power Supply, 115 VAC / 230 VAC *
S408 10.25 Amp Power Supply, 115 VAC / 230 VAC *
S721 LCD Main Processor Board
S722 Main Back Board
S723 tL@titude Network Module
S752 Power Supply Accessory Kit
S758 Dual Loop Panel Module
S768 L@titude Printer
S769 System A Panel Module
S770 System B Panel Module
S771 Zone LED Module
S787 L@titude Vision Unit
KB3472 Thermal Paper Rolls, 58 mm wide
SR1016 40 Conductor IDC Cable
SR1017 34 Conductor IDC Cable
SR1023 10 Conductor IDC Zone LED Cable
SR1020 14 Conductor IDC PSU Signal Cable
SR1024 10 Conductor IDC Zone LED to LED Cable
SR1018 10 Conductor IDC Printer Cable
SKW91BLACK PSU Power 0V Cable
SKW91RED PSU Power 24V Cable
S2028-6 Resistor Kit (6) 10K Ohm, EOL
S2028 Resistor 10K, EOL
S2063-4 Resistor Kit (4) 3.3 K Ohm, EOL
S2063 Resistor 3.3 K Ohm, EOL
S2029 EOL Diode
S007 Panel Key Lock Set
B3532 Panel Cabinet Lock
B1828 Key Switch
M117 Hinge Pins (Long)
Models Description
M118 Hinge Pins (Short)
B3744 Panel Grounding Block
K14070 End of Line Device for Municipal Box
K1514-00 Battery Lead Set with fuse holder and 10A 3AG fuse for 5.25A power supply
* Power Supplies are required components of the FireNET L@titude Fire Alarm Control Panel.
Accessories
Model Number Devices
SP512A-R3 CAT5e Surge Protector, manufactured by Black Box
VF1155-00 Multi-mode Fiber Converter TCF-142M-ST
VF1156-00 Multi-mode Fiber Converter TCF-142M-SC
VF1157-00 Single-mode Fiber Converter TCF-142S-ST
VF1158-00 Single-mode Fiber Converter TCF-142S-SC
Loop Devices
The following Hochiki-Protocol loop devices and accessories are authorized for use with the FireNET L@titude
Fire Alarm Control panel:
VES Models
VF2008-00 Hochiki
ACA-V Models Loop Device Description
Multi-Criteria Detector Smoke/Heat
VF2008-00 ACA-V Multi-Criteria Detector Smoke/Heat
VF2012-00 ACC-V Multi-Criteria Detector Smoke/Heat
VF2014-00 ACD-V Multi-Criteria Detector - Smoke/Heat/CO
VF2001-00 AIE-EA Smoke Detector - Ionization
VF2004-00 ALG-DH Smoke Detector - Photoelectric for use with DH-98-A/DH-98-AR
ALN-DH Smoke Detector - Photoelectric for use with DH-100-A
VF2002-00 ALG-V Smoke Detector - Photoelectric
VF2005-00 ALK-V Smoke Detector - Photoelectric
VF2011-00 ALN-V Smoke Detector - Photoelectric
ALO-V Smoke Detector - Photoelectric**
VF3031-10 AMS Addressable Manual Pull Station - Single-Action, Hex Key
VF3032-10 AMS-KL Addressable Manual Pull Station - Single-Action w/ Cat 30 Key
VF3029-10 AMS-KL-LP Addressable Manual Pull Station - Dual-Action w/ Cat 30 Key
VF3030-10 AMS-LP Addressable Manual Pull Station - Dual-Action, Hex Key
VF7008-00 ASB Sounder Base - Aux Power *
VF7005-00 ASBL Sounder Base - Low Frequency, Aux Power *
ASB7 Sounder base - Aux Power, 7th Edition
ASBL7 Low Frequency Sounder base - Aux Power, 7th Edition
VF2003-00 ATG-EA Heat Detector - Fixed Temp
VF2010-00 ATJ-EA Heat Detector - Fixed Temp, Rate of Rise
VF6011-00 CZM Conventional Zone Module
DH-100-A Duct Smoke Detector - ALN
VF5013-00 DH-99-A Duct Smoke Detector - ALK
VF5014-00 DH-99-AR Duct Smoke Detector - ALK, Relays
VF5001-00 DH-98-A Duct Smoke Detector - ALG
VF5002-00 DH-98-AR Duct Smoke Detector - ALG, Relays
VF6007-00 DIMM Dual Contact Module - 4” Cover Plate
VF6020-00 FRCMA Contact Module - Class A
VF6021-00 FRCMA-I Contact Module - Class A, Short Circuit Isolator
VF6022-00 FRCMA-P Contact Module - Class A, Pigtails
VF6023-00 FRCMA-PI Contact Module - Class A, Pigtails & Short Circuit Isolator
VF6002-00 FRCME-4 Contact Module - 4” Cover Plate
* Sounder bases in different zones should not be powered from the same power circuit. Refer to UL864, 10th
edition, sections 56.1.7, 56.3.3, and 56.4.2 – 56.4.4.
The following Silent Knight Protocol loop devices and accessories are authorized for use with the FireNET
L@titude Fire Alarm Control panel:
The following series of Amseco NAC devices are compatible for use on the special application outputs of NACs
when these outputs are configured for Amseco synchronization protocol.
The following series of Gentex NAC devices are compatible for use on the special application outputs of NACs
when these outputs are configured for Gentex synchronization protocol.
Model Description
GCC24 Indoor Horn Strobe, Ceiling
GCC24CR Horn/Strobe, Ceiling Red Multi-Candela (GCC)
GCC24CW Horn/Strobe, Ceiling White Multi-Candela (GCC)
GCS24 Indoor Strobe, Ceiling
GCS24CR Strobe, Ceiling Red Multi-Candela (GCS)
GCS24CW Strobe, Ceiling White Multi-Candela (GCS)
GEC3-24 Indoor Horn Strobe, Wall
GEC3-24WR Horn/Strobe, Wall Red Multi-Candela (GEC3)
GEC3-24WW Horn/Strobe, Wall White Multi-Candela (GEC3)
GEC24 Indoor Horn Strobe, Wall
GEH24 Indoor / Outdoor Horn
GES3-24 Indoor Strobe, Wall
GES3-24WR Strobe, Wall Red Multi-Candela (GES3)
GES3-24WW Strobe, Wall White Multi-Candela (GES3)
GES24 Indoor Strobe, Wall
GX93 Indoor Mini Horn, Wall
Model Description
SSPK24CLP Indoor Speaker Strobe, Ceiling
SSPK24WLP Indoor Speaker Strobe, Wall
WGEC24-75WR Weatherproof Horn/Strobe (Gentex) Red
WGEC24 Outdoor Horn Strobe, Wall
WGES24 Outdoor Strobe, Wall
WSSPK24-15/75 Outdoor Speaker Strobe, Wall
The following series of System Sensor NAC devices are compatible for use on the special application outputs of
NACs when these outputs are configured for System Sensor synchronization protocol.
The following series of Wheelock NAC devices are compatible for use on the outputs of NACs when these
outputs are configured for Wheelock synchronization protocol.
Riser conductors shall be installed in accordance with the survivability from attack by fire requirements in
National Fire Alarm Code, NFPA 72, Sections 6.8.6.3, and 6.9.4. Riser conductors shall employ either a 2 hour
rated cable system, or meet requirements approved by the AHJ, or installation of the Supervised Output Module
using NFPA Style 7 configuration.
Power connections of the remote display and annunciators must be terminated at the 24V terminals of the 24V
OUT or AUX 24V on the FireNET L@titude Fire Alarm Control Panel.
APPENDIX C: CALCULATIONS
Current loading of the FireNET L@titude Fire Alarm Control Panel is limited to the capacity of the power
supplies. Installers must determine the loading placed on these power supplies by adding the sum of device
loads to the no load alarm current of the FireNET L@titude Fire Alarm Control Panel. The result obtained from
this calculation must be below the operating current of the power supply.
The 5.25 Amp Power Supply operates the fire control panel and external loads with 5.25 Amps and reserves
1.25 Amps for charging the standby batteries.
The 10.25 Amp Power Supply operates the fire control panel and external loads with 10.25 Amps and reserves
2.25 Amps for charging the standby batteries.
Current limits are provided in Specifications for outputs of the FireNET L@titude Fire Alarm Control Panel. Total
device currents must be below limits provided for all outputs of the fire control panel.
The calculation of total current loading must include the sum of device loads on the circuit outputs of the FireNET
L@titude Fire Alarm Control Panel. Circuits to be included in this calculation for total current loading are:
l SLC Loops
l NAC Outputs
l 24V OUT
l AUX 24V
l Peripheral Interface Modules
l Network Module
l Panel Standby and Alarm Currents
The current limits provided in Specifications are maximums for individual outputs of the fire control panel. These
output-levels are not intended to be summed together to determine the total current available from the FireNET
L@titude Fire Alarm Control Panel. Refer to these levels only when determining the limit of device-loading on
each output circuit.
The maximum allowable voltage drop of 6.4 V is necessary on the SLC loop to maintain the minimum device
operating voltage of 17 V. The worst case voltage drop occurs when the load is located at the farthest point from
the terminals of the fire control panel.
The following example demonstrates the impact of cable size and length on output circuits. A twin-wire of 16
AWG cabling is connected to SLC loop 1. The length of the 16 AWG cable is 1000 ft (305 m) and the device-load
on the loop is 400 mA. The device-load of 400 mA is determined from manufacturer data sheets. The following
figure illustrates the example SLC voltage drop condition of 16 AWG cable:
A voltage-drop of 1.6064V DC is determined from the table of 16 AWG cable for a single wire length of 1000 ft
(305 m) and a load of 400 mA. The resistance of one wire of the 16 AWG cable is 4.016 Ω at 1000 ft.
A voltage of 20.7872 VDC is available to operate the device at this circuit location.
Shading of the SLC tables identify cable length and load combinations that are not permitted for SLC loop
devices. Light shading represents cable lengths that are not permitted when SLC circuits contain five or more
isolators. Dark shading represents cable lengths that are not permitted without the connection of isolators in the
SLC circuit.
Twin cables are connected to SLC loop terminals of the FireNET L@titude Fire Alarm Control Panel. Data
provided in SLC tables of this section represent resistance and voltage from a single cable-conductor.
Resistance and voltage levels obtained from these tables must include the secondary conductor of the twin cable
during the evaluation process. SLC tables are provided for the following recommended wire gauges:
14 AWG Cable
Length Resistance Voltage Drop per Conductor
in feet Ω @ 0.1 A @ 0.2 A @ 0.3 A @ 0.4 A @ 0.5 A
16 AWG Cable
Length Resistance Voltage Drop per Conductor
in feet Ω @ 0.1 A @ 0.2 A @ 0.3 A @ 0.4 A @ 0.5 A
18 AWG Cable
Length Resistance Voltage Drop per Conductor
in feet Ω @ 0.1 A @ 0.2 A @ 0.3 A @ 0.4 A @ 0.5 A
NAC Cabling
The FireNET L@titude Fire Alarm Control Panel requires that NAC circuits include wire gauge and lengths
specified in tables of this section. Shading of the tables identify cable length and load combinations that are not
permitted for NAC devices.
Twin cables are connected to NAC terminals of the FireNET L@titude Fire Alarm Control Panel. Data provided
in the tables of this section represent resistance and voltage from a single cable-conductor. Resistance and
voltage levels obtained from these tables must include the secondary conductor of the twin cable during the
evaluation process.
Cable length values in the tables represent worst case conditions with the total load at the farthest point from
terminals of the fire control panel. Voltage drops are represented with a depleted battery of 20.4V. Minimum
output voltage is 20V. maximum allowable voltage drop is 4V to ensure a minimum of 16V at the device.
12 AWG Cable
50 0.07964 0.01991 0.03982 0.05973 0.07964 0.09955 0.11946 0.13937 0.15928 0.17919 0.1991
100 0.15944 0.03986 0.07972 0.11958 0.15944 0.1993 0.23916 0.27902 0.31888 0.35874 0.3986
150 0.23924 0.05981 0.11962 0.17943 0.23924 0.29905 0.35886 0.41867 0.47848 0.53829 0.5981
200 0.31904 0.07976 0.15952 0.23928 0.31904 0.3988 0.47856 0.55832 0.63808 0.71784 0.7976
250 0.39884 0.09971 0.19942 0.29913 0.39884 0.49855 0.59826 0.69797 0.79768 0.89739 0.9971
300 0.47864 0.11966 0.23932 0.35898 0.47864 0.5983 0.71796 0.83762 0.95728 1.07694 1.1966
350 0.55844 0.13961 0.27922 0.41883 0.55844 0.69805 0.83766 0.97727 1.11688 1.25649 1.3961
400 0.63824 0.15956 0.31912 0.47868 0.63824 0.7978 0.95736 1.11692 1.27648 1.43604 1.5956
450 0.71804 0.17951 0.35902 0.53853 0.71804 0.89755 1.07706 1.25657 1.43608 1.61559 1.7951
500 0.79784 0.19946 0.39892 0.59838 0.79784 0.9973 1.19676 1.39622 1.59568 1.79514 1.9946
600 0.95744 0.23936 0.47872 0.71808 0.95744 1.1968 1.43616 1.67552 1.91488 2.15424 2.3936
650 1.03724 0.25931 0.51862 0.77793 1.03724 1.29655 1.55586 1.81517 2.07448 2.33379 2.5931
700 1.11704 0.27926 0.55852 0.83778 1.11704 1.3963 1.67556 1.95482 2.23408 2.51334 2.7926
750 1.19684 0.29921 0.59842 0.89763 1.19684 1.49605 1.79526 2.09447 2.39368 2.69289 2.9921
800 1.27664 0.31916 0.63832 0.95748 1.27664 1.5958 1.91496 2.23412 2.55328 2.87244 3.1916
850 1.35644 0.33911 0.67822 1.01733 1.35644 1.69555 2.03466 2.37377 2.71288 3.05199 3.3911
900 1.43624 0.35906 0.71812 1.07718 1.43624 1.7953 2.15436 2.51342 2.87248 3.23154 3.5906
950 1.51604 0.37901 0.75802 1.13703 1.51604 1.89505 2.27406 2.65307 3.03208 3.41109 3.7901
1000 1.59584 0.39896 0.79792 1.19688 1.59584 1.9948 2.39376 2.79272 3.19168 3.59064 3.9896
1050 1.67564 0.41891 0.83782 1.25673 1.67564 2.09455 2.51346 2.93237 3.35128 3.77019 4.1891
1100 1.75544 0.43886 0.87772 1.31658 1.75544 2.1943 2.63316 3.07202 3.51088 3.94974 4.3886
1150 1.83524 0.45881 0.91762 1.37643 1.83524 2.29405 2.75286 3.21167 3.67048 4.12929 4.5881
1200 1.91504 0.47876 0.95752 1.43628 1.91504 2.3938 2.87256 3.35132 3.83008 4.30884 4.7876
1250 1.99484 0.49871 0.99742 1.49613 1.99484 2.49355 2.99226 3.49097 3.98968 4.48839 4.9871
1300 2.07464 0.51866 1.03732 1.55598 2.07464 2.5933 3.11196 3.63062 4.14928 4.66794 5.1866
1350 2.15444 0.53861 1.07722 1.61583 2.15444 2.69305 3.23166 3.77027 4.30888 4.84749 5.3861
1400 2.23424 0.55856 1.11712 1.67568 2.23424 2.7928 3.35136 3.90992 4.46848 5.02704 5.5856
1450 2.31404 0.57851 1.15702 1.73553 2.31404 2.89255 3.47106 4.04957 4.62808 5.20659 5.7851
1500 2.39384 0.59846 1.19692 1.79538 2.39384 2.9923 3.59076 4.18922 4.78768 5.38614 5.9846
1550 2.47364 0.61841 1.23682 1.85523 2.47364 3.09205 3.71046 4.32887 4.94728 5.56569 6.1841
1600 2.55344 0.63836 1.27672 1.91508 2.55344 3.1918 3.83016 4.46852 5.10688 5.74524 6.3836
1650 2.63324 0.65831 1.31662 1.97493 2.63324 3.29155 3.94986 4.60817 5.26648 5.92479 6.5831
14 AWG Cable
50 0.12625 0.0315625 0.063125 0.0946875 0.12625 0.1578125 0.189375 0.2209375 0.2525 0.2840625 0.315665
100 0.2525 0.063125 0.12625 0.189375 0.2525 0.315625 0.37875 0.441875 0.505 0.568125 0.63134
150 0.37875 0.0946875 0.189375 0.2840625 0.37875 0.4734375 0.568125 0.6628125 0.7575 0.8521875 0.947015
250 0.63125 0.1578125 0.315625 0.4734375 0.63125 0.7890625 0.946875 1.1046875 1.2625 1.4203125 1.578365
300 0.7575 0.189375 0.37875 0.568125 0.7575 0.946875 1.13625 1.325625 1.515 1.704375 1.89404
350 0.88375 0.2209375 0.441875 0.6628125 0.88375 1.1046875 1.325625 1.5465625 1.7675 1.9884375 2.209715
400 1.01 0.2525 0.505 0.7575 1.01 1.2625 1.515 1.7675 2.02 2.2725 2.52539
450 1.13625 0.2840625 0.568125 0.8521875 1.13625 1.4203125 1.704375 1.9884375 2.2725 2.5565625 2.841065
500 1.2625 0.315625 0.63125 0.946875 1.2625 1.578125 1.89375 2.209375 2.525 2.840625 3.15674
550 1.38875 0.3471875 0.694375 1.0415625 1.38875 1.7359375 2.083125 2.4303125 2.7775 3.1246875 3.472415
600 1.515 0.37875 0.7575 1.13625 1.515 1.89375 2.2725 2.65125 3.03 3.40875 3.78809
650 1.64125 0.4103125 0.820625 1.2309375 1.64125 2.0515625 2.461875 2.8721875 3.2825 3.6928125 4.103765
700 1.7675 0.441875 0.88375 1.325625 1.7675 2.209375 2.65125 3.093125 3.535 3.976875 4.41944
750 1.89375 0.4734375 0.946875 1.4203125 1.89375 2.3671875 2.840625 3.3140625 3.7875 4.2609375 4.735115
800 2.02 0.505 1.01 1.515 2.02 2.525 3.03 3.535 4.04 4.545 5.05079
850 2.14625 0.5365625 1.073125 1.6096875 2.14625 2.6828125 3.219375 3.7559375 4.2925 4.8290625 5.366465
900 2.2725 0.568125 1.13625 1.704375 2.2725 2.840625 3.40875 3.976875 4.545 5.113125 5.68214
950 2.39875 0.5996875 1.199375 1.7990625 2.39875 2.9984375 3.598125 4.1978125 4.7975 5.3971875 5.997815
1000 2.525 0.63125 1.2625 1.89375 2.525 3.15625 3.7875 4.41875 5.05 5.68125 6.31349
1050 2.65125 0.6628125 1.325625 1.9884375 2.65125 3.3140625 3.976875 4.6396875 5.3025 5.9653125 6.629165
1100 2.7775 0.694375 1.38875 2.083125 2.7775 3.471875 4.16625 4.860625 5.555 6.249375 6.94484
1150 2.90375 0.7259375 1.451875 2.1778125 2.90375 3.6296875 4.355625 5.0815625 5.8075 6.5334375 7.260515
1200 3.03 0.7575 1.515 2.2725 3.03 3.7875 4.545 5.3025 6.06 6.8175 7.57619
1250 3.15625 0.7890625 1.578125 2.3671875 3.15625 3.9453125 4.734375 5.5234375 6.3125 7.1015625 7.891865
1300 3.2825 0.820625 1.64125 2.461875 3.2825 4.103125 4.92375 5.744375 6.565 7.385625 8.20754
1350 3.40875 0.8521875 1.704375 2.5565625 3.40875 4.2609375 5.113125 5.9653125 6.8175 7.6696875 8.523215
1400 3.535 0.88375 1.7675 2.65125 3.535 4.41875 5.3025 6.18625 7.07 7.95375 8.83889
1450 3.66125 0.9153125 1.830625 2.7459375 3.66125 4.5765625 5.491875 6.4071875 7.3225 8.2378125 9.154565
1500 3.7875 0.946875 1.89375 2.840625 3.7875 4.734375 5.68125 6.628125 7.575 8.521875 9.47024
1550 3.91375 0.9784375 1.956875 2.9353125 3.91375 4.8921875 5.870625 6.8490625 7.8275 8.8059375 9.785915
1600 4.04 1.01 2.02 3.03 4.04 5.05 6.06 7.07 8.08 9.09 10.10159
1650 4.16625 1.0415625 2.083125 3.1246875 4.16625 5.2078125 6.249375 7.2909375 8.3325 9.3740625 10.417265
16 AWG Cable
50 0.2008 0.0502 0.1004 0.1506 0.2008 0.251 0.3012 0.3514 0.4016 0.4518 0.502
100 0.4016 0.1004 0.2008 0.3012 0.4016 0.502 0.6024 0.7028 0.8032 0.9036 1.004
150 0.6024 0.1506 0.3012 0.4518 0.6024 0.753 0.9036 1.0542 1.2048 1.3554 1.506
200 0.8032 0.2008 0.4016 0.6024 0.8032 1.004 1.2048 1.4056 1.6064 1.8072 2.008
250 1.004 0.251 0.502 0.753 1.004 1.255 1.506 1.757 2.008 2.259 2.51
300 1.2048 0.3012 0.6024 0.9036 1.2048 1.506 1.8072 2.1084 2.4096 2.7108 3.012
350 1.4056 0.3514 0.7028 1.0542 1.4056 1.757 2.1084 2.4598 2.8112 3.1626 3.514
400 1.6064 0.4016 0.8032 1.2048 1.6064 2.008 2.4096 2.8112 3.2128 3.6144 4.016
450 1.8072 0.4518 0.9036 1.3554 1.8072 2.259 2.7108 3.1626 3.6144 4.0662 4.518
500 2.008 0.502 1.004 1.506 2.008 2.51 3.012 3.514 4.016 4.518 5.02
550 2.2088 0.5522 1.1044 1.6566 2.2088 2.761 3.3132 3.8654 4.4176 4.9698 5.522
600 2.4096 0.6024 1.2048 1.8072 2.4096 3.012 3.6144 4.2168 4.8192 5.4216 6.024
650 2.6104 0.6526 1.3052 1.9578 2.6104 3.263 3.9156 4.5682 5.2208 5.8734 6.526
700 2.8112 0.7028 1.4056 2.1084 2.8112 3.514 4.2168 4.9196 5.6224 6.3252 7.028
750 3.012 0.753 1.506 2.259 3.012 3.765 4.518 5.271 6.024 6.777 7.53
800 3.2128 0.8032 1.6064 2.4096 3.2128 4.016 4.8192 5.6224 6.4256 7.2288 8.032
850 3.4136 0.8534 1.7068 2.5602 3.4136 4.267 5.1204 5.9738 6.8272 7.6806 8.534
900 3.6144 0.9036 1.8072 2.7108 3.6144 4.518 5.4216 6.3252 7.2288 8.1324 9.036
950 3.8152 0.9538 1.9076 2.8614 3.8152 4.769 5.7228 6.6766 7.6304 8.5842 9.538
1000 4.016 1.004 2.008 3.012 4.016 5.02 6.024 7.028 8.032 9.036 10.04
1050 4.2168 1.0542 2.1084 3.1626 4.2168 5.271 6.3252 7.3794 8.4336 9.4878 10.542
1100 4.4176 1.1044 2.2088 3.3132 4.4176 5.522 6.6264 7.7308 8.8352 9.9396 11.044
1150 4.6184 1.1546 2.3092 3.4638 4.6184 5.773 6.9276 8.0822 9.2368 10.3914 11.546
1200 4.8192 1.2048 2.4096 3.6144 4.8192 6.024 7.2288 8.4336 9.6384 10.8432 12.048
1250 5.02 1.255 2.51 3.765 5.02 6.275 7.53 8.785 10.04 11.295 12.55
1300 5.2208 1.3052 2.6104 3.9156 5.2208 6.526 7.8312 9.1364 10.4416 11.7468 13.052
1350 5.4216 1.3554 2.7108 4.0662 5.4216 6.777 8.1324 9.4878 10.8432 12.1986 13.554
1400 5.6224 1.4056 2.8112 4.2168 5.6224 7.028 8.4336 9.8392 11.2448 12.6504 14.056
1450 5.8232 1.4558 2.9116 4.3674 5.8232 7.279 8.7348 10.1906 11.6464 13.1022 14.558
1500 6.024 1.506 3.012 4.518 6.024 7.53 9.036 10.542 12.048 13.554 15.06
1600 6.4256 1.6064 3.2128 4.8192 6.4256 8.032 9.6384 11.2448 12.8512 14.4576 16.064
1650 6.6264 1.6566 3.3132 4.9698 6.6264 8.283 9.9396 11.5962 13.2528 14.9094 16.566
Twin cables are connected to AUX 24V terminals of the FireNET L@titude Fire Alarm Control Panel. Data
provided in AUX 24V tables of this section represent resistance and voltage from a single cable-conductor.
Resistance and voltage levels obtained from these tables must include the secondary conductor of the twin cable
during the evaluation process.
Cable length values in the tables represent worst case conditions with the total load at the farthest point from
terminals of the fire control panel.
AUX 24V tables are provided for the following recommended wire gauges:
12 AWG Cable
14 AWG Cable
16 AWG Cable
5. Add the Total Device Load to the no-load alarm current to obtain the Total Load Current.
6. Total Device Load + FireNET L@titude Fire Alarm Control Panel No-Load = Total Load Current
Refer to Specifications for the maximum current limits provided in the example calculation above.
Battery Rating = ( Battery De-Rating Factor ) x [ ( Standby amp hours ) + ( Alarm amp hours )]
OR
Battery Rating = ( Battery De-Rating Factor ) x [ ( 24 hours x Standby-Current ) + ( 5 Minutes x Alarm Current)]
where the battery de-rating factor = 1.2 and 5 minutes = 5 / 60 minutes = 1/12 = .0833 hours
8. Record the alarm current of circuit boards populating slots C through F of the panel.
9. Record the alarm current of SLC, NAC, and auxiliary devices.
10. Total alarm currents.
11. Multiply the total standby current with the standby-time of 24, 48, or 72 hours to provide the result in amp hours.
12. Multiply the total alarm current with the alarm time 5 or 15 minutes to provide the result in amp hours.
13. Combine the sum of amp hours for total standby and alarm.
14. Determine the minimum required amp hour capacity of the standby battery by multiplying the combined Amp hours
with the 1.2 de-rating factor.
15. Select a battery with a capacity rating equal or greater than the minimum required amp hour capacity determined
from this calculation.
Complete the worksheet below to tabulate the total current load and to determine the minimum required amp
hour rating of the standby batteries. Select a corresponding standby battery based on these calculations:
8 Panel Module Alarm Current Current from panel modules in slots C through F with Amps
Alarm and AC input failure.
9 External Device Alarm Current Current of SLC, NAC, and auxiliary devices with Alarm Amps
and AC input failure.
10 Total Alarm Current Total all alarm currents. Amps
11 Standby Amp Hours Multiply total standby current with 24, 48, or 72 hours to Amp
provide the result in amp hours. Hours
12 Alarm Amp hours Multiply total alarm current with 5 or 15 minutes to provide Amp
the result in Amp hours: Hours
5 minutes = .0833 hours
15 minutes = .25 hours
13 Sum Standby and Alarm Amp Combine the sum of amp hours for total standby and Amp
Hours alarm. Hours
14 Standby Battery Amp Hour Multiply the combined amp hours with the de-rating factor Amp
J1 25 Slot C 79
K Slot D 84
L Slot F 85
Lamp & Buzzer Test 53 Standby Batteries 18, 102, 107, 115, 122, 164
LCD Main Processor Board 19, 66, 97, 118, 147, Standby Battery 26, 73, 107, 115, 125, 186
Loop Explorer 2 44, 64 Terminals 18, 59, 80, 101, 115, 122, 150, 165
M
Trouble 27, 58, 81, 107, 111, 116, 123
Main Back Board 19, 61, 78, 90, 118, 125, 147, Trouble Relay 43, 81, 107, 112, 131
185
Trouble Routing Input 133
N
Trouble Routing Output 60, 133
NAC 59, 80, 93, 125, 146, 164
Z
Network 31, 87, 125, 145, 164
Zone LED 20, 65, 97, 111, 118, 125
P
Panel Tests 53