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This is a Class A product. In a domestic environment, this product may cause radio interference in which case the user
may be required to take adequate measures.
Electromagnetic Interference (EMI) tests are performed in accordance with Class A requirements of AS/NZS CISPR
22:2009
Adherence to the following will aid in problem-free installation with long-term reliability:
WARNING - Several different sources of power can be connected to the fire alarm control panel. Disconnect all
sources of power before servicing. Control unit and associated equipment may be damaged by removing and/or inserting
cards, modules, or interconnecting cables while the unit is energized. Do not attempt to install, service, or operate this unit
until manuals are read and understood.
Verify that wire sizes are adequate for all initiating and indicating device loops. Most devices cannot tolerate more than a
10% voltage drop from the specified device voltage.
Like all solid state electronic devices, this system may operate erratically or can be damaged when subjected to lightning
induced transients. Although no system is completely immune from lightning transients and interference, proper grounding
will reduce susceptibility. Overhead or outside aerial wiring is not recommended, due to an increased susceptibility to nearby
lightning strikes. Consult with the Technical Support Department if any problems are anticipated or encountered.
Disconnect AC power and batteries prior to removing or inserting circuit boards. Failure to do so can damage circuits.
Remove all electronic assemblies prior to any drilling, filing, reaming, or punching of the enclosure. When possible, make
all cable entries from the sides or rear . Befo re making modifica tions, verify that t hey will not interfe re with battery, transformer,
or printed circuit board location.
Do not tighten screw terminals. Over-tightening may damage threads, resulting in reduced terminal contact pressure and
difficulty with screw terminal removal.
This system contains static-sensitive components. Always ground yourself with a proper wrist strap before handling any
circuits so that static charges are removed from the body. Use static suppressive packaging to protect electronic assemblies
removed from the unit.
Follow the instructions in the installation, operating, and programming manuals. These instructions must be followed to
avoid damage to the control p anel a nd asso ciat ed equip ment . FACP operation and reliability depend upon proper ins t al l ati on.
The equipment must be correctly programmed and installed to suit the specific application. Please ensure correct
operational parameters are set prior t o co mmiss ioning . If furth er de t ai l s on programmi ng opt ions a r e required , p le ase consu lt
the programming manual or contact our helpful technical support personnel.
1.2: Related Documents ....................................................................................................................................... 1
1.3: Cautions and Warnings ................................................................................................................................. 2
Section 2: System Overview....................................................................................................3
2.1: System Description .......................................................................................................................................3
2.1.1: Standard Features................................................................................................................................ 3
2.1.3: System Limitations ............................................................................................................................. 3
2.3: System Components...................................................................................................................................... 4
2.4.1: Main Power Supply.............................................................................................................................8
2.5: System Cabinets............................................................................................................................................8
3.5.2: Setting SLC Loop Number ...............................................................................................................15
3.5.3: Installing a Multi-layer Module into the Chassis.............................................................................. 15
3.6: Form-C Relays on the CPU ........................................................................................................................18
3.7: Installing the SGD Interface Board............................................................................................................. 18
3.8: Installing a Replacement Zone Mimic (ACM-ZM).................................................................................... 19
3.8.1: Installing a Zone Mimic Expansion Card (AEM-ZM) ..................................................................... 20
A.6: Power Supply Calculations ........................................................................................................................34
A.6.1: Calculating the System Current Draws............................................................................................ 34
A.6.2: How to Use the Calculating Tables..................................................................................................35
A.6.3: Calculation for Main Supply Current...............................................................................................36
A.6.4: Calculating the Maximum Secondary Power Quiescent Current Draw .......................................... 37
A.6.5: Calculating the Maximum Secondary Power Fire Alarm Current Draw......................................... 37
A.7: Calculating the Battery Requirements ....................................................................................................... 38
A.7.1: Battery Power Equations ................................................................................................................ 3 8
ARE Interface Board Installation SheetDOC-03-062
Zone Mimic ManualDOC-01-028
ACM-8RA Installation SheetDOC-03-052
Intrinsically Safe Barrier ManualDOC-01-029
Annunciator Name Plate Installation SheetDOC-03-060
Extinguishing Agent release Module ManualDOC-01-005
DA Series BOWS ManualDOC-01-004
DVC Digital Voice Command Manual52411
DVC-RPU Manual50107425-001
DAA2 and DAX Amplifiers Manual53265
DAL Devices Reference Document52410
Mass Notification Systems Configuration, Programming and Operations ManualLS10063-000NF-E
Annunciator Control System Manual15842
LCD2-80 Manual53242
LDM Series Lamp Driver Annunciator Manual15885
SCS Smoke Control Manual (Smoke and HVAC Control Station) Manual15712
First Command ManualLS1001-001NF-E
XP10-M Ten Input Monitor Module Installation DocumentI56-1803
XP6-C Supervised Control Module Installation DocumentI56-1805
XP6-MA Six Zone Interface Module Installation DocumentI56-1806
XP6-R Six Relay Control Module Installation DocumentI56-1804
FSA-8000 FAAST Intelligent Aspiration Sensing Technology DocumentI56-3903
SLC-IM ManualLS10026-000NF-E
NOTE: Where used in this manual, the term CPU refers to the main circuit board for the fire
alarm control panel’s central processing unit (see Section 2.3 “System Components” for a more
detailed list of part numbers.)
1.3 Cautions and Warnings
This manual contains cautions and warnings to alert the reader as follows:
CAUTION:SUMMARY IN BOLD
INFORMATION ABOUT PROCEDURES THAT COULD CAUSE PROGRAMMING ERRORS,
RUNTIME ERRORS, OR EQUIPMENT DAMAGE.
WARNING: SUMMARY IN BOLD
INDICATES INFORMATION ABOUT PROCEDURES THAT COULD CAUSE IRREVERSIBLE
DAMAGE TO THE CONTROL PANEL, IRREVERSIBLE LOSS OF PROGRAMMING DATA OR
PERSONAL INJURY.
•Autoprogram feature for faster programming of new devices
•Easy connection to VeriFire® Tools programming utility
•T he basic system power supply charges sealed lea d-acid batteries ranging in capacity from 7 to
85 amp hours, and provides up to 5 amps of power for use by the CPU.
•Easy connection to auxiliary power supplies and battery chargers for custom design of very
large systems.
•Ground fault detection
•Mass Notification System compatible
•Provides LED mimic annunciator for up to 72 zones
•Supports Type 5 Arrangements
1
2.1.2 Options
Refer to Section 2.3 “System Components” for descriptions of the various optional mo dul es.
•Rubberised keypad with a standard “QWERTY” keyboard layout, a 640-character LCD
display, indicator LEDs, and switches.
•Separately ordered Loop Control Modules and Loop Expander Modules provide up to ten
SLC loops.
•Optional equipment includes: ACS devices, ACM-8RA remote relay module to provide
additional relay points, and audio/voice components.
2.1.3 System Limitations
System expansion must take into consideration the following:
1.The physical limitations of the cabinet configuration.
2.The electrical limitations of the system power supply.
3.The capacity of the secondary power source (standby batteries).
Input Fuse RatingM205 Fuse - 250V, 8.0A
Input Voltage RatingNPS-5CHS: 100-240 V AC, 50-60 Hz, 0.8-2.5 A
NPS-11CHS: 100-240 V AC, 50-60 Hz, 1.5-5.0 A
Output RatingsDetails
Output CurrentNPS-5CHS: 5.6 A
NPS-11CHS: 11.7 A
Output Ratings (Charger)Details
Charger Voltage27.3 V DC
*
@ 27.3 V DC
*
@ 27.3 V DC
*A total of 15 A can be drawn from the panel, with the difference in current being
2.2.2 Environmental Specifications
Environmental Specifications
Parameters
Environmental Limits0°C to 49°C dry heat
IP RatingCAB650, CAB900: IP30
2.3 System Components
Central Processing Unit (CPU) with Power Supply. The central processing unit for the
AFP-3030 is a combination of the CPU and on board power supply (NPS-5CHS or NPS-11CHS).
The power supply provides +24 V DC power and a battery charger for the basic system. Auxiliary
power supplies and/or battery chargers are available to customize large systems.
Indicating Unit. The indicating unit acts as the primary display for the status of the Fire System.
The ACM-ZM provides the status indications, with the AEM-ZM providing additional zonal indications. The Indicating Unit also provides a Bulgin Switch for Trial Evacuation, a Bulgin Switch
for Silence, and a Door Switch.
drawn from the panel batteries.
Details
40°C @ 93% relative humidity
18U, 28U, 40U: IP52
Keypad/Display. The keypad with built in LCD display serves as a secondary display for the
AFP-3030.
Enclosures. Five cabinet sizes are available; CAB650, CAB900, 18U, 28U, and 40U. Refer to
Section 2.5, “System Cabinets”, on page 8 for additional information.
SLC Loops: LCM-320, LEM-320 . To provide one SLC loop, connect one LCM-320 to the
panel. Connect an LEM-320 to the LCM-320 to provide a second loop. Up to five pairs of modules
can be installed on the panel to provide a maximum of ten SLC loops.
Network Connection. Connect a wire or fibre version of the NCM or the HS-NCM to provide a
connection to the Noti•Fire•Net (network version 5.0 or higher) or High-Speed Noti•Fire•Net.
Annunciators. The AFP-3030 supports ACM-24A T/ACM-48A (and their expanders) with either
64 or 96 points at an address, as well as LDM-32 (and expanders) and Notifier’s other ACS
devices. (See Section 2.6 “Compatible Equipment” if looking for specific ACS devices.)
NOTE: Annunciators for the AFP-2800 operate on a different baud rate and are not compatible
with the AFP-3030.
Audio System. Voice evacuation applications are documented in the Audio System manuals:
DVC Digital Voice Command Manual, DAA2 and DAX Amplifiers Manual, DS-DB Digital Series
Board Manual, DVC-RPU Manual and the AA-series Audio Amplifiers Manual.
Mass Notification System. The AFP-3030 supports Mass Notification applications.
Installation, programming and operation information for Mass Notification systems are
documented in the Mass Notification Manual. Refer to the AFP-3030 programming and operation
manuals for additional information.
NOTE: The AFP-3030 does not support Control Active LED.
2.3.1 Replacement Kits
The system components that are available as replacement kits for the AFP-3030 are listed in
Table 2.1.
Model NumberDescription
ASY-02-034NPS-5CHS 5.6 A Power Supply Replacement Kit
ASY-02-033NPS-11CHS 11.7 A Power Supply Replacement
Kit
ASY-0 2-058CPU2-3030NZ CPU Replacement Kit for New
Zealand AFP-3030
FG-50-012DISP-3030NZ Keypad Replacement Kit for New
Zealand AFP-3030
ASY-01-035Battery connection pack
FG-65-0163 V CR2477 24mm Lithium Battery
ASY-02-023ACM-ZM PCA Kit
ASY-01-026AEM-ZM Zone Mimic Expansion Card Kit
ASY-01-048SGD Assembly Kit
ASY-01-055SGD Inner Door Mounting Kit
CTX/CRX
CRT-2 or Keltron printer
supervision
(TB5 CTX, REF No connection)
Lithium battery for backup
of on-board memory (See
Section 3.2.1
“Memory-Backup Battery”)
CPU Keypad
Interface
LCM Interface
NAC connection
ASM-02-056Modified.wmf
LCD2-80: TOut pins
B-Type USB Connection
Battery Power
Interface
Brigade Interface
(A.R.E. Connection)
LCD2-80: RDP pins
24 V DC Power from PSU
for Door Holders
†
NAC connection
24 V DC connection
Field ACM Communications Connection
Field Power connection
Field Power connection
Local ACM Out
General Fault Input
NUP connection for
HS-NCM network
communications
24 V Power
from PSU
Panel MCP
Connection
4K7 EOL
Resistors
* Relay may energise at power up and should not be used for Alarm Signalling Equipment. Alternative connections are available via
the Brigade Interface (A.R.E. Connection). See the A.R.E. Interface Board Installation Sheet for connection details.
†Door Holder Power must NOT be run directly to door holders in the field. This power must be fused
and must pass through a door holder relay to control when the doors are to be dropped.
2.4 Product Diagram
The control panel electronics are contained on one printed circuit board assembly that holds the
central processing unit and power supply interface, collectively known as the CPU.
The following figure illustrates the location of the various connections, switches, jumpers and
LEDs on the circuit board. See Section 3 “Installation” for more details.
The NPS-5CHS or NPS-11CHS power supply provides a total of 5.6 A or 11.7 A to the CPU and
has a built-in charger. During normal operation, the NPS can recharge batteries ranging in capacity
from 7 to 85 amp-hours.
See Section 3.10, “Connecting Power Sources and Outputs”, on page 22 for basic power
information.
2.5 System Cabinets
The CPU and modules are installed in a CAB650, CAB900 or U-Series backbox, holding up to four
rows of equipment plus batteries (up to two 85AH batteries). Backboxes can be ordered with
windowed or solid doors. The doors of the 28U and 40U can be mounted on the left or the right side
of the cabinet. A trim ring option is available for semi-flush mounting.
External measurements for each cabinet backbox are provided in Appendix B, “Cabinet and
Mounting Information”, on page 39. Refer to the CAB650, CAB900, or U-Series documentation for
dimensions and door mounting specifications.
2.6 Compatible Equipment
Compatible Notifier and System Sensor equipment that connects directly to the CPU is listed
below. These are the most common devices at time of publishing; the most complete list of
compatible intelligent SLC loop devices is provided in the SLC Wiring Manual; for conventional
non-addressable equipment see the Device Compatibility Document. Other control panels and their
equipment can also be connected in a network, via Noti•Fire•Net version 5.0 or High-Speed
Noti•Fire•Net; refer to the Noti•Fire•Net Version 5.0 Installation Manual or the High-Speed Noti•Fire•Net Installation Manual for details. Some products are documented in a separate manual;
see Section 1.2 “Related Documents”.
SCS-8ASmoke Control Annunciator (Control)
SCS-8LASmoke Control Annunciator (Control)
SGDFire Brigade Alarm Signal Generating
HS-NCM-MFNetwork Control Module - Multi-mode
HS-NCM-MFSFNetwork Control Module - Multi-mode/
HS-NCM-SFNetwork Control Module - Single-mode
HS-NCM-WNetwork Control Module - Wire
HS-NCM-WMFNetwork Control Module - Wire/Multi-
HS-NCM-WSFNetwork Control Module - Wire/ Single-
NCA-2NZNetwork Control Annunciator
NCM-FNetwork Control Module - Fibre
NCM-WNetwork Control Module - Wire
RPT-WNFN Wire-to-Wire Repeater
RPT-WFNFN Wire-to-MMOF repeater
BACNET-GW-3Bacnet gateway
DVCDigital Voice Command
MODBUS-GWModbus-GW
NWS-3NOTI-FIRE-NET WebServer
NFN-GW-AU-EM-3 NFN gateway (Embedded)
OnyxWorksOnyxWorks Workstation with and
VESDA-HLI-GWVESDA-Net gateway
AIBS32Intelligent Base Sounder with
B501Addressable Detector Base
B524IEFTShort Circuit Isolator Base
NFX-BF-IVRAddressable Strobe Base (NFX
NFX-BS-IVAddressable Sounder Base (NFX
NFXI-BS-IVAddressable Sounder Base (NFX
NFX-BSF-IVRAddressable Sounder/Strobe Base
NFX-WF-RRAddressable Strobe (NFX Series)
Choose a location for the fire alarm system that is clean, dry, and vibration-free with moderate
temperature. The area should be readily accessible with sufficient room to easily install and
maintain it. There should be sufficient space for cabinet door(s) to open completely.
Carefully unpack the system and inspect for shipping damage. Count the number of conductors
needed for all devices and find the appropriate knockouts.
Before installing the fire alarm system, read the following:
•Review the installation precautions at the front of this manual.
•Installers should be familiar with the standards and codes specified in Section 1.1 “Agency
Approvals”.
•All wiring must comply with the National and Local codes for fire alarm systems.
•Do not draw wiring into the bottom 25 cm of the cabinet except when using a separate battery
cabinet; this space is for internal battery installation.
•R ev i e w in stallation instructions in Section 3.2 “Installation Checklist”.
WARNING: RISK OF IRREPARABLE EQUIPMENT DAMAGE
MAKE SURE TO INSTALL SYSTEM COMPONENTS IN THE SEQUENCE LISTED BELOW.
FAILURE TO DO SO CAN DAMAGE THE CONTROL PANEL AND OTHER SYSTEM
COMPONENTS.
WARNING: RISK OF IRREPARABLE EQUIPMENT DAMAGE
WEAR A STATIC DISCHARGE STRAP ON WRIST TO PREVENT EQUIPMENT DAMAGE.
3.2 Installation Checklist
The checklist that follows contains references to information included in other manuals; see
Section 1.2 “Related Documents” for document part numbers.
TaskRefer to:
1.Mount the cabinet backbox to the wall.Appendix B, “Cabinet and Mounting Information”
2.Wire relaysSection 3.6 “Form-C Relays on the CPU”
3.Attach & wire other system components
Audio/Voice equipmentDVC Digital Voice Command Manual, DAA Digital Audio
Amplifiers Manual, DVC-RPU Manual
Annunciators and other ACS devices Installation document for the specific device (such as ACS
Manual, ACM-8RA Install Sheet, etc.)
Printer or other output device(s)Section 3.11 “Installing Printers”
Network devicesNoti•Fire•Net Version 5.0 & Higher Manual/High-Speed
Noti•Fire•Net Manual, and/or Installation document for
specific device(s)
4.Wire the Signalling Line Circuits
(Notification Appliance Circuits and
Initiating Device Circuits)
5.Calculate the proper battery rating.Main Power Supply Manual
Section 3.12 “Wiring a Signalling Line Circuit (SLC)” and the
SLC Wiring Manual
• Section 3.10 “Connecting Power Sources and Outputs”
separate enclosure. Run cable to main
& optional power supplies, DC power
outputs, relays, etc.
WARNING:
DO NOT ACTIVATE POWER AT THIS TIME. DO NOT CONNECT BATTERIES.
Main power supply.
• NPS Installation Sheet
Auxiliary power supply and/or
external battery charger
7.Check that all mounting holes are secured to insure a proper Earth Ground connection.
8.Connect wire shielding to Earth Ground.
9.Remove insulator from lithium battery
Section 3.2.1 “Memory-Backup Battery”
on CPU
10. Apply AC power to the control panel by placing the external circuit breaker to the ON position.
Do NOT connect batteries until AC power is checked (see next step).
11. Check AC power.Section 3.10.3 “Checking AC Power”
12. Connect the batteries using interconnect cable as described in Section 3.10.2 “Connecting Local and
Remotely Powered Devices”.
13. Program the control panel.Programming Manual.
T able 3.1 Installation Checklist (2 of 2)
3.2.1 Memory-Backup Battery
The lithium battery on the CPU provides backup
of the CPU’s on-board memory during power loss.
The CPU ships with an insulator to prevent the
battery from discharging. To preserve the battery,
the insulating tube should be left in place as long
as possible before applying AC power.
If the insulator is not removed before applying AC
power, the control panel will show a fault
situation.
This battery’s shelf-life should exceed 10 years,
but if for some reason it fails, the control panel
will show a fault when powered up. To replace the lithium battery:
1.Make a full backup of all system settings to prevent loss of all programming data.
2.Disconnect all power sources.
3.Lift clip gently using a hardware tool or screwdriver, and remove battery from under clip (use
fingers, as screwdriver could damage components) before inserting new battery.
CAUTION:
THE BATTERY USED IN THIS DEVICE MAY PRESENT A RISK OF FIRE OR CHEMICAL BURN
IF MISTREATED.
DO NOT RECHARGE, DISASSEMBLE, HEAT ABOVE 100°C, OR INCINERATE.
A REPLACEMENT CR2477 LITHIUM BATTERY CAN BE ORDERED FROM NOTIFIER BY
QUOTING THE PART NUMBER FG-65-016. USE OF ANY OTHER BATTERY MAY PRESENT A
RISK OF FIRE OR EXPLOSION.
4.Follow system power-up procedures.
5.Dispose of used battery promptly. Keep away from children. Do not disassemble and do not
dispose of in fire.
Figure 3.1 Mounting Option Boards in CHS-3L and CHS-4L
Slide tabs at bottom of
option boards into the
matching slot.
3.3 Attaching Option Boards
If installing option boards into a CAB650, CAB900, or U-Series backbox, mount & connect those
boards at this time. This section contains general instructions for mounting an option board; see the
documentation that shipped with your board for any product-specific instructions.
As described in Appendix B.6, “Laying Out Equipment in Cabinet and Chassis”, up to three option
boards can be mounted in CHS-3L or four option boards can be mounted in the CHS-4L; additional
modules can be mounted in other chassis.
Mounting procedures: Chassis mount
1.Install two 3/4 inch (19.05 mm) stand-offs onto the chassis as sho wn in Figure 3.1.
2.Place the first option board over the stand-offs so that holes line up.
3.If no more option boards will be mounted in that position, securely fasten all stand-offs with
screws (provided with module). If mounting a second option board, attach another layer of
stand-offs and repeat steps 2-3. Note: Set the switches on an option board before mounting
another layer in front of it.
4.If mounting a pair of SLC loop modules, refer to Section 3.5 “Connecting the Loop Contro l
and Expander Modules” and to Section 3.5.3 “Installing a Multi-layer Module into the
Chassis”.
5.For the top (second) layer of option boards, slide the tab at the bottom of the board into the
slots on the chassis, and lay the board back onto the top of the chassis so that the studs line up
with mounting holes on the option board. Securely fasten all stand-offs with screws provided
with module.
NOTE: Mounting two pairs of loop-control and -expander modules in one chassis position may
cause intermittent electrical interference. If this occurs, move one pair to a separate chassis
position.
Mounting procedures: Door mount
If mounting the option board in the door behind a blank dress plate, see Figure 3.2. This dress plate
is suitable for option boards, which do not need to be visible or accessible when the door is closed.
Connecting the Network Communications ModuleInstallation
Figure 3.3 Mounting an NCM/HS-NCM to the CPU Assembly
psi-network-card.jpg
CPU
Assembly
NCM or
HS-NCM
Fasten the
NCM/HS-NCM to
the CPU Assembly
using the screws
and standoffs
included with your
network card.
NUP Port
connections:
Connect NUP
cable from
NCM/HSNCM to J1 on
the fire panel
3.4 Connecting the Network Communications Module
If networking two or more control panels (or network control annunciators), each one requires a
Network Communications Module; a wire version and a fibre version are available. The wire and
fibre versions on the NCM or HS-NCM can be installed on the CPU and power supply assembly.
The preferred position is on top of the CPU assembly, as shown in Figure 3.3.
1.Mount the NCM or HS-NCM in the selected position. (See Figure 3.3)
2.Connect J1 on the CPU to J3 on the NCM or J6 on the HS-NCM using the network cable
provided (P/N 75556). Do not connect two NCMs via NUP ports (aka NUP to NUP).
3.When installing an NCM: Connect Channel A and/or Channel B as described in the NCM Installation Document.
When installing a HS-NCM: Connect Channel A to Channel B as described in the HS-NCM
Installation Document.
3.5 Connecting the Loop Control and Expander Modules
NOTE: See the Noti•Fire•Net Version 5.0 & Higher Manual and the NCM Installation Document
or the High-Speed Noti•Fire•Net Manual for system configuration information.
NOTE: Over-bending fibre-optic cable can damage it. Do not exceed a 8 cm minimum bend
radius.
NOTE: NCM hardware is not compatible with HS-NCM hardware and should not be mixed on
the same network.
3.5.1 Mounting Instructions
Mount loop control and expander modules within the cabinet with the CPU. Typical mounting
positions are in the row immediately below the fire panel. Follow the basic chassis-mounting
instructions given for option boards. Loop-expander modules are mounted first; Loop-control
modules are mounted on top of those. Alternately, loop-control and loop-expander modules can be
attached to each other and mounted as a pair to the chassis. See Figure 3.5 for connection
instructions, connector locations and stand-off lengths.
If using loop control and expander modules in CHS-4L see Figure 3.6.
NOTE: Mounting two pairs of loop control and expander modules in one chassis position may
cause intermittent electrical interference. If this occurs, move one pair to a separate chassis
position.
InstallationConnecting the Loop Control and Expander Modules
!
After all loop-control and loop-expander modules are mounted in the cabinet, connect the SLC
loops to TB1 on each loop-control and loop-expander module as shown in Figure 3.8. Daisy-chain
the loop-control modules as shown in Figure 3.7. The ribbon-cable connection runs from header J7
on the CPU to header J1 (“Data in”) on the first loop-control module, from J3 (“Data out”) on that
unit to J1 on the next unit in the chain, and likewise for up to five loop-control modules. Each
module should be assigned a unique SLC loop number (see below); loop number does not need to
match the module’s location in this daisy-chain.
FlashScan devices can operate in either FlashScan or, for retrofit applications, CLIP mode. Each
LCM-320 or LEM-320 running a FlashScan SLC can support up to 159 detectors and 159 modules.
CLIP loops are limited to 99 detectors and 99 modules. These and other capacity restrictions for
CLIP mode loops are discussed in Section 3.12 “Wiring a Signalling Line Circuit (SLC)”. Refer to
the SLC Wiring Manual for wiring requirements and specific details.
CAUTION:
DO NOT PROGRAM MORE THAN 99 ADDRESSES ON A CLIP-MODE SLC LOOP, BECAUSE
THIS WILL SLOW THE SYSTEM DOWN AND COMPROMISE THE RESPONSE TIME OF THE
PANEL TO DISPLAY OFF-NORMAL EVENTS.
3.5.2 Setting SLC Loop Number
Assign a unique SLC loop number to the loop control module by setting SW1 on the module to 1,
3, 5, 7, or 9. The loop expander module which is mounted behind this loop control module will be
assigned the next-higher even number. For example, if the LCM-320 is set to loop number 5, the
LEM-320 mounted to it will be set to loop number 6.
3.5.3 Installing a Multi-layer Module into the Chassis
Follow the instructions illustrated in Figures 3.4 through 3.7 to install a pair of loo p
control/expander modules.
1.Angle the module into the chassis so that the upper end of the rear board (or boards) fits into
the top slot.
2.Bring the module back down so that the lower board edges slip into the bottom slots.
3.Secure the module to the chassis with the two module screws. Tighten securely.
Connecting the Loop Control and Expander ModulesInstallation
SW1 Set to assign a unique
SLC loop number
J3 Data Out to
next LCM-320
J1 Data In from control panel
or from previous LCM-320
Ground Fault LEDs:
D32 Loop Expander
Module Ground Fault
D28 Loop Control Module
Ground Fault
J2 LEM-320 Connection
TB1 SLC
Loop
Connection
LCM-320
Connection
LCM-320LEM-320
Note: Do not cut any jumpers on the LCM-320 or LEM-320.
TB1 SLC Loop
Connection
LCM-320.wmf
LEM-320.wmf
Figure 3.4 LCM-320 and LEM-320 Diagram
JP2 See note.
Stand-off
locations
JP1 See note.
J2
SLC
B+ A+ B- A-
TB1
J1
J1
Figure 3.5 Connecting Loop Control Modules with Loop Expander Modules
Loop
Expander
Module
Loop
Control
Module
J1
J2
Loop
Expander
Module
Loop
Control
Module
The long-pin end plugs
directly into the back of
the Loop Control
Module board.
The short-pin end
plugs directly into
the top of the
Loop Expander
Module plug.
Stand-off
locations
J2 on LCM-320
“LEM-320 Data”
Loop Expander Module mounted
behind Loop Control Module
LEM-LCM.cdr
!
CAUTION:
IF THE STACKER-CONNECTOR
IS INSTALLED UPSIDE-DOWN,
THE SHORT-PIN END OF THE
PLUG CAN FAIL TO MAKE A
SECURE CONNECTION WHEN
PLUGGED THROUGH THE LOOP
CONTROL MODULE.
!
WARNING: RISK
EQUIPMENT
DAMAGE.
USE SPECIFIED
STAND-OFF
MOUNTING
LOCATIONS ONLY.
SEE FIGURES 3.4
AND 3.5. DO NOT
USE CORNER
HOLES FOR
INSTALLATION
PURPOSES.
InstallationConnecting the Loop Control and Expander Modules
Angle tab on loop control module
into slot on CHS-4L
Use a slimline screwdriver (3/32”) to
fasten down LEM-320 through the
hole in the LCM-320 board.
CHS-4L-LEM-LCM.cdr
Figure 3.6 Inserting Pair of Loop Control and Expander Modules into CHS-4L
For mounting
in CHS-3L,
see Figure 3.1
Figure 3.7 Connecting Multiple Pairs of Loop Control and Expander Modules
J22 on PSU
J1 on LCM-320
“Data in”
J3 on LCM-320
“Data out”
3030LCMchainrv2.wmf
Figure 3.7 Connecting Multiple Pairs of Loop Cont rol and Expander Modules
NOTE:
The red stripe on the ribbon cable indicates position 1. Position 1 of
the ribbon cable should line up with position 1 on J7 of the CPU
and J1 and J3 of the LCM-320.
WARNING: INSTALL THE
RIBBON CABLE AS SHOWN.
DO NOT FORCE OR MODIFY
THE CABLE TO FIT ANY
OTHER WAY. EQUIPMENT
DAMAGE CAN RESULT
FROM INCORRECT
ALIGNMENT.
!
The red stripe on the ribbon cable
is indicated by the dark line
NOTE: Depending on system components, clearance may be tight. Do not force modules! Move
the assembly around gently until you find the angle where components and mounting studs pass
each other without scraping together.
Figure 3.8 SLC Loop Connections on Loop-Control and Loop-Expander Modules
FormCRelays.jpg
Figure 3.9 Form-C Relay Connections
TB4 TB3 TB2 TB1
!
3.6 Form-C Relays on the CPU
The panel provides a set of Form-C relays. These are rated for 1 A at 30 V DC (resistive):
•Alarm - TB4
•Fault - TB3
•Supervisory - TB2
•Alarm - TB1
NOTE: Form-C Relays may energise at power up and should not be used for Alarm Signalling
Equipment. See the A.R.E. Interface Board Installation Sheet for alternate connections for this
purpose.
3.7 Installing the SGD Interface Board
The SGD assembly is used to transmit alarms and faults from the fire panel to the fire brigade.
CAUTION:
POWER DOWN THE FIRE PANEL BEFORE ADDING OR REMOVING THE SGD.
1.Affix two 3/4” 4-40 stand-offs to an empty slot on the CHS chassis.
2.Insert the tab at the bottom of the SGD assembly into the corresponding slot along the bottom
of the CHS chassis, and slide the assembly into place.
InstallationInstalling a Replacement Zone Mimic (ACM-ZM)
Figure 3.10 Installing the SGD Interface Board
!
Figure 3.11 Setting the ACM-ZM address wheels
3.Secure the SGD assembly to the stand-offs using two 4-40 screws.
4.Connect the SGD assembly to the fire panel as specified in the SGD Schematic in Appendix C.
NOTE: The SGD Interface will need to be programmed into the panel to be operational. Consult
the AFP-3030 Programming Manual for details.
3.8 Installing a Replacement Zone Mimic (ACM-ZM)
The Zone Mimic is a device that can be fitted away from a fire panel, permitting an operator to see
the status of the available zones when the operator is working away from the panel.
CAUTION:
POWER DOWN THE FIRE PANEL BEFORE ADDING OR REMOVING THE ACM-ZM.
1.Unscrew and remove the existing ACM-ZM from the panel.
2.Set the address of the replacement card using the address wheels on the ACM-ZM.
3.Connect the replacement ACM-ZM to the fire panel as per the relevant drawing in
Appendix C, “Schematics”, on page 46.
Installing a Replacement Zone Mimic (ACM-ZM)Installation
Figure 3.12 ACM-ZM termination jumper settings
Figure 3.13 Mounting the ACM-ZM
4.If the ACM-ZM is the last device on the line, set the Comms EOL Terminator jumper to the
ON position; otherwise, leave the Comms EOL Terminator jumper in the OFF position.
5.Secure the ACM-ZM to the spacers on the NPS mounting bracket using two (2) M3 screws, as
shown in Figure 3.13. Ensure that the ACM-ZM is mounted with the Comms/Power header at
top right.
3.8.1 Installing a Zone Mimic Expansion Card (AEM-ZM)
The Zone Mimic Expansion card increases the number of feedback LEDs on the ACM-ZM. The
additional LEDs can be programmed to represent the active state of any zones or outputs connected
to the panel.
1.Screw the AEM-ZM to the vacant threaded spacers beneath the ACM-ZM card on the NPS
Mounting Bracket, as shown in Figure 3.14.
2.Connect the replacement ACM-ZM to the fire panel as per the relevant drawing in
Appendix C, “Schematics”, on page 46.
Figure 3.15 Bulgin switches and nuts, as viewed from inside the outer door
3.9 Installing Replacement Bulgin Switches
The Bulgin switches enable the evacuation and silent alarm functions of the panel to be operated
more securely than with push button inputs, via the use of Bulgin switch keys. The fire brigade and
service technicians are the only user groups that have access to the Bulgin switch keys.
CAUTION:
REMOVE ALL POWER SOURCES TO EQUIPMENT BEFORE CONNECTING THE BULGIN
SWITCHES. LEAVE THE EXTERNAL, MAIN POWER BREAKER OFF UNTIL INSTALLATION OF
THE BULGIN SWITCHES IS COMPLETE.
NOTE: The Bulgin switches require a Zone Mimic Card to be fitted before the switches can
operate successfully.
1.Open the outer door of the cabinet.
2.Unscrew the nut on the outside of the outer door, and the hex nut on the inside of the outer
door, to remove the Bulgin switches.
3.Remove the wires running from the Bulgin switches to the ACM-ZM.
4.Pass the threaded shafts of the replacement Bulgin switches through the Bulgin switch holes in
the outer door, and secure with the provided nuts.
5.Wire the replacement Bulgin switches to the ACM-ZM. Bulgin switch wiring details can be
found in the ACM-ZM wiring diagram in Appendix C, “Schematics”.
3.10 Connecting Power Sources and Outputs
WARNING:
REMOVE ALL POWER SOURCES TO EQUIPMENT WHILE CONNECTING ELECTRICAL
COMPONENTS. LEAVE THE EXTERNAL, MAIN POWER BREAKER OFF UNTIL INSTALLATION
OF THE ENTIRE SYSTEM IS COMPLETE.
WARNING:
SEVERAL SOURCES OF POWER CAN BE CONNECTED TO THE CONTROL PANEL. BEFORE
SERVICING THE CONTROL PANEL, DISCONNECT ALL SOURCES OF INPUT POWER
INCLUDING THE BATTERY. WHILE ENERGISED, THE CONTROL PANEL AND ASSOCIATED
EQUIPMENT CAN BE DAMAGED BY REMOVING AND/OR INSERTING CARDS, MODULES, OR
INTERCONNECTING CABLES.
3.10.1 Overview
Complete all mounting procedures and check all wiring before applying power. Electrical
connections include the following:
•Primary power source. +24 V DC, delivered through the NPS main power supply. For
cabinet placement information see Appendix B.6 “Laying Out Equipment in Cabinet and
Chassis” and the NPS Installation Sheet.
•Secondary power source. +24 V DC from batteries, installed in the control panel (or in an
optional battery cabinet). Secondary (battery) power is required to support the system during
loss of primary power.
•Exte rnal power sources. +24 V DC auxiliary power supplies.
•Accessory power for peripheral devices. The NPS provides +24 V DC power to devices
within the same enclosure as the CPU. If those devices have outputs, the outputs must be
power-limited. Power rating is limited by the NPS primary power source, which is +24 V DC
and 5.6 Amps (NPS-5CHS) or 11.7 Amps (NPS-11CHS) max.
NOTE: The CPU ships with an insulator to prevents its lithium battery from discharging. To
preserve the battery, this insulator should be left in place as long as possible before applying AC
power. Some installers may find it convenient to remove the insulator before mounting all
equipment.
NOTE: If using multiple power supplies with one set of batteries, refer to main power supply
documentation for connection requirements.
Figure 3.18 Connecting a Secondary CPU to the Main CPU within the same cabinet
NOTE: The Remote/Secondary CPU must be programmed with the Main PS Node number of
the CPU from which it is drawing power. This node number must be separate from its own node
number. Refer to the ‘SUPERVISION’ section of the AFP-3030 Programming Manual for more
information.
3.10.3 Checking AC Power
Power up the fire panel by switching on the PSU switch. The device will be on when the PSU
switch is illuminated (red).
Table 3.2 contains a checklist for checking the system with AC power applied to the main power
supply:
CAUTION:
WHILE CHECKING AC POWER, MAKE SURE BATTERIES ARE NOT CONNECTED.
ComponentStatus
CPU/PSUThe green Operating indicator will come on when power is
coming from the main power supply.
Main power
supply
Each auxiliary
power supply
The green Operating indicator will come on when AC is supplied.
Refer to the panel’s LCD display for any auxiliary power supply
issues.
Table 3.2 AC Power Checklist
3.10.4 Auxiliary Power Supply Connections
If an optional auxiliary power supply is installed in the cabinet, connect it at this time. Follow the
connection procedures specified by your auxiliary power supply.
3.11 Installing Printers
This section contains information on connecting a printer to the CPU and for setting the printer
options. The basic steps are as follows:
1.Make custom cable & connect it from printer to EIA-232 terminal on the CPU.
2.Connect printer’s power supply.
3.Configure printer settings as described in printer documentation.
Overview: PRN Printer
The PRN provides a printed record (80 columns on standard 9" x 11"
tractor-feed paper) of all system events (alarm, trouble) and status
changes within the system. The control panel can be configured to
time-stamp the printout with the current time-of-day and date for each
event. The printer can be located up to 15 metres from the control
panel. Installation and configuration instructions follow.
3.11.1 Printer Installation Sequence
1.Fabricate a custom cable to connect a printer to the system. Length of the cable will vary with
each installation, but should not exceed a maximum length of 15 metres. Printer must be
installed in the same room as panel. Using overall foil/braided-shield twisted-pair cable,
properly connect one end to the DB-25 Connector (provided) using the wiring specifications
shown in Figure 3.20.
NOTE: Alternative wiring specifications are also shown in Figure 3.20 for a printer with a 9-pin
connector. Refer to printer manual for detailed connection information.
2.Tighten clamp on connector to secure cable. Connect the four open leads of the custom cable to
the TB5 terminal block on the CPU as shown in Figure 3.20.
3.If installing a PRN series printer, plug it into your AC power source. Note: PRN printers
require a 240 V AC, 50 Hz primary power source. If required for the fire alarm system
configuration (for example, a Proprietary Fire Alarm System), a remote printer requires a
secondary power source (battery backup). Because a secondary power source is not provided,
use a separate Uninterruptible Power Supply (UPS).
4.Plug the DB-25 connector end of the custom cable into the EIA-232 port of your printer.
Tighten securely.
5.Configure the printer as described in Section 3.11.2 “Configuring the Printer”.
ENQ/STX
CG-TABGraphic
Character SetStandard
CountryE-USA ASCII
Select ZeroON
Auto-CROFF
Auto-LFOFF
OptionSetting
Menu LockON
LanguageEnglish
Paper
Single
Form Adjust
Trac 1
Form Adjust
Trac 2
Form Adjust
Auto Sheet Feeder
Form Adjust
12/72
12/72
12/72
12/72
Auto TearOFF
F-EjectOFF
Form Length
Trac 1
Lines
Standard
Trac 2
Lines
Standard
66
10.5”
66
10.5”
BarcodeOff
BarmodeUnsecured
Table 3.3 PRN Setup Options
3.11.2 Configuring the Printer
Refer to the documentation supplied with the printer for configuration instructions.
PRN Printer Settings
Set the printer options (under the menu area) according to the settings listed in Table 3.3.
3.12 Wiring a Signalling Line Circuit (SLC)
3.12.1 SLC Overview
Communication between the CPU and intelligent and addressable initiating, monitor, and control
devices takes place through a Signalling Line Circuit (SLC). This manual provides requirements
and performance details specific to this control panel; for installation information and general
information, refer to the SLC Wiring Manual.
For electrical specifications, see Appendix A.2 “SLC Loops”. For additional notes on SLC
resistance values, see Section 4.1 “Operational Checks”.
3.12.2 SLC Capacity
The AFP-3030 supports up to five pairs of LCM-320 and LEM-320 modules, providing from one
to ten SLC loops. Loop capacity depends on operating mode:
•Flash Scan: 01-159 intelligent detectors, 01-159 monitor and control modules
•CLIP: 01-99 intelligent detectors, 01-99 monitor and control modules
FlashScan devices can operate in either FlashScan or CLIP mode. Older models of CLIP devices
only support addresses up to address 99. CLIP loops are limited to 99 detectors and 99 modules.
NOTE: Response times for CLIP loops may vary. CLIP loops must be tested to assure that
actuation of notification appliances occurs within 15 seconds after activation of an initiating
device.
The following configuration guidelines may be used to improve the response times of CLIP loops:
1.All manual pull stations must be assigned addresses from 1-20.
Wiring a Signalling Line Circuit (SLC)Installation
TB1
B+ A+ B- A-
TB1
B+ A+ B- A-
T-Tapping is not allowed
on a four-wire SLC.
Channel B (output loop)
Channel A (loop return)
Open Wiring (Style 4)
SLC Loops
Closed Wiring (Style 6/7)
SLC Loops
SLC Loop #2 Connections
on Loop Expander Module
SLC Loop Connections
on Loop Control Modules
SLC loop
connections are
the same for Loop
Expander and
Control Modules
Channel BChannel
A
3030-slcloops.cdr
Figure 3.21 SLC Loop Connections and Wiring
2.Loops must be programmed for Rapid Poll (refer to the programming manual for specific
instructions).
3.Modules on a fully loaded loop must adhere to a ratio of two monitor modules to one control
module.
3.12.3 SLC Installation
Install loop control and expander modules as described in Section 3.5 “Connect ing the Lo op
Control and Expander Modules”. Note that the unique SLC loop number assigned to a module does
not need to match the module’s location in the cabinet. For details on designing, installing and
configuring SLC loops, see the SLC Wiring Manual.
InstallationConnecting a FAAST Intelligent Aspiration Detector
FAASTTermBlk.wmf
To Next SLC Device +
From FACP or Previous De vice +
To Next SLC Device -
From FACP or Previous Device -
Figure 3.22 FSA-8000A Connection to the FACP
To Next Device +
From Power Supply or Previous Device +
To Next Device -
SLC
Connection
24V External
Power
From Power Supply or Previous Device -
3.13 Connecting a FAAST Intelligent Aspiration Detector
The FAAST Intelligent Aspiration detector may be used to provide early warning fire protection
using aspiration sensing technology.
FAAST Wiring:
Figure 3.22 shows the wiring for
the FAA ST detect or to the AFP-
3030.
For additional installation
information for the FAAST
detector, refer the FSA-8000 FAAST
Installation and Maintenance
Instruction document (I56-3903)
and the SLC Wiring Manual
(51253).
3.14 Connecting a PC for Programming
A PC running the VeriFire® Tools programming utility can upload and download the operating
program of the control panel when attached to J15 USB Connection, J1 Network/Service
Connection (NUP) or to the second Network/Service connection on an attached wire or fibre
version of the NCM or HS-NCM. Refer to the VeriFire® Tools CD for instructions.
Between formal periodic testing and servicing intervals, the following operation checks should be
performed monthly.
Check that the green SYSTEM NORMAL LED lights.
Check that all status LEDs are off.
Press and hold the LAMP TEST key. Verify that all LEDs and all LCD display segments work.
Before proceeding: a) notify the fire department and the central alarm receiving station if
transmitting alarm conditions; b) notify facility personnel of th e test so that alarm sounding
devices are disregarded during the test period; and c) when necessary, disable activation of
alarm notification appliances and speakers to prevent their sounding.
Activate an Initiating Device Circuit using an alarm initiating device or an addressable
initiating device on the SLC and check that all programmed active notification appliances
function. Reset the alarm initiating device, the control panel, and any other associated
equipment. In voice alarm applications, confirm that the proper tone(s) and/or messages sound
during alarm conditions. Select the paging function and confirm that the message can be heard
in the affected fire zones. Repeat the above step with each Initiating Device Circuit and each
addressable device.
NOTE: SLC Resistance Valu es:
The total DC resistance of the SLC pair cannot exceed 50 ohms.
For instructions on how to measure the total DC resistance of a populated SLC pair, refer to the
“Measuring Loop Resistance” section of the SLC Wiring Manual (P/N 51253).
The minimum DC resistance between conductors of an unpopulated SLC pair cannot be less than
1 K ohms.
Measure DC resistance on an unpopulated loop as shown in Figure 4.1 on page 31.
Zero Ohms to ground will cause a ground fault.
On systems equipped with a firefighter’s telephone circuit, make a call from a telephone circuit
and confirm a ring indication. Answer the call and confirm communication with the incoming
caller. End the call and repeat for each telephone circuit in the system.
Remove AC power, activate an Initiating Device Circuit through an alarm initiating device or
an addressable initiating device on the SLC, and check that programmed active notification
appliances sound, and alarm indicators illuminate. Measure the battery voltage with
notification appliances active. Replace any battery with a terminal voltage less than 21.6 V DC
and reapply AC Power.
NOTE: The battery test requires fully charged batteri es. If batteries are new or discharged due
to a recent power outage, allow the batteries to charge for 24 hours before testing.
Return all circuits to their pretest condition.
Check that all status LEDs are off and the green POWER LED is on.
Step 1. Disconnect the SLC channel B (Out) and SLC channel A (Return) at the control panel.
Step 2. Measure and record the resistance at SLC Out.
Step 3. Measure and record the resistance at SLC Return.
The minimum resistance is the lesser of two and three.
Figure 4.1 Measuring DC Resistance on an Unpopulated SLC Loop
!
!
!
Notify fire, central station and/or building personnel when you finish testing the system.
4.2 Battery Checks and Maintenance
CAUTION:
The maximum current rating of the batteries is 15 A. The battery connection is fused. If the fuse
needs to be replaced, it must be replaced with a 20A blade fuse.
Maintenance-free sealed lead-acid batteries used in the system do not require the addition of water
or electrolyte. These batteries are charged and maintained in a fully charged state by the main
power supply's float charger during normal system operation. A discharged battery typically
reaches the float voltage of 27.3 V DC within 24 hours.
Follow the manufacturer recommendations for battery replacement intervals. Minimal replacement
battery capacity appears on the control panel marking label. Immediately replace a leaking or
damaged battery. You can get replacement batteries from the manufacturer.
WARNING: BATTERIES CONTAIN SULFURIC ACID,
WHICH CAN CAUSE SEVERE BURNS TO THE SKIN AND EYES AND DAMAGE TO FABRICS.
•If a battery leaks and contact is made with the Sulfuric Acid, immediately flush skin and/or
eyes with water for at least 15 minutes. Water and household baking soda provides a good
neutralizing solution for Sulfuric Acid.
•If Sulfuric Acid gets into eyes, seek immediate medical attention.
•Ensure proper handling of the battery to prevent short circuits.
•Take care to avoid accidental shorting of the leads from uninsulated work benches, tools,
bracelets, rings, and coins.
CAUTION:
SHORTING THE BATTERY LEADS CAN DAMAGE THE BATTERY, EQUIPMENT, AND COULD
CAUSE INJURY TO PERSONNEL.
CAUTION:
RISK OF EXPLOSION IF BATTERY IS REPLACED WITH INCORRECT TYPE.
DISPOSE OF BATTERY ACCORDING TO MANUFACTURER’S INSTRUCTIONS.
Pressing the PSI STATUS button will display the status of the local power supply. This information includes the supply voltage, battery voltage, PSI output voltage, which supply source the panel
is running from (PSI or battery), whether a battery test is in progress and whether or not the battery
test and charger have been disabled.
DC Power The control panel requires connection to NPS-5CHS or NPS-11CHS, which is a
27.3 V DC regulated, power-limited power supply, that can supply 0.1 amps continuous for the
CPU without the display (0.3 amps for CPU with the display).
A.2 SLC Loops
Listed below are specifications for a Signalling Line Circuit loop. Refer to the SLC Wiring Manual
for more detailed specifications and specific device listings:
ItemValue
Voltage24 V DC nominal, 27.6 V DC maximum
Maximum lengthThe maximum wiring distance of an SLC using 12 AWG (3.25 mm
Maximum current 130 mA: LCM-320
Maximum resistance 50 ohms (supervised and power-limited). For additional notes on SLC
2
) twistedpair wire is 3810 m.
Note: Refer to Appendix A.5 “Wire Requirements” for limitations.
100 mA: LEM-320
400 mA max*: Single SLC loop; for battery calculations use 200 mA
*Max short circuit; circuit will shut down until short circuit condition is corrected.
resistance values, see Section 4.1 “Operational Checks”.
A.3 Notification Appliance Circuits
The power supply provides Notification Appliance Circuits. The maximum current rating for each
NAC output is 1.0 A. Refer to the Device Compatibility Document for compatible devices and
notification appliances.
A.4 Networks
Network CardCommunication Para meters
NCM-WSupports twisted-pair wire medium, data is regenerated at each node. 312.5K
NCM-FSupports fibre-optic medium (62.5/125 or 50/125 micrometres – multimode).
Single mode available. 312.5K baud transmission rate. Data is regenerated at
each node.
mode fibre optic (MF), single-mode fibre optic (SF), wire (W), or a combination
of W/MF/SF communications path.
A.5 Wire Requirements
Each type of circuit within the Fire Alarm Control System requires use of a specific wire type to
ensure proper circuit operation. The wire gauge of a particular circuit depends on the length of that
circuit and the current traveling through it. Use the table below to determine the specific wiring
requirements for each circuit.
Use twisted-pair shielded wire for any non-SLC-loop wiring entering or exiting the cabinet that is
not enclosed in conduit. Use twisted-pair unshielded wiring for SLC-loop wiring.
NOTE: If running an SLC in conduit with Notification Appliance Circuits, you can reduce
problems by exclusively using electronic sounders (such as the MA/SS-24 Series) instead of
more electronically noisy notification appliances (such as electromechanical bells or horns).
Power Supply CalculationsElectrical Specifications
Circuit TypeCircuit FunctionWire Requirements
SLC
(power limited)
EIA-485 ACS
Connection
(power limited)
EIA-485 RDP
Connection
(power limited)
EIA-232
(power limited)
IDC
Initiating Device
Circuit
NAC
Notification
Appliance
Circuit
Releasing
Module
Connects to
intelligent and
addressable
modules.
orTwisted-shielded pair.
orUntwisted, unshielded wire, in conduit or
Connects to ACS
devices such as
annunciators and
UDACT/UDACT-2
Connects to RDP
devices
Connects to Printers
or PC.
FMM-1, FMM-101
(power limited)
FCM-1 (power
limited)
FCM-1-REL
Twisted-unshielded pair, 12 to 18 AWG
(3.25 to 0.75mm
per length of Closed (Style 6 & 7) loops.
50 ohms per branch maximum for Open
(Style 4) loops.
NOTE:
• Shields must be isolated from ground.
• Shields should be broken at each
device.
outside of conduit.
NOTE: Maximum total capacitance for all
SLC wiring (both between conductors and
from any conductor to ground) should not
exceed 0.5 microfarads
Twisted-shielded pair with a characteristic
impedance of 120 ohms. 18 AWG
(0.75mm
Twisted-shielded pair with a characteristic
impedance of 120 ohms. 18 AWG
(0.75mm
Twisted-shielded pair . 18 A WG (0.75mm
minimum.
12-18 AWG
Maximum circuit resistance is 20 ohms.
12-18 AWG. MPS-24A: At alarm current
level, no more than a 1.2 V drop at the
end of the circuit, or sized to provide the
minimum rated operating voltage of the
appliances used.
12-18 AWG. 5 ohms maximum per circuit
for class A or B, or sized to provide the
minimum rated operating voltage of the
appliances used.
2
2
) minimum.
2
) minimum.
). 50 ohms, maximum
Distance
(feet/meters)
3,810 m
2,896 m
1,829 m
1,128 m
1524 m
1,128 m
1524 m
1,128 m
1829 m (max)16 AWG (1.31mm
1219 m (max)16 AWG (1.31 mm
2
)
15.24 m
without modem
To meet 1.2 V drop, or
sized to provide the
minimum rated operating
voltage of the appliances
used.
To meet 5 ohms maximum
circuit resistance, or sized
to provide the minimum
rated operating voltage of
the appliances used.
Typical Wire Type
12 AWG (3.31 mm
14 AWG (2.08 mm
16 AWG (1.31 mm
18 AWG (0.82 mm
12 to 16 AWG (3.31
2
mm
to 1.31 mm2)
18 AWG (0.82 mm
12 to 16 AWG (3.31
2
mm
to 1.31 mm2)
18 AWG (0.82 mm
16 AWG (1.31 mm2)
12 to 18 AWG
(3.31 to 0.82 mm
12 to 18 AWG
(3.31 to 0.82 mm
12 to 18 AWG
(3.31 to 0.82 mm
2
)
2
)
2
)
2
)
2
)
2
)
2
)
2
)
2
)
2
)
2
)
24 VDC Power
Runs (powerlimited)
To TM-4 Transmitter,
Annunciator and
FCM-1 modules
12-18 AWG. Size wire so that no more
than 1.2 V drop across wire run from
supply source to end of any branch.
To meet 1.2 volt drop12 to 18 AWG
(3.31 to 0.82 mm
Table A.1 Wire Requirements
Relay Output circuits are “Common” 30 V DC, 2 A (see Section 3.6 “Form-C Relays on the
CPU”).
A.6 Power Supply Calculations
Calculations must be done to determine standby and alarm DC current loads. Ampere-hour
requirements must be calculated as well to determine battery size.
The NPS power supply provides filtered 24 V DC (nominal) power that may be used for operating
external devices. The power for operating external devices is limited. Use Table A.2 to determine if
external loading is within the capabilities of the power supply.
A.6.1 Calculating the System Current Draws
The NPS must be able to power all devices in the panel in the quiescent condition as well as charge
the batteries. The NPS does not need to provide enough current to run the panel when in the alarm
condition, if the panel needs more current than the NPS can supply during alarm, the extra current
will be drawn from the batteries. Use column 1 in Table A.2 to calculate the Quiescent Load on the
power supply . The alarm or quiescent current must not exceed 15A regardless of which NPS power
supply is connected. Use column 2 in Table A.2 to calculate the additional current needed during
alarm conditions.
A.6.2 How to Use the Calculating Tables
In the following section:
The term “secondary” refers to the system’s backup batteries
The term “primary” is reserved for the NPS’s primary source of power, 240 VAC 50 Hz
The term “standby” refers to the output current required when no fire alarm is present.
The term “alarm” refers to the output current required when a fire alarm is present.
The Primary Quiescent Current and Fire Alarm Current columns are DC current calculations. Use
these calculations to confirm that the NPS can provide enough current to support the system during
Primary Quiescent and Fire Alarm conditions.
Quantities List the number of devices powered by the MAIN 24 V Main Output on the NPS and
any auxiliary 24 V Outputs. Use these quantities to calculate total current draw of each set of
devices in calculation columns 1, 2, and 3.
Calculation Column 1 (Primary, Quiescent Current in amps) Add the contents of
Column 1 to get the current drawn from the NPS during a quiescent condition, with AC power
applied.
Calculation Column 2 (Primary, Fire Alarm Current in amps) Column 2 lets the system
designer determine the current load that the NPS must support during a fire alarm.
Typically, a system should contain capacity to activate all output circuits and relays, and support
fire alarms on no less than 10% of Initiating Device Circuits.
If the system provides power for Notification Appliance Circuits, refer to the Device Compatibility
Document for 24 V DC notification appliances.
NOTE: A current calculation tool can also be found in the Download Centre on the Notifier
website: http://www.notifier.com.au/
Power Supply CalculationsElectrical Specifications
A.6.3 Calculation for Main Supply Current
Calculation Column 1
Quantities
AFP-3030/NCA-2 with display
AFP-3030/NCA-2 without display
LCM-320 (refer to Doc. 51330,52544)
LEM-320 (refer to Doc. 51330,52544)
SLC Loop*
NCM-W, NCM-F
HS-NCM-W/MF/MFSF/WMF/WSF
DVC components (Refer to DVC manual)
DVC-RPU components (Refer to DVC-RPU
manual)
DA-30/DA-60/DA-120 (Refer to DOC-01-
004)
FSD-751RPL (Duct Detector)[ ]x [0.025]=x [0.087]=
FSA-8000/FSA-20000 (FAAST Detector)[ ]x [0.465]=x [0.493]=
ACM-24AT
ACM-48A
AEM-24AT
AEM-48A
Maximum number of LEDs illuminated on
these annunciators during quiescent
conditions:
SCS-8A (refer to Doc. 15712)[ ]x [ ]=x [ ]=
LCD2-80
ACM-8RA
LDM (refer to Doc. 15885)
ACM-ZM
AEM-ZM8
ARM (Refer to DOC-01-005)
ARE Interface
FZM-1, MMX-2[ ]
Four-Wire Smoke Detectors
Compatible Devices not listed above
Sub-totals Primary,
Battery[ ]
†
[ ]
[ ]
[ ]
[ ]
[ ]
[ ]
[ ]
[ ]
[ ]
[ ]
[ ]x [ ]=x [ ]=
[ ]
[ ]
[ ]
[ ]
[ ]x [0.0054]=
[ ]
[ ]
[ ]
[ ]
[ ]
[ ]
[ ]
[ ]
[ ]
[ ]
[ ]
Primary, Quiescent
Current (amps)
x [0.205]=
x [0.140]=
x [0.130]=
x [0.100]=
x [0.200]=x [0.200]=
x [0.110]=
x [0.400]=
x [ ]=
x [ ]=
x [ ]=x [ ]=
x [0.016]=
x [0.016]=
x [0.002]=
x [0.002]=
x [0.100]=
x [ 0.020]=
x [ ]=
x [0.020]=
x [0.005]=
x [ ]=
x [0.020]=
x [0.0094]=x [0.090]=
x [ ]=
x [ ]=
x [ ]=
x [ ]=
Quiescent:
x [AH‡] x [0.1]=
Calculation Column 2
Primary, Fire Alarm
Current (amps)
x [0.225]=
x [0.150]=
x [0.130]=
x [0.100]=
x [0.110]=
x [0.400]=
x [ ]=
x [ ]=
x [0.070]=
x [0.070]=
x [0.056]=
x [0.056]=
x [0.100]=
x [0.035]=
x [ ]=
x [0.025]=
x [0.025]=
x [ ]=
x [0.035]=
x [ ]=
x [ ]=
x [ ]=
x [ ]=
Primary,
alarm:
Sum each column for totalsPrimary,
Quiescent:
Primary,
alarm:
Table A.2 System Draw Current Calculations
* Value represents an SLC’s maximum current draw. Refer to device datasheets for individual current
draws. Total device current cannot exceed 200 mA.
† Refer to manual and/or Device Compatibility Document.
‡ V alue represents battery size in amp hours. Refer to Appendix A.7, “Calculating the Battery Requirements”, on page 38
A.6.4 Calculating the Maximum Secondary Power Quiescent
Current Draw
Use the table below to determine the maximum current requirements of the secondary power
source during quiescent conditions. The result obtained is the amount of current that the batteries
must be able to supply to the fire alarm system. Use the result in Table A.3 to determine the size of
the batteries needed for the fire alarm system.
Results taken from the table below assume that, while in a quiescent condition, batteries must feed
the NPS (and any additional supplies) with the maximum rated power each supply can provide.
Alarm
DeviceQuantity
Current
(in amps)
Alarm Current, from Table A.2, col 3 =
Additional Load [ ] X =
Sum Column for Secondary Quiescent Load =
Total
Current/Type
Table A.3 Maximum Secondary Power Quiescent Current Draw
A.6.5 Calculating the Maximum Secondary Power Fire Alarm
Current Draw
Use the table below to determine the maximum current requirements of the secondary power
source during fire alarm conditions. The result obtained is the amount of current that the batteries
must be able to supply to the fire alarm system. Use the result in Table A.4 to determine the size of
the batteries needed for the fire alarm system.
Results taken from the table below assume that, while in a fire alarm condition, batteries must feed
the NPS (and any additional supplies) with the maximum rated power each supply can provide.
Alarm
DeviceQuantity
Current
(in amps)
Alarm Current, from Table A.2, col 2 =
Additional Load [ ] X =
Sum Column for Secondary Fire Alarm Load =
Total
Current/Type
Table A.4 Maximum Secondary Power Fire Alarm Current Draw
Calculating the Battery RequirementsElectrical Specifications
A.7 Calculating the Battery Requirements
A.7.1 Battery Power Equations
For a remotely connected system:
Ah = (I
x 24) + I
Q
A
For a non-remotely-connected system:
Ah = (I
x 72) + I
Q
A
Where:
=The minimum rated battery capacity
Ah
=the non-alarm current from that battery (charger off) in amps
I
Q
=the alarm current drawn from the b attery (charger off) in amps
I
A
NOTE: A times 2 de-rating factor has been applied to the Alarm Capacity to compensate for
battery conversion inefficiencies.
A.7.2 Recommended Standby Battery Sizes
When selecting and installing batteries, ensure that there is enough available current to charge the
batteries while in quiescent mode. A list of available batteries and the minimum charging current
required is shown in Table A.5, “Recommended Battery Specifications”.
Laying Out Equipment in Cabinet and ChassisCabinet and Mounting Information
!
Figure B.6 Chassis CHS-3L
1
2
3
Three positions
on chassis
CHS-3L
CHS-3L-NEW.wmf
Figure B.7 Chassis CHS-4L
Chs-4L.jpg
1
2
3
Four positions
on chassis
CHS-3L
4
B.6 Laying Out Equipment in Cabinet and Chassis
The AFP-3030 allows for flexible system design. It mounts in a CAB650 or CAB900 backbox
using the CHS-3L or in a U-Series backbox using the CHS-4L. Follow these gui deli nes when
deciding where to locate equipment in the backbox. The number of layers that can be mounted in
each position of the chassis depends on the module size.
CAUTION:
IT IS CRITICAL THAT ALL MOUNTING HOLES OF THE FIRE ALARM CONTROL PANEL ARE
SECURED WITH A SCREW OR STAND-OFF TO INSURE CONTINUITY OF EARTH GROUND.
CHS-3L
The CPU and power supply assembly
mount in the top row of the CAB650
or CAB900 cabinet. The AFP-3030
keypad is door mounted in front of the
CPU and power supply assembly . The
CHS-3L Chassis is mounted below the
CPU and power supply assembly.
In the CAB900, a second CHS-3L
Chassis can be installed below the first
for additional equipment.
CHS-4L
The CPU and power supply
assembly mount in the top row of the
U-Series cabinet. The AFP-3030
keypad is door mounted in front of
the CPU and power supply assembly.
The CHS-4L Chassis is mounted
below the CPU and power supply
assembly.
In the 28U and 40U cabinets,
additional CHS-4L Chassis can be
installed below the first for
additional equipment.