Disconnect electrical power when making any internal
adjustments or repairs. Installation and servicing
should be performed by qualified Simplex Representatives
CAUTION
POWERING REQUIREMENT
When removing power from this system, disconnect
batteries FIRST and AC power last. When connecting
power to this system, connect AC power FIRST and
batteries last.
W.-.-.-.l
It is recommended that this equrpment be tested at
CAUTION
Improper programming of this system can
result in improper system operation. Carefully
tes#t the system after programming is
completed.
WARNING
This equipment generates, uses, and can radiate radio
frequency energy ,Ind if not installed and used in
accordance with the instructions manual, may cause
interference to radio communications. It has been
tested and found to comply with the limits for a Class A
computing device pursuant to Subpart J of Part 15 of
FCC Rules, which are designed to provide reasonable
protection against such interference when operated in
a commercial environment. Operation of this
equipment in a residential area is likely to cause
interference in which case the user at his own expense
will be required to take whatever measures may be
required to correct the interference.
F. Relays ..............................................................................................................................................
E. Status Byte.. .....................................................................................................................................
F. Capacity ...........................................................................................................................................
H. Wiring ...............................................................................................................................................
14. Expansion Power Supply.. ..................................................................................................................
15. Meter .....................................................................................................................................................
16. Style B Suppression Module .............................................................................................................. 4-49
Control Module.. ...........................................................................................................................
Features ...........................................................................................................................................
Field Connections.. ...........................................................................................................................
C.
D. Switches.. .........................................................................................................................................
E. DIP Switch SW3 on the CPU Module.. .............................................................................................
F. Interconnection Diagram ..................................................................................................................
D. Jumpers.. ..........................................................................................................................................
E. Fuses.. ..............................................................................................................................................
Meter Module Placement ................................................................................................................. 4-48
A.
A. Mounting.. .........................................................................................................................................
B. Function.. ..........................................................................................................................................
4-39
4-39
4-39
4-39
4-39
4-41
4-42
4-43
4-43
4-43
4-43 ,
4-45
4-46
4-47
4-49
4-49
SECTION 5 - Adjustment Procedures
1. General..
2. Brown Out Alignment.
3. Battery Chargers
A. Lead Acid Battery Charging Adjustment (562-909 CPU Modules, Revs. A, B and C).
B. Lead Acid Battery Charging Adjustment (562-909 CPU Modules, Revs. D and Later).
K. 10 Amp Auxiliary Relay Module
L. Fan Control Module
M. Expansion Power Supply Chassis
N. Expansion Power Supply Regula.tor
2120
0.
P. Meter Module .............. ........................................................................................................................
The 4002 is a battery-backed, U.L. listed, power limited, electrically supervised fire alarm system that, depending on
its size, can operate up to six notification appliance (signal) circuits and monitor up to 32 zones of initiating device
circuits. In addition, a 4002 can automatically control equipment such as fire doors, smoke dampers, fans and elevators
during a fire condition.
The 4002 provides audible and visual indications during fire conditions. When a fire is detected, the system activates
one or more signal circuits and the control panel flashes the “ZONE ALARM” light (red LED) that represents the
location of the fire. These indications then remain until someone acknowledges the alarm by pressing, the “ALARM
SILENCE” push button and resets the system by pressing the “SYSTEM RESET” push button.
Acknowledging the alarm immediately silences the signals and causes the flashing “ZONE” LED to come on
steady.
Pressing the ‘SYSTEM RESET” pushbutton resets the system and causes the “ZONE” LED to go out.
The system has “Re-sound” capability. If, after silencing the signals, the system detects a fire condition in another
zone, that ZONE ALARM LED flashes, and the signals again operate.
The system also constantly checks for electrical troubles (power loss, battery problems, wiring faults, etc.). If a
trouble occurs, a buzzer (piezo) will sound and appropriate “TROUBLE” LED will illuminate (amber LED) to
indicate the type of trouble.
The “TROUBLE SILENCE” push button allows the piezo to be silenced immediately, but the trouble LED(s) remain
illuminated until the trouble condition has been corrected.
The 4002 system is field programmable to tailor functions such as selective signalling/control, cross zoning, presignal, pulsed outputs, etc. to meet customer, state and local requirements.
The user interface with the system consists of controls and indicators which are mounted in the control panel.
These controls and indicators are explained in the Operating and Installation Instructions publication.
The 4002 system comes in three different sizes, and is configured to meet customer requirements. Each 4002
system comes with a Central Processing Unit (CPU) module which is the heart of the system, and processes all
input and output functions. The CPU board provides all controls for operating and programming the fire alarm
system. Programming can be simple DIP switch selectable functions or more complex Expanded Simplex
Programming (ESP).
The following explains the differences between the three different size units:
.
2. Number 2 Size Unit
This is the basic panel and contains interfaces for eight monitor zones, two signal circuits, two auxiliary alarm relays,
city circuit, 4-wire detector power output, trouble output and inputs for remote acknowledge/system reset. The
external interfaces are described as follows:
A. Monitor Zones
The eight monitor zones are Style B zones, with an expansion connector that allows for the addition of a Style
D option. Each zone has the following characteristics:
a. Capable of supporting a maximum supervisory detector load of 3 mA.
b. Can mix contact type devices (pull stations, heat detectors) and current limited devices (2-wire smoke
detectors) on the same zone.
l-l
Page 10
c. Capable of differentiating between 2-wire smoke detectors (with 390 Ohm resistor in series with alarm
contact) and shorting devices (pull stations, heat detectors) for the alarm verification feature.
d. The maximum short circuit current of the zone is 80 mA at 32 VDC (typical is 60 mA).
e. Field wiring connections to each zone can be up to 5,000 ft. for Style B circuits, 2,500 ft. for Style D circuits,
or 50 ohms, whichever is reached first.
f. Will detect an earth ground on either the plus or minus zone connection.
g. Powered by the filtered supply and the voltage will vary between 20.4 and 32 VDC at the power supply.
h. Terminated by a 3.3K Ohm end-of-line (E.O.L.) resistor.
i. Provides a supervised active low output rated at 150 mA for connection to remote annunciators. This output
is not supervised during an alarm condition.
B. Special Monitor Zone Characteristics
In addition to the standard features of each zone, several zones have been designed to allow unique features.
These features are as follows:
Coded Input - Zone 1
This is a DIP switch selectable oplion (SWl-2) which allows Zone 1 to become a tracking input. The input
can be pulsing on/off and the input code is passed directly to the signal zones. Since the coded input pulses
can be short, the standard zone could filter the input signal out without detecting any change on the input.
To prevent this, a filter option is jumper selectable for Zone 1. Removing the jumper se$cts the shorter filter
circuit. Since the filter time is shorter, special wiring restrictions may be required for this input. This jumper
is JWll.
Tamper Switch - Zone 8
By setting DIP Switch SWl-4 OFF, Zone 8 can be used to monitor the off (normal) position of a sprinkler
gate valve. It can be connected to a normally-closed sprinkler tamper contact. The 4002 allows up to five
normally-closed contacts, and the circuit is supervised for opens and shorts. When a contact opens, the
following sequence occurs.
1. Zone 8 alarm LED flashes.
The Auxiliary trouble relay and piezo activates until silenced.
2.
3. Activating the “ALARM SILENCE” push button silences the trouble circuit.
4. Restoring the valve to the normal position extinguishes the zone LED.
NOTES
1. The 4002 can be reset while a supervisory circuit is still open (not normal). If the circuit is still open
when reset, the sequence will again start at step 1 above.
ESP must be provided if operation of an auxiliary alarm relay from Zone 8 is required.
2.
Waterflow - Zone 7
Zone 7 can be used to monitor the flow contact in a sprinkler system. This is a normally-open circuit that
becomes selected when DIP Switch SW1 -3 is in the off position. When this option is selected and the flow
contact is closed, the operation is as follows:
1. Zone 7 alarm LED flashes.
2. All signals sound and auxiliary relays energize as long as water continues flowing. Zone 7 alarm LED
also remains flashing until water stops flowing.
5. Pressing the Alarm Silence push button silences the general alarm and the piezo signals. Signal circuit
2 indicating appliances remain on.
6. When water stops flowing, flow contact opens, zone 7 alarm LED changes from flashing to on steady.
7. Pressing the “SYSTEM RESET” push button restores the city circuit, turns off signal circuit 2, and
returns zone 7’s alarm LED to normal (off).
Signal Zones
The CPU module provides two signal circuits which may have Style D or Style B outputs. If Style B
operation is desired, a 10K Ohm resistor is used to terminate the end of the signal circuits. For Style D
operation, the end of the signal circuits would be wired in the 4002 panel. The end-of-line resistor is integral
to the signal circuit in Style D configuration. Each signal circuit has the following characteristics:
1. Each signal circuit is rated at 2 Amps maximum.
2. Each circuit is fused at 3 Amps (F6 and F7 for Style B - F8 is also used for Style D).
3. Signal circuit voltage varies from 20.4 to 32 VDC.
4. Each signal output is supervised individually for wire-to-wire shorts and opens.
5. Each output contains standard transient protection.
Auxiliary Alarm Relays
The CPU module provides two auxiliary alarm relays which provide the following:
1. One dry, form “C” contact.
2. Each contact is rated at 2 Amps at 30 VDC and 0.5 Amps at 120 VAC.
3. Each output is fused (F4 and F5).
4-Wire Detector Power Output
The 4-wire detector output provides up to 2 Amps of filtered DC power for supplying 4-wire detector power.
This is a resettable output which removes the voltage for five seconds whenever the “SYSTEM RESET”
push button is pressed.
Trouble Outputs
Three separate trouble outputs are provided on the CPU module. These outputs are an open collector
output and a relay contact output.
1. The open collector output is rated at 150 mA. This is an active low output which tracks the system
trouble LED. This output is connected to the trouble annunciator.
2. The relay contact output is rated at 2 Amps. The output will activate on any trouble in the system, except
the city trouble. The contact is intended to be used for system remote station city connection to open
the city when any panel trouble occurs. When an alarm occurs, this relay will be turned off, allowing the
city circuit to indicate an alarm to the remote station. If city connect is not used, this relay can be used
as a general trouble input. This output is non-silenceable, and remains on unless an alarm occurs.
The “AUX 1 BYPASS” toggle switch is disabled when jumper JW12 is removed. The AUX 1 relay will
energize and track the piezo during trouble conditions. The system trouble LED will illuminate when a
trouble condition exists. The trouble silence pushbutton will silence signals connected to the AUX 1
relay output.
1-3
Page 12
i
City Circuit
This circuit can be configured for 24 VDC remote station (reversed polarity operation), local energy master
box, shunt master box, or a simple form “C” contact output. Pluggable jumpers are used to accomplish the
various configurations.
1. 24 VDC Remote Station
Under normal conditions, the panel passes a 24 VDC supervisory voltage to the remote station through
a 620 Ohm resistor. When an alarm occurs, this current is reversed - causing an alarm indication at
the remote station. When a panel related trouble occurs (excluding the city circuit trouble), the city loop
is opened by the trouble relay. This indicates a trouble to the remote station. The wires to the city circuit
in this configuration are supervised for opens and shorts to ground.
2. Local Energy Master Box
Like the remote station, under the normal conditions a 24 VDC supervisory current is passed through a
620 Ohm resistqr to a local energy master box. When an alarm occurs, the current is increased through
a 75 Ohm resistor (not reversed). This indicates an alarm at the local energy master box. This output is
supervised for opens and shorts to ground.
Shunt Master Box
This connection is a dry contact, norma.lly-closed, set of contacts. The shunt master box supplies the power
to the contacts, and senses an alarm when ,the contacts are open. This is an unsupervised circuit.
Form “C” Contact Output
This output provides the connection to the normally-open, normally-closed and common of the relay
contacts. This output is intended to be used for connection to digital alarm transmitters, radio master boxes
(wiring special resistor values external) and other unknown city connections. This is an unsupervised output.
Annunciator Outputs
The 4002 provides two separate and distinct outputs for annunciation. One being hardwired point
annunciation and the other being a serial connection. Each is described below.
1. Hardwired Annunciation
Each of the CPU’s eight monitor points provide a dedicated output for connecting to an annunciator. The
outputs can be supervised (selectable) for either a lamp load (120 mA) or an LED load (10 mA). The
outputs are open collector, sinking loutputs and are rated at a maximum of 150 mA.
2. Serial Annunciator Port
The serial annunciator port provides a 2-wire communication path for a number of devices. These
devices are Status Control Units (SCU), Remote Control Unit (RCU), 2120 Interface and the Fan Control
Module. These devices will be covered Later in this publication. The serial annunciator port specifications
are as follows:
A. The serial port can communicate with up to 15 devices.
B. The serial devices have a 4-bit address. The 2120 interface module reserves address 15 for its
exclusive use. The RCU, SCU, and fan control modules use addresses 0 thru 14.
C. There are only two parameters which require programming on the CPU module for the
configuration of the serial port. These are DIP Switch programmable. One DIP Switch position is
used to select the 2120 option. When set, this switch informs the 4002 to look for the 2120 interface
communication on address 15, for supervisory purposes.
The other oarameter is the number of devices connected to the port (excluding the 2120 interface),
which is programmed with a 4-bit DIP Switch. This parameter (like the 2120 interface) is used to set
up supervision of the connected devices. The DIP switch (SW3) is set to the binary number of SCUs,
RCUs, and/or Fan Control Modules on the serial port.
Battery Charger
‘The 4002 basic system provides an integral battery charger. This charger is capable of charging 33 Ah lead
acid batteries to 70% in 12 hours. It is compatible with lead acid (27.6 VDC) or NICAD batteries; however
an adjustment is required for NICAD batteries (25.4 VDC). When the batteries are very low or disconnected,
the charger will turn off until the System Reset push button is pushed. The Power Trouble LED may also
stay on until the System Reset push button is pushed.
Power Supply
The 4002 basic system contains a 5 Amp power supply which rectifies, filters, and produces a minimum
voltage of 20.4 to a maximum of 32 Volts DC. The power supply supplies power to the basic 4002 and all
expansion modules. The remaining power is used for signal circuits. This power supply has been designed
to be a power-limited supply.
Remote Inputs
The 4002 has two hardwired remote inputs: remote signal silence and remote system reset. These inputs
provide the same function as the panel mounted “ALARM SILENCE” and ‘SYSTEM RESET” push buttons.
The inputs are supervised to detect a switch which is left in a closed position or wires which are shorted.
Expansion Bus
The CPU module provides a 40-pin expansion bus which can be connected to the following modules:
1. 4-point monitor.
2. 8-point monitor.
3. 2-point signal.
4. 4-point auxiliary relay.
5. Combination 10 Amp/2 Amp relay module.
Number 2 Size Unit Configuration
Figure l-2 shows possible layouts for this unit while Chart 1 shows the modules which may be installed.
The “TYPE” column in Chart 1 categorizes the various modules as types A, B, C, and D. These types are
also shown in Figure l-2, which is used to show physical location and modules which may be selected. Use
the information on page l-6 to satisfy customer configuration requirements.
Figure l-3 shows details for installation for the #2 size unit.
1. Shows Style D configuration, if ordered, Style D board is used with the CPU board and 4-point monitor board.
2. Each system is limited to a maximum of two AUX. Relay boards and two signal expansion boards. Each of these
boards requires 4 inches of horizontal mounting space.
3. The maximum number of these boards allowed per system is equal to the number of the initiating zones divided
by 4. Each board requires 2 inches of horizontal mounting space.
CPU BOARD. CLASS B
CPU BOARD. CLASS A
AUX. RELAY BOARD
2 SIGNAL EXPAN BOARD
ZONE DISCONNECT BOARD
SUPPRESSION BlDARD
ZONE DISC. <AND SUPPRESS. BD.
4 POINT MON. BD. CLASS B
4 POINT MON. BD. CLASS A
and the 4002 is housed in a 2-unit cabinet, the batteries must mount
1-6
Page 15
1030
(OUTSIDE OF BOX TO
EDGE OF PC BOARD)
I I
CABLE ASSY.
(SEE NOTE3) ,=’
I I\
gRouNDscREw 14 FoRM,NG n’
#2 CABINET
ZONE CPU 4 ZONE MODULE
8
12 1 1
16
20 1 3
NOTES:
1. CPU MUST ALWAYS BE LOCATED WHERE SHOWN 6. EXPANSION MODULES (EXCLUDING PWR. SUPPLY) ARE
(EXTREME LEFT). EITHER 2” WIDE OR 4” WIDE.
2. ALL EXPANSION CARDS OPERATING OFF OF COM BUS
FROM CPU (THRU ITEM 11, CABLE) MUST MOUNT SIDE BY
SIDE, LEFT TO RIGHT. NON-BUSSED EXPANSION CARDS
ARE NOT TO BE MOUNTED IN BETWEEN CARDS OPTION BAYS (4 & 6 UNITS ONLY) ALLOW SPACE FOR
UTILIZING THE COM BUS.
3. BLUE LABELS IN LABEL PACK ARE FOR CPU TROUBLE
INDICATORS & CONTROL SWITCHES ONLY. ALL OTHER
LABELS ARE WHITE. CUSTOM LABELING MAY BE DONE 7. LOWER PORTION OF CPU BAY TO BE OCCUPIED BY 8
ON THE REVERSE SIDE OF ALL MODULE LABELS ZONE MONITOR MODULES & BLANK MODULES ONLY.
(EXCLUDING CPU TROUBLE INDICATORS & CONTROL
SWITCHES LABELS). THE REVERSE SIDE OF CPU
TROUBLE INDICATORS & CONTROL SWITCHES LABEL, IS
TO BE USED FOR SET-UP & PROGRAMMING WITH THE
ESP OPTION.
4. COM BUS JUMPING TO BE DONE BOARD TO BOARD CHART.
USING 4” CABLE ASSY. COM BUS JUMPING FROM BAY TO
BAY WILL USE 48” CABLE.
5. I.D. LABEL TO BE MARKED WITH PERTINENT SYSTEM
INFORMATION SERIAL
APPROXIMATELY WHERE SHOWN.
1 0
1 2
Y
NUMBER & PLACED
SCREW u
THREAD
b
4 ZOiE CLASS A MONITOR
4 ZONE CLASS B MONITOR
SIGNAL EXPANSION
CPU BAY OFFERS EXTRA ROOM AVAILABLE FOR THREE
4” MODULES OR SIX 2” MODULES OR A COMBINATION OF
BOTH TOTALLING NO MORE THAN 12 INCHES.
FIVE 4” MODULES OR TEN 2” MODULES OR A
COMBINATION OF BOTH TOTALLING NO MORE THAN 20
INCHES.
8. IN 4” 8, 6” CABINETS ONLY, ZONE MONITOR MODULE
CONFIGURATION WILL CONSIST PRIMARILY OF 8 ZONE
MONITOR MODULES, LEAVING A MAXIMUM OF ONE 420
NC MONITOR MODULE PER SYSTEM. #2 CABINET HAS
MAXIMUM OF THREE 4 ZONE MONITOR MODULES, SEE
9. ZONE DESIGNATION WILL BE ARRANGED IN A TOP TO
BOTTOM, LEFT TO RIGHT FASHION, IN CPU BAY. SEE
DETAIL A (SHEET 4).
The #4 size unit also contains a CPU board with the identical controls and interfaces as the #2 size units. It also
provides a space of 32 inches in which either three 4 x 12.5 inch or 4 x 6 inch modules can be mounted in the CPU
expansion row. This unit is in a taller cabinet which provides an expansion row (above the CPU board) to mount
either five 4 x 6 inch or ten 2 x 6 inch modules~. The following expansion modules may be added:
1. 8-Zone Style B Board
2. 4-Zone
3. 8-Zone Style D Board
4. 4-Zone Style D Board - 4002-5004
5. 4-Zone Discon. SW. Board - 4002-0102
6. 4-Zone Trans. Suppres. Bd. - 4002-0103
7. 4-Zone Comb. Discon. Suppres. Bd. .- 4002-0104
8. Relay Bd. with 4 Relays (DPDT) - 4002-3002
9. Hardwired Relay Bd. with 4 Relays (SPDT) - 4002-3002
NOTE: Only the 4002-l 002 (6.2 Ah), 4002-l 003 (10 Ah) and the 4002-l 004 (18 Ah) batteries may be used in the
Figure l-4 shows possible layouts for this unit while Table 2 shows the placement of modules which may be installed
in the #4 size unit. Again, the “TYPE” column in Table 2 categorizes the various modules as types A, B, C, and D.
Use the information shown in Table 2 and Figure l-4 to satisfy customer configuration requirements.
Figure l-4 shows the installation details for a #4 size unit.
Style B Board - 4002-5002
4-unit cabinet. If larger batteries ,are required, you may use a remote battery cabinet (4009-9802).
- 4002-5001
- 4002-5003
TABLE 2
TYPE NOMENCLATUHE ASSEMBLY NUMBER
-
-
A
A
B
B SUPPRESSOR BOARD 562-847 SEE NOTE 3
B ZONE DISCON. AND SUPPRESS. BD. 562-849
C
C 4 POINT MON. BD. CLASS B
C 8 POINT MON. BD. CLASS A 562-777
C
D
CPU BOARD, CLASS B 562-784
CPU BOARD, CLASS A. 562-784 SEE NOTE 1
562-909
562-779
AUX. RELAY BOARD 562-829 SEE NOTE 2
2 SIGNAL EXPANSION BOARD 562-796
ZONE DISCONNECT BOARD 562-845
A,B ORD A,B ORE A,B ORD A,B ORD A,B ORD A,B ORE A,B ORD A,B ORD
I
I
; ; i i
I I I I I I
I
I
! ! I I
k13-161 (221-24) lZ29-32L
I
I
i i ; ;
I
I
r r
I . I .
.SEE NOTE 1
\
SEE NOTE 1
NOTE 1: Z = Zones
(l-32)
#4 Unit Panel Layout
NOTES:
FIGURE 1-4
1. Shows Style D configuration, if ordered. Style D board is used with the CPU board, 4-point monitor board and
8-point monitor board.
2. Each system is limited to a maximum of two AUX. relay boards and two signal expansion boards. Each of these
boards requires 4 inches of horizontal mounting space.
3. The maximum number of these boards allowed per system is equal to the number of the initiation zones divided
by 4. Each board requires 2 inches of horizontal mounting space.
4. Each 4 unit panel is limited to a total of three monitor boards, either 4-point and/or 8-point monitor boards for a
system maximum of 32 zones. Each monitor board requires 4 inches of horizontal mounting space.
5. When batteries larger than 18 Ah are used in a 4002 that mounts in a 4-unit cabinet, batteries must mount in a
separate cabinet (#4009-9802 for 33 Ah batteries).
6. The CPU board must always be located as shown in Figure l-4.
7. Communication bus jumping to be done board by board using a 4-inch cable assembly. Communication jumping
from bay to bay requires a 48-inch cable assembly.
8. Zone designation will be arranged in a top to bottom, left to right fashion in the CPU bay.
9. Will accommodate up to five 4 x 6 or ten 2 x 6 inch modules.
1-9
Page 18
24 1 2
28 1
I 32 I 1 I
NOTES:
1. CPU MUST ALWAYS BE LOCATED WHERE SHOWN
(EXTREME LEFT).
2. ALL EXPANSION CARDS OPERATING OFF OF COM BUS
FROM CPU (THRU ITEM 11, CABLE) MUST MOUNT SIDE BY
SIDE, LEFT TO RIGHT. NON-BUSSED EXPANSION CARDS
ARE NOT TO BE MOUNTED IN BETWEEN CARDS
UTILIZING THE COM BUS.
3. BLUE LABELS IN LABEL PACK ARE FOR CPU TROUBLE
INDICATORS & CONTROL SWITCHES ONLY. ALL OTHER
LABELS ARE WHITE. CUSTOM LABELING1 MAY BE DONE
ON THE REVERSE SIDE OF ALL MODULE LABELS
(EXCLUDING CPU TROUBLE INDICATORS & CONTROL
SWITCHES LABELS). THE REVERSE SIDE OF CPU
TROUBLE INDICATORS & CONTROL SWIT,CHES LABEL, IS
TO BE USED FOR SET-UP & PROGRAMMING WITH THE
ESP OPTION.
4. COM BUS JUMPING TO BE DONE BOARD TO BOARD
USING 4” CABLE ASSY. COM BUS JUMPING FROM BAY TO
BAY WILL USE 48” CABLE.
5. I.D. LABEL TO BE MARKED WITH PERTINENT SYSTEM
INFORMATION SERIAL NUMBER &
APPROXIMATELY WHERE SHOWN.
2
3
I
PLACED
I
EXPANSION MODULES (EXCLUDING PWR. SUPPLY) ARE
6.
EITHER 2” WIDE OR 4” WIDE.
CPU BAY OFFERS EXTRA ROOM AVAILABLE FOR THREE
4” MODULES OR SIX 2” MODULES OR A COMBINATION OF
BOTH TOTALLING NO MORE THAN 12 INCHES.
OPTION BAYS (4 & 6 UNITS ONLY) ALLOW SPACE FOR
FIVE 4” MODULES OR TEN 2” MODULES OR A
COMBINATION OF BOTH TOTALLING NO MORE THAN 20
INCHES.
7.
LOWER PORTION OF CPU BAY TO BE OCCUPIED BY 8
ZONE MONITOR MODULES & BLANK MODULES ONLY.
IN 4” & 6” CABINETS ONLY, ZONE MONITOR MODULE
8.
CONFIGURATION WILL CONSIST PRIMARILY OF 8 ZONE
MONITOR MODULES, LEAVING A MAXIMUM OF ONE 420
NC MONITOR MODULE PER SYSTEM. #2 CABINET HAS
MAXIMUM OF THREE 4 ZONE MONITOR MODULES, SEE
CHART.
ZONE DESIGNATION WILL BE ARRANGED IN A TOP TO
9.
BOTTOM, LEFT TO RIGHT FASHION, IN CPU BAY. SEE
DETAIL A (SHEET 4).
The #6 size unit permits a main CPU and additional mounting space of 52 inches, in which you may mount either
ten 4 x 6 inch or 20 2 x 6 inch modules. Like the #4 size unit, it contains an upper expansion row (above the CPU
board), and this unit contains an additional expansion row under the CPU board. All expansion modules may be
added to this size unit. The #6 size unit will handle up to 33 Ah batteries.
Figure l-6 shows possible layouts for this unit while Table 3 shows the placement of modules which may be
installed in the #6 size unit. The “TYPE” column in Table 3 categorizes the various modules into types A, B, C, and
D. Use the information shown in Figure l-6 and Table 3 to configure the #6 size units. Figure l-7 shows installation
A AUX. RELAY BOARD
A 2 SIGNAL EXPANSICN BOARD
B ZONE DISCONNECT BOARD
B SUPPRESSOR EIOARD
B
C
C
C 8 POINT MON. BID.
C
D RELAY BOARD
CPU BOARD, CL.ASS B 562-784
CPU BOARD, CL.ASS A 562-784 SEE NOTE 1
562-909
562-779
;;;-;;; SEE NOTE 2
562-845
562-847 SEE N0T.E 3
ZONE DISCON. AND SUPPRESS. BD. 562-849
8 POINT MON. BD. C’LASS B 562-777
4 POINT MON. BID. CLASS B
CLASS A 562-777 SEE NOTE 4
4 POINT MON. BD. CLASS A 562-775
562-775
562-779
562-779
562-851 SEE NOTE 3
1. Shows Style D configuration, if ordered. Style D board is used with CPU board, 4 and 8-point monitor boards.
2. Each system is limited to a maximum of two auxiliary relay boards and two signal expansion boards. Each of
these boards require 4 inches of horizontal rnounting space.
3. The maximum number of these boards allowed per system is equal to the number of the initiating zones divided
by 4. Each of these boards require 2 inches of horizontal mounting space.
#4. Each 6-unit panel is limited to a maximum of three 4-point monitor boards or three 8-point monitor boards for a
system maximum of 32 zones. Each monitor board requires 4 inches of horizontal mounting space.
5. Zone disconnect, suppression, zone disconnect/suppression modules must mount in the top expansion row.
6. Modules connected to the 40-pin ribbon cable must mount in the lower expansion row.
1. CPU MUST ALWAYS BE LOCATED WHERE SHOWN
(EXTREME LEFT).
2. ALL EXPANSION CARDS OPERATING OFF OF COM BUS
FROM CPU (THRU ITEM 11, CABLE) MUST MOUNT SIDE BY
SIDE, LEFT TO RIGHT. NON-BUSSED EXPANSION CARDS
ARE NOT TO BE MOUNTED IN BETWEEN CARDS
UTILIZING THE COM BUS.
3. BLUE LABELS IN LABEL PACK ARE FOR CPU TROUBLE
INDICATORS & CONTROL SWITCHES ONLY. ALL OTHER
LABELS ARE WHITE. CUSTOM LABELING MAY BE DONE
ON THE REVERSE SIDE OF ALL MODULE LABELS
(EXCLUDING CPU TROUBLE INDICATORS & CONTROL
SWITCHES LABELS). THE REVERSE SIDE OF CPU
TROUBLE INDICATORS & CONTROL SWITCHES LABEL, IS
TO BE USED FOR SET-UP & PROGRAMMING WITH THE
ESP OPTION.
4. COM BUS JUMPING TO BE DONE BOARD TO BOARD
USING 4” CABLE ASSY. COM BUS JUMPING FROM BAY TO
BAY WILL USE 48” CABLE.
5. I.D. LABEL TO BE MARKED WITH PERTINENT SYSTEM
INFORMATION SERIAL NUMBER &
APPROXIMATELY WHERE SHOWN.
PLACED
1
24
1 1 1 2 I
28 1 2 1
32
6. EXPANSION MODULES (EXCLUDING PWR. SUPPLY) ARE
EITHER 2” WIDE OR 4” WIDE.
CPU BAY OFFERS EXTRA ROOM AVAILABLE FOR THREE
4” MODULES OR SIX 2” MODULES OR A COMBINATION OF
BOTH TOTALLING NO MORE THAN 12 INCHES.
OPTION BAYS (4 & 6 UNITS ONLY) ALLOW SPACE FOR
FIVE 4” MODULES OR TEN 2” MODULES OR A
COMBINATION OF BOTH TOTALLING NO MORE THAN’20
INCHES.
7. LOWER PORTION OF CPU BAY TO BE OCCUPIED BV 8
ZONE MONITOR MODULES & BLANK MODULES ONLY.
8. IN 4” & 6” CABINETS ONLY, ZONE MONITOR MODULE
CONFIGURATION WILL CONSIST PRIMARILY OF 8 ZONE
MONITOR MODULES, LEAVING A MAXIMUM OF ONE 420
NC MONITOR MODULE PER SYSTEM. #2 CABINET HAS
MAXIMUM OF THREE 4 ZONE MONITOR MODULES. SEE
CHART.
9. ZONE DESIGNATION WILL BE ARRANGED IN A TOP TO
BOTTOM, LEFT TO RIGHT FASHION, IN CPU BAY. SEE
DETAIL d (SHEET 4).
1 3 0
01
#6 Size Unit Installation
FIGURE 1-7
1-13
Page 22
5. Hardware Expansion
The 4002 can be expanded by adding Ioptional modules to the system. These modules connect with standard
ribbon and power cables. Power and signals are connected through the system with the following busses:
A. 40-Pin Expansion Bus (See Figure l-8)
The 40-pin bus is an extension of the CPU module’s microprocessor bus. The 4-point and 8-point monitor
modules, 2-point signal module, and 4-point auxiliary relay modules connect to this bus. The CPU controls this
board directly through software control. This allows selective signalling and control with these modules based
on ESP programs.
40-Pin Expansion Bus
FIGURE 1-8
B. Serial Expansion Bus (See Figure l-9)
The serial expansion bus is used to communicate with the 2120 interface, RCUs, SCUs and fan control modules.
The modules that reside on this bus #are microprocessor-based devices. The 4002 simply broadcasts the state
of the system and the serial devices pick out what information is pertinent to that device. Each device returns an
address for supervision purposes.
For modules that require high power or are not connected to the 40-pin bus, a 2-pin power cable is
provided. The signal module, fan control ancl 2120 interface modules connect to this bus.
.
.
Power Expansion Bus
FIGURE l-1 1
1-16
Page 25
6. Additional Information
Packaging
The 4002 packaging scheme provides flexible, pay-as-you-go architecture. Each module within the 4002
contains its own necessary user interface, field-wiring connections, and functional electronics to provide the
desired features.
Boxes
The boxes have the same length and width as the present 2001/2120 boxes. The depth has been reduced
from 6.5 inches to 4.25 inches for the 4002 boxes. The extra depth is not necessary in the 4002 package,
since the modules mount flat in the unit.
Doors
The doors provide views of all alarm and trouble LEDs with the door locked. Each door can be left or right-hand
mounted. This is accomplished by simply mounting the lock catch and hinges on the desired side and rotating
the door 180 degrees. The door slides into the hinge pins which are secured to the box.
Retainers
The 4002 retainer mounts with two catch tabs to the bottom lip of the box and with two snap locks to the top
of the box.
Mounting
The 4002 enclosure can be surface or semi-flush mounted
Conduit Entrance
The 4002 boxes provide for conduit entrance on the top and on both sides. The four sides of the box provide
two 2-inch knockouts for surface mounted conduit, entrance. When mounting semi-flush, three i-inch
knockouts are provided on the top of the box.
Module Mounting
The 4002 subassemblies mount horizontally across the box.
Mounting Rails
Each mounting rail is an extruded aluminum piece. The rail provides a threaded slot across the top for PC
board mounting with thread-formed screws. Since a continuously threaded slot is provided, PC boards can be
mounted at any point along the rail. The rails also include threaded slots on the bottom to mount the expansion
power supply.
Blank Fillers
Since the 4002 retainers have standard openings, it is necessary to provide blank fillers to cover potential
holes. The blank covers are available in 2 or 4 inch widths and mount directly to the mounting rails.
Zone Labeling
Each module has one or more plastic covers. These covers provide message pockets for a cardboard label.
The labels come standard with printing for “Zone 1, ” “Zone 2,” etc. These cards can be typed on the back, in
a typewriter with the custom label for each point. Up to three typed lines can be accommodated per point.
The 4002 has been designed to operate in the following conditions:
A. 32-l 22°F (0-50°C).
B. 85% relative humidity (non-condensing).
Ground
The 4002 system must be properly grounded. Readings of less than 0.70 VAC must be measured between
ground and neutral.
Power Input
The 4002 system is designed for either 120 VAC or 220/240 VAC. The standard units are built for 120 VAC
operation and, when desired, an optional transformer is used in place of the standard 120 VAC transformer.
Battery Standby
The battery standby provides for power loss conditions. The 4002 switches to batteries when the 120 VAC
input is 85% of line or less. The following details the largest battery for the box size used:
A. 2-Unit Box - 10 Ah
B. 4-Unit Box - 18 Ah
C. 6-Unit Box - 33 Ah
Approvals
The 4002 has been designed to meet the requirements of UL and ULC. The following is a list of agencies
that the 4002 will be submitted to and have operational approval:
The following modules are connected to the main CPU module via a 40-pin ribbon cable.
A. 8-Point Monitor
6. 4-Point Monitor
C. Signal Module
D. Auxiliary Relay Module
The above modules connect to each other via 4-inch, 40-pin ribbon cables.
A 3-foot, 40-pin ribbon cable is substituted for the above ribbon cable when connecting from the CPU row to an
expansion row.
Each Zone Disconnect, Suppression, Zone Disconnect/Suppression module requires a lo-pin ribbon cable.
This ribbon cable connects to the CPU module, 8-point monitor module or 4-point monitor module. 1 O-pin ribbon
cable placement is shown below.
4002 Fire Alarm Systems should be tested at least once a year, or as required by state or local codes. Check with
local authorities to determine how frequently your system must be tested.
To test the system, perform a Walk Test TM and then check the batteries.
1. Walk TestTM
NOTE: If the system does not operate as described in the following test procedures, see Section 7 for
troubleshooting procedures and oorrective actions.
NOTE: When the walk test is selected, the following must occur:
1. The “SYSTEM TROUBLE” LED illuminates.
2. The city alarm relay is bypassed.
3. The auxiliary alarm relays are bypassed, but annunciators connected to these relays still follow the zone
alarm LEDs. Disconnect the AUX + (common +24 volt feed) to disable this operation.
A. Notify appropriate personnel that you will be testing the fire alarm system.
B. Unlock and open the panel door.
C. Remove the panel’s retainer by squeezing, then pulling the two black plastic clips located in the upper center of
the retainer. Once the top is released (held on with the clips), lift the retainer and remove it to a safe location
until testing is completed.
D. Use a pointed non-metallic object, such as an orangewood stick, and select the “Walk TestTM Mode” by moving
DIP Switch SW2-1 to the OFF position. See Figure 2-l for DIP Switch SW2-1, and Figure 2-2 for the location
E. Press the “SYSTEM RESET” push button. The panel LEDs will illuminate (except “POWER” and “GROUND
TROUBLE”) then go off, but the ‘SYSTEM TROUBLE” LED will stay illuminated. The piezo will sound.
F. The Piezo is disabled during the Walk Test Mode when using Software Rev. 1.08 or later.
G. Walk through the building and activate each of the system’s alarm initiating devices (pull stations, smoke
detectors, heat detectors etc.). See step H before starting the walk through the building.
NOTES: 1. The signals must sound a “Zone Identification” code following the activation of any alarm initiating
device. See the “Zone Identification Chart” on the following page.
2. After each code sounds, the system resets itself.
3. Smoke detectors and rate-of-rise heat detectors usually require more than 4 seconds to clear, and may
cause the system to reissue the previous code.
H. For new installations or when problems are suspected, test for electrical supervision of wiring to each device by:
a. Disconnecting a wire from each device (in case of a smoke detector, remove the detector from its base)
l
The signals must sound for four seconds each time this step is performed
b. Reconnect the wire or replace the smoke detector head.
NOTE: Trouble test can be bypassed by placing the “City Bypass” switch in the up position.
I. Place DIP Switch SW2-1 in the ON (right) position.
J. Press the “SYSTEM RESET” push button.
This completes the “Walk Test” procedure. Continue with the LED and Piezo test.
2. LED and Piezo Test
Press the ‘SYSTEM RESET” push button and hold it in until LEDs illuminate. The following indications must be
observed
l
The Piezo sounds.
l
All LEDs on the CPU except “POWER TROUBLE and GROUND TROUBLE” illuminate for about five
seconds.
1 long, 2 short
1 long, pause, 1 long
1 long, pause, 2 long
1 long, pause, 3 long
1 long, pause, 4 long
1 long, pause, 5 long
1 long, pause, 6 long
1 long, pause, 7 long
1 long, pause, 8 long
1 long, pause, 9 long
2 long, pause, 2 short
2 long, pause, 1 long
2 long, pause, 2 long
2 long, pause, 3 long
2 long, pause, 4 long
2 long, pause, 5 long
2 long, pause, 6 long
2 long, pause, 7 long
2 long, pause, 8 long
2g= -- ---------- 2 long, pause, 9 long
3()= ---. -- 3 long, pause, 2 short
31 = ---. -- 3 long, pause, 1 long
32 = ---. ___ 3 long, pause, 2 long
2. Activate any initiating appliance (pull station, smoke or heat detector) to cause a general alarm condition.
3. Allow the notification appliances (horns, bells, visual devices etc.) to sound for five minutes.
4. Apply AC power to the system.
5. Disconnect the batteries by removing cable P5 from the CPU board.
6. Measure the battery voltage across the two pins of cable P5. The voltage measured must exceed 20.5 VDC.
If the voltage measurement is less than 20.5 volts, see Section 7, System Troubleshooting Chart. If NICAD
batteries are used, see Section 5, Adjustment Procedures. Wait one minute to ensure a battery disconnect
trouble is indicated. Replace batteries if required.
7. Replace cable P5 to connect the batteries.
8. Press the “SYSTEM RESET” push button to clear the system.
9. Replace the retainer by placing the slots at the bottom of the retainer over the lip at the bottom of the back
box.
10. Squeeze the two black plastic clips and insert them into the holes at the top of the back box, then release
the clips. This will secure the retainer.
11. Secure the panel door.
12. Notify appropriate personnel that the testing has been completed.
NOTE: IF ABNORMAL CONDITIONS ARE DETECTED DURING PERFORMANCE OF PREVENTIVE
MAINTENANCE PROCEDURES, SEE SYSTEM TROUBLESHOOTING CHART (SECTION 7).
A. Notify the monitoring facility that you are repairing the system and may trip an alarm.
B. Notify the customer.
C. Check local codes for additional requirements.
2. What Is The 4002 System Supposed To Do?
You are already a 4002 system expert, and know exactly what the system should be doing, when it should do it,
and how it should be done. As with any system, users may suspect a malfunction because they are not familiar
with proper system operations. Notify users that you are there to repair the system and that you require their
assistance to determine system operational status; then, verify a malfunction by asking questions such as those
listed below.
Ask The User
3.
A. Did you observe the malfunction?
B. What was the system doing when it failed?
l
Manual evacuation test?
l
Alarm condition?
.
l
Programming changes?
. Modifications to system/wiring?
l
Any other useful information.
C. What indications were observed during the malfunction?
The information contained in Section 2 (Preventive Maintenance) will also assist you in determining the
system’s operational status. Perform the following procedures from Section 2 as required:
A. Walk TestTM
B. LED and Piezo Test
C. Battery Test
NOTE:
The above procedures do not test city operation, auxiliary relays, selective signaling, etc.
3-2
Page 37
SECTION 4
MODULE DESCRIPTIONS
Note:
1. CPU Module (See Figures 4-l and 4-2)
16 different modules are available for 4002 Fire Alarm Systems. A functional description of each follows.
A. Functional Description
The CPU Module processes all input and output functions and contains the system power supply. In
addition, it contains all user interface controls for programming and operating the system. Figure 4-l shows
the CPU Module and its major components such as fuses, switches, and connectors. This module provides
the following functions:
1. Terminals for connecting the external fire alarm and control circuits (See top and bottom of Figure 4-l).
2. Test points (See Figure 4-1, Items 1 thru 3).
3. System microprocessor (See Figure 4-1, Item 4).
,4. Eight monitor zones (Style D/Style B) See Figure 4-1, Item 5).
A. Each zone monitor constantly supervises one zone circuit for either trouble or alarm conditions.
B. Plug-in modules allow the system to feature Style D zone circuits (See Style D Adaptor Module).
5. Two signal monitor outputs (See Figure 4-1, Items 14 and 15)
A. Each signal monitor constantly supervises one signal circuit for trouble conditions.
B. Each circuit will operate Style Z or Style Y, depending on the placement of the 1 OK Ohm end-of-line
(E.O.L.) resistor.
C. Reset when the “SYSTEM RESET” push button is pressed.
6. Two auxiliary relays featuring one Form “C” contact per relay.
A. The relay’s coil energizes (picks) during alarm condition.
B. Terminals on the CPU module allow each of the relay’s contacts to either apply power or remove
power from external equipment during alarm conditions.
7. Assorted DIP Switches which are used to configure and program the system (See Figure 4-1, Items 7
thru 10).
8. Jumpers are also used to configure the system.
9. Fuses (Fl through F9) See Figure 4-1, Items 11 thru 18.
10. Indicators (amber for trouble and red for alarm) for system status (See red and amber LEDs on system).
11. Piezo (trouble/alarm buzzer) activates when trouble or alarm condition exists (See Figure 4-1, Item 19).
12. Two lo-pin male plugs (SPRl and SPR2) are used when Zones 1 through 8 are suppressed or
disconnectable. SPRl is for Zones 1 through 4; Zones 5 through 8 use SPR2. Each has its own 4-zone
suppression/disconnect module. The “To +” and the “To -I’ leads of a suppressed or disconnectable zone
must always be terminated at the zone suppression/disconnect module (See Figure 4-1, Items 20 and
21).
13. One 40-pin male plug is used when the system is configured for more than its minimum eight zone
NOTE: identical 40-pin male plugs are to be found on various 4002 modules. This feature allows data and operating
power for other modules to be bussed throughout the panel via a 40-pin cable.
14. Two Style D adapter module receptacles (13-pin female plugs) are used when the CPU module is
operated as a Style D circuit (located behind CPU module).
15. ‘The 5 Amp auxiliary power supply works with either of the CPU modules shown below.
3. The “SYSTEM RESET” switch must be pressed after DIP switches are set.
SW1 1 is used to select annunciator supervision and is located on the CPU module. Open the appropriate switch
when an annunciator is tied to a zone. Resistors work in conjunction with the above switch settings. Turn switches
to OFF (left) for supervision. See Table 5 for resistors.
4-5
Page 42
TABLE 2
DIP SWITCH SW1 1
SW1 l-l .- ANINUNCIATOR ZONE 1 SUPERVISION
SW1 l-2 ‘- ANINUNCIATOR ZONE 2 SUPERVISION
SW1 l-3 .- ANINUNCIATOR
Jumpers and resistors are used to configure the 4002 system. Various resistors and jumpers are removed
(depending on system requirements) to open circuits/change circuit resistance. The 4002 system is shipped
with all resistors and jumpers removeld to properly configure the system. When a CPU board is repaired by
the Simplex Repair Depot, these jumpers and resistors are replaced. The function of these resistors and
jumpers are as follows, and are shown in Tables 4 and 5. Figure 4-3 shows locations of the various
configuration jumpers and resistors for the CPU module.
1. Jumper Package 1 - use to configure city connections.
TABLE 4
The Jumpers on Jumper Packet Jl
CITY CONNECTION
Reverse Polarity
Local Energy City Box
City Shunt
Form C or No
City Connection
Install as shown below.
JUMPER INSTALLATION
11 10 9 8 7 6 5 4 3 2 1
0 0
o?oo?oooo
0 0 Aoooooo~o
13
12
11 10 9 8
P O
0 0
12 13 14 15
11 10 9 8 7 6 5
0
A 0
12
11 10 9 8 7 6 5 4 3 2 1
0 0 000000000
0 0
12 13 14 15 16 17 18 19 20 21 22
14 15 16 17 18 19 20 21 22
7 6 5 4 3 2 1
17
16
0 000
00000000~
13
14 15 16 17 18 19 20
000000000
18 19 20 21 22
o?oooo
4
I
3
2 1
21 22
Radio Master
2. Jumpers JW2 thru JW 9 - Monitor Zones
Clip appropriate jumper if the initiating devices within the zone connect to a Zone Disconnect Module,
Zone Suppression Module, or a combination Zone Disconnect/Suppression Module.
ZONE 1 CLIP JUMPER JW6
ZONE 2 CLIP JUMPER JW7
ZONE 3
ZONE 4 CLIP JUMPER JWS
NOTE: The above jumpers shoulcl be clipped in groups of four, or as each module is added.
The above resistors work in conjunction with DIP Switch SW11 (see page 4-6 for SW11 setting). Clip
when LED annunciators are used. Do not clip resistors if connecting to filament lamp annunciators.
The CPU module has three test points, which are used to measure power supply voltages. Use the
common test point when measuring either voltage. Their locations are shown in Figure 4-3 and their
purpose is as follows:
1. TPl - +5VDC
2. TP2 - + 24 VDC
3. TP3 - 0 VDC
G. Relays
The CPU module has a total of seven relays and are shown in Figure 4-3. They are used for the following:
1. Kl - Signal 1
2. K2 - Signal 2
3. K3 - 4-wire Detector Power (Resettable 24VDC at 2 Amps)
4. K4 -Auxiliary 1
5. K5 -Auxiliary 2
6. K6 - City Relay
7. K7 - System Trouble (Sends city trouble to remote panel when configured).
4-9
Page 46
H.
ESP Programming Integrated Circuit (IC)
One IC must be inserted into U26 prior to programming the 4002 system. This is a non-volatile random
access memory (NOVRAM), which contains memory locations for the ESP programs. When replacing the
CPU module, remove ICs U25 and U26 from the detective module and install them in the new CPU module.
Figure 4-3 shows the location of these ICs.
Connectors and Terminal Boards
I.
The CPU module contains 11 connectors/terminal strips which are used for signal and power to and from the
CPU module. These are as follows, and are shown in Figures 4-4 thru 4-l 6.
l
Refer to Field Wiring Diagrams (841-66!3) for terminations.
The zone expansion modules are used when more than eight monitor zones are required in a system. A
4002 system can have up to 32 zones.
Each zone expansion module is connected to the CPU module via the 40-pin bus cable, which constantly
supervises (electrically monitors) either four or eight Style B zone circuits for trouble or alarm conditions.
Plug-in modules allow the modules to accommodate Style D zone circuits (by using Style D adaptor
modules).
There are two types of zone expansion modules, the 4-zone and the 8-zone. These zone expansion
modules are shown in Figures 4-17 and 4-18. The following information will assist you in determining the
status of these modules.
Each zone expansion module contains the following:
1. Either one or two terminal blocks for connecting zone and annunciator circuits. The zone connectors are
marked “XZNl + or - through XZN4 + or -.I’ Annunciators are marked “XRAl thru XRA4.”
4-zone modules contain one terminal block while 8-zone modules contain two terminal blocks.
2. Either one (4-zohe module) or two (8-zone module) 1 O-pin male plugs (SPRl and SPR2) are used when
zone disconnect, suppression module, or the combination suppressor/disconnect modules are used.
3. Either one (4-zone module) or two (8-zone module) 13-pin female plugs are used when the zone
expansion module is to be used for Style D circuit applications. These modules mount behind the zone
expansion modules, in a “sandwich” configuration.
4. Provides a 40-pin expansion connector to allow the module to be connected to the next module in a
“daisy chain” configuration.
5. LEDs are used to indicate an alarm on a zone (red LEDs) or an open (amber LEDs) on the specific
monitor loop.
6. Four or eight Style B monitor zones
7. Four or eight hardwired annunciator outputs which track the alarm LED’s state. These outputs are rated
at 150 mA.
8. A maximum of three expansion monitors can be used in a system, 4-point or 8-point monitors.
9. The 8-point monitor cannot be used in the #2 size units, and can only be mounted in the CPU’s
expansion row.
10. The 8-zone expansion module is 4 x 12.5 inches while the 4-zone expansion module is 4 x 6 inches.
B. Normal Indications
1. Normal Indications - No LEDs illuminated.
C. Cables and Connectors
1. Cables and connectors are as follows:
A. 40-pin ribbon cable is connected from Pl on the CPU module to Pl on the zone expansion module.
B. Two 1 O-pin connectors are connected if zone disconnect, zone suppression, or the combination zone
suppression/disconnect module is being used.
C. The 13-pin cables are connected if the Style D expansion modules are being used. These mount
behind the zone expansion modules.
4-15
Page 52
D. Unused Zones
1. Unused zones are terminated ‘with :3.3K Ohm, 1 Watt resistor at the terminals.
E. Terminal Connectors
1. Terminal connections should be the same as the CPU module for either 4 or 8-zone (ZN No. + to ZN
NOTE: Connections for the 4-zone expansion module are the same as shown in Figure 4-l 7, TBl. There are no
terminals for connections on the bottoms of the 4-zone expansion modules.
F. Configuration Resistors and Jumpers
1. The 4-zone expansion module assignment tables are shown below. The various resistors and jumpers
must be clipped to configure the system to meet customer needs. Do not clip resistors if connecting to
JUMPERS JW5 THRU JW8 WHEN CONNECTING A ZONE DISCONNECT OR ZONE
DISCONNECT/SUPPRESSION MODULE TO A 4-POINT MONITOR MODULE.
2. The 8-zone expansion module resistor and jumper assignment tables are shown below. These also
must be clipped as required to configure the various systems. Clip jumpers JWlO thru 17 for annunciator
supervision. Do not clip resistors, if connecting to filament lamp annunciators. Clip if LED annunciators
are used in the system.
IMPORTANT: REMOVE JWl WHEN THE 40-PIN RIBBON CABLE IS CONNECTED TO P2. REMOVE
JUMPERS JW2 THRU JW9 WHEN CONNECTING A ZONE DISCONNECT OR ZONE
DISCONNECT/SUPPRESSION MODULE TO THE 8-ZONE MONITOR MODULE.
G. LEDs
The 8-zone expansion module has 8 alarm LEDs (red) and 8 trouble (amber) LEDs to indicate status of the
zone being monitored. The 4-zone expansion module has 4 red and 4 amber LEDs to indicate zone status.
H. SPRl/SPRZ Connectors (8-zone expansion module)
These connectors are used when connecting zone suppression, zone disconnect, or the combination zone
suppression/disconnect modules. These are lo-pin connectors. Use the gray ribbon cable when these
interconnections are required.
I. Connector P4 (4-zone expansion module)
This connector is the same as SPRI on the 8-zone expansion module, and is also a 1 O-pin connector.
.3. SIGNAL EXPANSION MODULE (See Figures 4-19, 4-20, and 4-21)
A. Functional Description
8 YELLOW
TROUBLE LED’S
8 RED
ALARM LED’S
The signal expansion modules are used when the system features more than two signal circuits. Items
discussed below are shown in Figure 4-21. The following information will assist you in determining the status
of the signal expansion module.
1. Two Style Z or Y signal circuits, each rated at 2 Amps at 24 VDC.
2. Each output is fused and power-limited.
3. Each output is supervised for short or open circuit conditions. Two yellow LEDs (one for each circuit) are
provided to indicate when these conditions occur. These LEDs do not illuminate during ‘SYSTEM
RESET.”
4. Separate power input for the signal power via a pluggable 2-wire cable.
5. Transient protection is provided as a standard feature for each zone.
6. Two relays, each used to control one of the modules two.signal circuits.
B Normal lndica tions
Normal indication - neither LED is illuminated.
(lit LED indicates a short or open)
C. Cables
Cables are connected as follows:
1. Connector Pl is daisy-chained back to the CPU modules with a 40-pin ribbon cable.
2. Connector P3 is connected to connector P6 on the CPU board or an expanded power supply by a 2-wire
cable. When more than one signal expansion module is used, connector P3 will be used to daisy-chain
power to the next module. Polarity on connector P3 must be observed. Power to this module is
unsupervised.
D . Unused Circuits
Unused circuits must be terminated with 1 OK Ohm, l/2 Watt End-Of-Line (E.O.L.) resistor. These resistors
must connect from SIG + to SIG - for each unused circuit.
4. ZONE DISCONNECT MODULE (See Figures 4-22 and 4-23)
A. Functional Description
This module is used when systems require individual switches per zone to disconnect the zone electrically
from the system.
l
Can be used for both Style D and Style B operations.
This module must connect to the CPU module, 4 or 8-zone expansion module, via a lo-pin gray ribbon
cable. The zone field wiring must be terminated on these modules. Up to 8 modules may be used for a full
system with 32 zones.
The information listed below will assist you in determining the status of zone disconnect modules. Items
discussed are shown in Figure 4-23.
B. Normal Indications
All disconnect switches are in the DOWN position. The UP position is the disconnect position and the
system will display a “SYSTEM TROUBLE” zone trouble and the piezo will sound.
C. SPRl/SPR2 Connections
The gray 1 O-pin ribbon cable is connected to connector Pl on the zone disconnect module and comes from
the CPU module (SPRlSPR2).
D. Terminal Connections
Field wiring is terminated on this module. Zone wiring is wired the same from the CPU/zone expansion
modules as it is on the zone disconnect terminals (i.e., ZNl + ZNl +). See the connections for TBl and
Figure 4-22 below:
TBl connections
1 -ZNl2-ZNl+
3-ZN24-ZN2+
5-ZN36-ZN3+
7-ZN4-
8-ZN4+
TBl
FIGURE 4-22
E. Unused Circuits
Unused circuits must be terminated with a 3.3K Ohm, l/2 Watt resistor.
F. Disconnect Switches
Disconnect switch SWl, controls Zone 1, SW2 controls Zones 2, SW3 controls Zone 3, etc.
G. Jumpers JWl thru JW4
Leave in for Style D operation: remove for Style B operation.
H. Style D and Style B Wiring
When the zone disconnect module is wired for Style B Operation, the zone trouble automatically resets
when a switch is changed from the disconnect to the normal condition. When wired for Style D Operations,
the zone trouble must be manually reset by pressing the “SYSTEM RESET” push button.
This module is used within a 4002 system when protection from high voltage transients is required. It contains
protection for 4 zones, and the system may contain up to 8 modules to protect its 32 zones. Connections are
either to the CPU, 4-point monitor or 8-point monitor via a 1 O-pin ribbon cable.
A. Terminal Connections
Field wiring is connected to this module, and is wired as shown in Figure 4-24 below:
The gray lo-pin ribbon cable is connected from Pl to the CPU or a zone expansion module SPRlSPR2
connections. For a 4-zone expansion module, the connection would be from Pl to P4. See Figure 4-25.
Pl
TBl
NOTE: The 4002 system must be properly grounded for the zone suppression module to properly operate. A
reading of less than 0.70 volts AC must be read from chassis ground to neutral.
Zone Suppression Module with Components
FIGURE 4-25
4-23
Page 60
6. ZONE DISCONNECT/SUPPRESSION MODULE (See Figure 4-26)
A.
Functional Description
This module is used when voltage transient protection and individual switches are required to disconnect
zones electrically from the system. It contains four switches which will disconnect the assigned zone when
in the UP position. Zones remain connected when the switches are in the DOWN position.
The zone disconnect/suppression module must connect to the CPU module or a 4 or 8-zone expansion
module via a 1 O-pin ribbon cable. (See Field Wiring Diagram for details).
Field wiring from each zone requiring disconnect/suppression is terminated on this module.
The following information will assist you as you determine the status of the zone disconnect/suppression
modules.
Normal lndica tions
B.
All disconnect switches are in the down (normal) position. In the up position, the system trouble and the
assigned zone trouble LEDs illuminate and the piezo sounds.
Unused Circuits
C.
Terminate unused circuit with 3.3K Ohm, l/2 Watt
resistors.
Switches
D.
Each disconnect switch should control its
assigned zone. SW1 should control Zone 1; SW2
should control Zone 2, etc. See Figure :3-26.
Jumpers
E.
Clip jumpers JW2 and JW5 from the module.
Terminal Connections
F.
1. There should be no connections between
terminal block TBl on the CPU module, TBl on
the 4 or 8-zone expansion modules, and TBl
on this module. TBl is for field wiring
terminations to this module.
2. Connect the gray 1 O-pin ribbon cable as shown
in the Field Wiring Diagrams.
TBl
.JW2
.JW5
ZONE 1
DISCONNECTM
3. Maximum of eight “zone connect/suppression”
modules allowed per system.
4. Bring module power from its assigned zone,
and wire the module according to polarity. See
Field Wiring Diagrams, part # C841-687 and
C841-669 for details.
This module is a 2 x 6 inch module. It is point wired to the individual annunciator outputs per zone. Each of
the four relays provides one form “C” contact rated for 2 Amps at 28 VDC or 0.5 Amps at 120 VAC. There
are no restrictions on the number of relay modules, other than physical space and the power required to
energize the coils. The coils draw 10 mA at 28 VDC. The relay module provides two functions which are as
follows:
1. Provides additional relays for system which exceed a maximum of 10 auxiliary relays provided by the
CPU module and the auxiliary relay expansion module which are connected to the 40-pin expansion bus.
2. These relays are capable of external mounting in a 6-gang box. This module will be used in conjunction
with the fan control module when supervised fan control is required from NFPA 101.
This module is point-wired to individual annunciator outputs per zone. The following information should
assist you as you determine the status of relay modules.
B. Terminal Connections
1. TBl field wiring may come for TB2 on the CPU module, or TBl on either a 4 or 8-zone expansion
module. Refer to Field Wiring Diagrams.
NOTE: For relays to operate, AUX+ (TB2-7) on Relay Bd. must connect to TB2-2 or TB2-12 on CPU Bd.; For relays
to latch, AUX- (TB2-8) on Relay Bd. must connect to TB2-3 on CPU Bd.
2. Connect field wiring according to relay assignments. These are:
Latch (YES NO) OV (from CPU bd.) applied to AUX- Jumpers
Kl Y, K2 Y, K3 Y, K4 Y YES Jl IN, J2 IN, J3 IN
Kl Y, K2 Y, K3 Y, K4 N YES Jl IN, J2 IN, J3 OUT
Kl Y, K2 Y, K3 N, K4 N YES Jl IN, J2 OUT, J3 OUT
Kl Y, K2 N, K3 N, K4 N YES Jl OUT, J2 OUT, J3 OUT
Kl N, K2 N, K3N, K4 N
8. AUXILIARY RELAY MODULE (See Figures 4-28 thru 4-30)
A. Functional Description
This module is used when more than the two auxiliary relays on the CPU module are required. Each module
provides an additional four auxiliary relays, and only two modules may be used in a system. The following
will assist you in determining thle status of the auxiliary relay module.
1. Provides four relays, each DPDT contacts.
2. One contact on each relay is fused.
3. Contacts are rated at 2 amps at :30 VDC or 0.5 amps at 120 VAC.
4. Only two modules may be added to a system.
5. Each relay is capable of selective control when using the ESP programming feature.
6. Terminals are provided for connecting system output devices.
B. Terminal Connections
Field wiring is terminated on TBI as indicated below:
TBl Connections (for -3000s and -3003s)
1 -NO
2-c AUX3
3 4 - NC t
- NO
5-c
6 - NC I AUX2
7 - NO
8-C
9 - NC
10 -NO
11 -c
12
-NC )I AUXl
13
-NO
14
- c
15
-NC
16
- BLA
TB2 Connections (for -3001 s only)
1 - NC
2-c
3 - NO
4
- NC
5-c
6 - NO
7 - NC AUX4
8-C
9 - NO
10 - BLA
C. 40-Pin Connector
AUX3
I-
TB2
FIGURE 4-29
TBl
FIGURE 4-28
1 -NC
I-
I-
AUX3
10 AMP
2-c
3 - NO 10 AMP
4 - NC
5-c AUX4
6 - NO
The 40-pin ribbon cable connects to Pl on the auxiliary relay module, and can connect to the CPU (Pl),
zone expansion modules, or to connector P2 on the signal expansion module.
D. Jumpers
IMPORTANT: REMOVE JUMPER JWl WHEN THE 40-PIN RIBBON CABLE IS CONNECTED TO P2 AND
THIS MODULE IS NOT THE LAST MODULE CONNECTED TO THE RIBBON CABLE BUS.
The Style D module is a special adapter module designed to convert standard Style 6 monitor zones to Style D
operation. The module measures 3.25 x 4..5 inches, and is used when local codes require Style D operation.
The module mounts directly behind the monitor zones (CPU module, 4-point or 8-point monitor) connected in a
sandwich type configuration. The module provides the terminals for the return Style D pair of wires, along with
the relays necessary to switch over to Style D mode.
A. Operation
Each monitor zone has a separate relay provided on the Style D module to control switching from Style B
to Style D operating mode. The relays, track the trouble LEDs on the module connected to Pl . Therefore, if
the relays energize, the only way to dle-energize them is to press the system reset push button. When an
open line is sensed on a particular zone, the following occurs:
1. The open condition is reported to the CPU module.
2. The CPU module sends a command to turn on the specific zone trouble LED.
3. Turning on the zone LED also turns on the Style D relay for that zone, placing that specific zone in the
Style D operating mode. The zone is now capable of reporting any alarms as they occur.
4. When the open condition is repaired, the user must press the ‘System Reset” push button to restore the
panel to the normal condition, turning off relays and trouble LEDs.
B . Description
The following are included on each Style D adapter module:
1. A 13-pin male connector is used to allow the module to mount behind and plug into either the CPU
module or any zone expansion module.
2. An 8-terminal block is used to provide the End-of-Line (E.O.L.) terminations for its four zone circuits.
3. Four 3.3K Ohm E.O.L. resistors for terminating its four zone circuits.
4. All other non-serviceable components required to convert from Style B operation to Style D operation.
5. The module mounts directly behind the monitor zones (CPU monitor, 4 or 8-point monitor) and connects
in a sandwich type configuration.
Each relay on the module requires 8.:3 mA to energize, and each module contains four relays.
The maximum output current is 60 mh, while its output voltage is 20.4VDC (minimum) to 32 VDC (maximum).
Each Style D module can accommodate up to 4 Style D loops, (ZNl A- thru ZN4A- for input signals; ZNl A+ thru
ZN4A+ for output signals) which are wired as shown below. Figure 4-31 shows a Style D module connected to
Status Command Units (SCUs) and Remote Control Units (RCUs)
LED-Test
Model 4602-9101 Status Command Unit
FIGURE 4-32
(See Figure 4-32 and 4-33)
LED-Test
Model 4602-9102 Remote Control Unit
FIGURE 4-33
IMPORTANT
After servicing an SCU/RCU:
1. Apply power to the system. Then check the LEDs by inserting the end of an Allen wrench or paper
clip as far as possible into the “LEID test” hole.
I
l
The failure of an LED to illuminate could indicate:
A. An LED is plugged in backward or missing altogether.
B. Power problem.
C. Component failure.
2. Test the system and check to see that the LEDs in the SCWRCU respond appropriately.
l
A flashing ANNUN TBL LED on the ,4002 panel indicates a COMM failure between the panel and
the device whose identity number is represented by the flashes. For example, when SCU/RCU
number four fails to communicate, the ANNUN TBL LED repeatedly flashes four times between
pauses.
3. (Applies to RCUs only) Test the unit for proper switch functionality.
11. 10 Amp Auxiliary Relay Module (See Figure 4-37)
The 10 Amp auxiliary relay module is provided for systems that require more output than the standard 2 Amp
auxiliary relay. This module is 4 x 6 inches and contains four relays. Two relays have a single set of form “C”
contacts rated for IO Amps at 24 VDC. The remaining two relays are the standard 2 Amp, 2 form “C” type
relays.
A. Operation
The 10 Amp relay functions similarly to the 4-point auxiliary relay module. The relay coil is controlled via
the microprocessor expansion bus.
CONNECTOR
Pl
FUSE Fl
3 AMPS
CONNECTOR
P2
FUSE F
10 AMF
FUSE F2
- 3 AMPS
:3
‘S-
, FUSE F4
10 AMPS
10 Amp Auxiliary Relay
FIGURE 4-37
4-35
Page 72
12. 2120 Interface Module
The 2120 interface module is used when the 4002 system is connected to a 2120 system. It is connected to
the 4002 system via the serial port and requires two wires for communication plus,two wires for 24 VDC power.
The following information will assist you in determining the status of this module.
Operation
A. Configuration
The 2120 interface is configured lo look like the equivalent of a 2120 expanded transponder. The 2120
module has up to eight 2120 style slots that can be monitor and/or control slots. The 4002 provides the
following:
B. Monitor Points
The 4002 can transmit alarm and trouble per monitor point to the 2120 system. The 2120 interface module
provides the capability to send either monitor point 1 thru 8, 1 thru 16, 1 thru 24, or 1 thru 32. This is a DIP
switch selectable function. Each group of eight monitor points requires one monitor slot each in the 2120
interface module. Transmitting monitor points to the 2120 does not require the ESP option.
C. Control Points
The 2120 BMUX can send up to 20 control points to the 4002 system. This translates to five control point
slots. The 2120 interface receives the control points ON/OFF commands, but contains no relays. It passes
the control point status to the 4002 CPU module. The first four control points are used for remote reset,
signal silence, trouble silence and manual evacuation. If the first four control points are not required to do
the reset, signal silence, trouble silence or manual evacuation function, they can be individually selected
as general purpose inputs to the EiSP equations. The remaining 16 control points are inputs to 4002 ESP
equations. These points are used as equation inputs that can turn on any 4002 output or a group of outputs.
Refer to the Programming Instructions publication for details. The optional ESP chip is required whenever
control points are used as inputs to the ESP equations. The first four control point functions do not require
the use of the ESP chip when used for the default functions of reset, alarm silence, trouble silence, and
drill. The 4002 control points do support the 2120 pulsed operation, but the smallest pulse is two seconds,
even if the 2120 sends a one-second pulse.
D. ESP Memories
ESP provides 16 memories (similar to 2120 pseudo points) that can be used to represent a number of 4002
functions. A memory could represent a control point status. This would be set by an ESP equation and its
status can be sent to the 2120. If it is desired to send this data to the 2120, the 16 memories can be sent
to the 2120 interface. The memories will use up to two slots and will be sent as either memories l-8 or l-
16 to the 2120. This is a DIP switch selectable function.
E. Status Byte
The 2120 interface will transmit a status byte to the BMUX which does not require a monitor or control slot.
This byte will include 4002 system trouble, power loss trouble, ground, signal trouble and battery
disconnected.
F. Capacity
The 4002 can have up to four monitor point slots, two memory slots or five control slots. This yields a total
of 11 slots. Since the 2120 interface can only provide eight slots, all functions listed above cannot be
present in one system. The user must choose their options carefully to fit within the 8-slot architecture of
the 2120.
G. DIP Switch and Jumper Assignment
The 2120 interface module has a. 6-bit DIP switch, an 8-bit DIP switch and a 4-position jumper strip. The
6-bit DIP switch is used to set the 2120 transponder address. The proper format is as follows:
A 4002 system may include up to four fan control
modules, each of which consists of two fan control
circuits.
Each fan control module includes:
l
Two 3-position maintained toggle switches (SW2
and SW3).
l
Two DIP switch packages (SW1 and SW4).
l
Two P connectors (Pl and P2).
l
Two red LEDs (fan OFF).
l
Two green LEDs (fan ON).
l
Two yellow LEDs (fan circuit TBL).
l
One terminal block (TBl).
Yellow LED
B. Panel Connections
SW2
UBL)
sw3.
Zreen LED
t(Fan ON)
Red LED
Fan OFF)
Sreen LED
(Fan ON)
Pl = 24VDC input power (2-wire harness) from
any of the following:
Yellow LED’
P6 on CPU module
P2 of another fan control module
VW
Pl’
Red LED
Fan OFF)
-P2
P3 of a signal expansion module
P2 on a 2120 interface module
FIGURE 4-38
P2 = 24VDC output power
TBl-1 = REC (from TB4-20 [REC] on the CPU [or from TBl-1 on another fan control module]).
TBl-2 = COM (from TB4-21 [COM] on the CPU [or from TBl-2 on another fan control module]).
C. Field Connections
TBl-3 = ON1 (OV out to pick fan 1 ON relay).
TBl-4 = OFF1 (OV out to pick fan 1 OFF relay).
TBl-5 = ON2 (OV out to pick fan 2 ON relay).
TBl-6 = OFF2 (OV out to pick fan 2 OFF relay).
TBl-7 = TKl (+24 [feedback] from 1 st fan circuit via vane, sail or pressure differential switch in 1 st air duct).
TBl-8 = TK2 (+24 [feedback] from 2nd fan circuit via vane, sail or pressure differential switch in 2nd air
duct).
D . Switches
DIP Switch SW1
Switches SWl-1 and SWl-2
SWl-1 OFF = Green LED lit when +24 present on TBl-8 (TK2).
Red LED lit when +24 absent from TBl-8 (TK2).
SWl-1 ON = Green LED lit when SW3 in ON position or TBl-5 (ON2) is active.
Red LED lit when SW3 in OFF position or TBl-6 (OFF2) is active.
Switch SW3 (Position determines the presence or absence of OV on terminals TBl-5 and TBI -6)
Up position = Applies OV to TBl-5 (ON2), energizing fan control relay K3.
Center position = Presence or absence of OV determined by the fan control module’s microprocessor.
Down position = Applies OV to TBl-6 (OFF2), energizing fan control relay K4.
Note: Relays K3 and K4 must mount within 3 ft. of 2nd fan motor.
DIP Switch SW4 (Allows for supervision of a fan control relay’s wiring during the relay’s de-energized state.)
SW4-1 = OFF to supervise wiring to ON1 fan control relay.
ON if circuit lacks ON1 fan control relay (or if
supervision not wanted).
Layout,
Switch SW4
SW4-2 = OFF to supervise wiring to OFF1 fan control relay.
ON if circuit lacks OFF1 fan control relay (or if
supervision not wanted).
SW4-3 = OFF to supervise wiring to ON2 fan control relay.
ON if circuit lacks ON2 fan control relay (or if
supervision not wanted).
SW4-4 = OFF to supervise wiring to OFF2 fan control relay.
ON if circuit lacks OFF2 fan control relay (or if
supervision not wanted).
Note: If an SW4 switch is turned OFF, the appropriate TBL (yellow) LED on the fan control module
illuminates - and the 4002 panel indicates trouble -when an open exists in the fan control relay
circuit.
E. DIP Switch SW3 on the CPU Module (Figure 4-l - page 4-2)
Set the switches on switch package SW3 as shown below
Number of devices (SCUs/RCUs, fan control units, etc.) in system
Numberr Switch
3 4 5 6 7 8 9 10 11 12 131
3FF ON
‘I
2m
3m
4m
SW3-1 ON OFF ON OFF ON OFF ON OFF ON OFF ON OFF ON OFF ON OFF
SW3-2 ON ON OFF OFF ON ON OFF OFF ON ON OFF OFF ON ON OFF OFF
SW3-3 ON ON ON ON OFF OFF OFF OFF ON ON ON ON OFF OFF OFF OFF
SW3-4 ON ON ON ON ON ON ON ON OFF OFF OFF OFF OFF OFF OFI= OFF
6. FAN CONTROL RELAYS Kl AND K2 MUST BE 24VDC THAT
OPERATE BETWEEN O-150 mA.
7. ALL CONDUCTORS MUST TEST FREE OF GROUNDS.
= 24 VDC @ 0.1 mA
1.2 Amps @ 24 VDC:
------m--w-,-
4-42
Page 79
14. Expansion Power Supply (Figure 4-40)
The expansion power supply is used when the 5 Amps of available system power is exceeded. This is a filtered
power supply, with a 5 Amp output capability. The voltage will vary between 20.4 VDC (minimum) to 32 VDC
(maximum) over the full range of input voltages (102 - 132 VAC) and output loads. An optional regulator circuit
is connected to filter the power supply and provide a 24 VDC output. Like the 4002 power supply, this is also
a power limited power supply.
A. Supervision
The expansion power supply contains a supervisory circuit which monitors loss of DC power or a blown
fuse. The trouble will be indicated by the power trouble LED on the CPU module. A cable connects to P7
on the CPU module of this module to provide supervision.
B. Packaging
The expansion power supply is mounted on a plate 20 inches long which mounts between the expansion
row’s rail, behind the modules. The power wiring and fuses are accessible on the left side of the assembly.
When using the filtered supply, the last four inches of space on the right-hand side of the expansion row
must have a blank cover, and no expansion modules can mount here. If a regulated supply is used, the last
eight inches of space must have two 4-inch blank covers. The 120 VAC wiring is connected on the right-
hand side to 4-pin terminal block.
4 X 6 INCH EXPANSION MODULES
BATTERY BATTER!
C. Connections
1. Field Wiring
Field wiring is terminated on connector TBl and the 120VAC input connector. These connections are
shown below.
4 UNIT PACKAGE
PLACEMENT RULES
1) WHEN 4002-0110 POWER SUPPLY
IS ON SVSTEM ORDER, PLACE
ONE BLANK 4 INCH MODULE IN
POSITION MARKED “B”. NO
OTHER MODULES CAN BE PLACED
HERE.
2) WHEN 4002-0111 REGULATED
POWER SUPPLY IS ON SYSTEM
ORDER, PLACE 2 FOUR INCH
BLANK MODULES IN THE
POSITIONS MARKED “A” I “8”.
NO OTHER MODULES CAN BE
PLACED HERE.
6 UNIT PACKAGE
4 X 6 INCH EXPANSION MODULES
PLACEMENT RULES
1) WHEN 4002-0110 POWER SUPPLY
IS ON SYSTEM ORDER, PLACE
ONE BLANK 4 INCH MODULE IN
POSITION MARKED “B”. NO
OTHER MODULES CAN BE PLACED
HERE.
2) WHEN 4002-0111 POWER SUPPLY
IS ON SYSTEM ORDER, PLACE
TWO 4 INCH BLANK MODULES IN
THE POSITIONS MARKED “A” &
“B”. NO OTHER MODULES CAN BE
1. Outputs marked +24A and -24A are power limited. These outputs can supply together a maximum of 4
Amps (total supply rated 5 Amps for A and B outputs).
2. Outputs marked +24B and -24B are power limited. These outputs can together supply a maximum of 4
Amps (total supply rated 5 Amps).
3. All wiring supervised.
4. Electrical ratings
4002-0110 (Filtered Supply) -20.4 -32\IDC
5 Amps (Total for A and B outputs).
4002-0111 (Regulated supply) -24VDC + 5%
5 Amps Maximum (Total for A and B outputs).
5. Wiring is the same for the filtered supply (4002-0110) and the regulated supply (4002-0111).
.2. Panel Wiring (See Figure 4-40)
The signal power supply module on the expansion power supply contains 11 connectors. Their purpose is as
follows:
TBI - Field Wiring - (See Field Wiring above)
TB2 -Transformer Connections
1 - Blue/White outer winding (42 V peak-to-peak)
2 - Fled/Blue inner winding (33 Volts peak max.)
3 - Red/Yellow center tap (9 amps RMS -fused F3)
4 - Red ironer winding (33 Volts peak max.)
5 - Blue outer winding (42 V peak-to-peak)
6 - Not used
Pl - Battery
Use Harness #733-548 to connect Pl to the battery.
1 - Black (- Battery)
0
2 - Fled ( + Battery)
0
El
P2 - Supervision
This connector is used to tie the power supply to an external controller, or to daisy chain signals between power
supplies. This harness connects to P7 on the 562-909 CPU module.
P3 - Supervises Additional Expansion Power Supplies
This harness connects to P2 of an addition expansion power supply, if used in the system. It provides the same
supervision functions as P2.
0
1 - PMSO
2 -COIL
0
3 - 0 VOLTS
0
ul
P4 - 24 Volt Output
This is a 24 Volt output to devices requiring this voltage.
1 - Red (+24 Volts)
2 - Black (0 Volt return)
P5 - 24 Volt Output
This output is the same as P4.
P6 - 24 Volt Output
This output is the same as P4.
P7 - 24 Volt Output
This output is also the same as P4.
P8 - Meter Connector
This connector is used when a meter module is connected to an expansion power supply.
P9 - Regulator Module Connector
This connector is used when,a regulator module is required. It provides 24 Volts f 5%.
PlO - Capacitor Connector
This connector is used to connect the large capacitors which are mounted next to the signal power supply
module.
D. Jumpers (See Figure 4-40)
The following jumpers are used to configure the expansion power supply.
JWl - Clip if a meter module is connected to P8.
JW2, JW3, and JW4 - Required for filtered operation.
JW5 and JW6 - Required for regulated operation.
JW7 - Jumper JW7 is used for power module supervision input (PMSI). When more than one expansion power
supply is used in a system, the power supplies are daisy-chained together by P2 and P3 connections. Only the
last supply in line should have JW7, and all other expansion power supplies must have JW7 clipped out.
The 4002 provides a battery meter option by two methods. For the first release of the 4002, the off-board 4001
meter module is used. This mounts in a 6-gang electrical box and must be mounted adjacent to the panel. The
second option is an on-board package. These meters mount in a 4 x 6 inch assembly and mount like an
expansion module. The meters indicate battery voltage and charging current. The voltmeter is 0 to 50 VDC
and the ampmeter is -10 to +lO amps. It connects to P8 on the expansion power supply module through cable
Place meter module in the far right-hand side of
expansion row, unless:
(A) 4002-0110 is part of the system1 order, then
place four inches to the left.
(B) 4002-0111 is part of the system order, then
place eight inches to the left.
4 X 6 INCH EXPANSION MODULES
4 X 6 EXPANSION MODULES
/
4X6lNCH
,EXPANSION
MODULES
IF NO ROOM IS AVAILABLE FOR PLACEMENT OF THE METER MODULE IN NORMAL POSITIONS, IT CAN MOUNT IN UNUSED
SPACE IN THE LOWER CPU ROW. WHEN NO OTHER ROOM IS AVAILABLE, ALWAYS PLACE AS SHOWN:
The Style 6 suppression module is a special adapter module designed to protect standard Style I3 monitor
zones without requiring additional cabinet space. This module is 3.25 x 4.5 inches and is used when systems
do not require Style D operation and transient protection is required.
A. Mounting
The Style B suppression module mounts directly under the monitor zones (CPU module, 4 or 8-point
expansion modules), connected in a sandwiched configuration. This module provides the terminals for
the connection to the field wiring for a Style B monitor zone.
2 UNIT PACKAGE
11 ri
4 AND 6 UNIT PACKAGE
B. function
The Style B suppression basic function is suppression. Its purpose is to provide suppression without using
cabinet space. This module is useful in after-market retrofits.
This section contains information for adjusting the brown out circuit and the battery charger in the 4002 Fire Alarm
System. The following tools and test equipment are required for these procedures:
l
Flat tip screwdriver (Battery Charger).
l
Voltmeter (all).
l
Alignment tool (all).
l
1000 (1 K) Ohm resistor (Battery Charger).
l
Variac (Brown Out).
2. Brown Out Alignment (Figure 5-l)
This circuit will indicate a trouble (POWER TROUBLE LED will illuminate) when the line voltage drops to
approximately 102 to 106 VAC, and the system will switch to battery power. The system will switch back to AC
supplied voltage when the line voltage returns to 108 VAC. This is a factory set adjustment and should not be
performed unless absolutely necessary. Potentiometer R88 should be sealed.
Figure 5-l shows the location of components on the CPU module which are used during this procedure. Perform
the following procedures to adjust the brown-out circuit:
Ensure the CPU module is fully operational and that no problems exist in the system.
a.
Remove battery power by disconnecting connector P6 on the CPU module.
b.
Remove the AC input wires from terminal TB5.
C.
d.
Apply 102 VAC to the AC input (TB5) of the transformer with the variac.
e.
Slowly adjust potentiometer R88 until the “POWER TROUBLE” LED goes on and relays K8 and K9 on the
power supply module trip. DO NOT ADJUST PAST THE TRIPPING POINT.
Raise the AC voltage from the variac to 120 VAC.
f.
Replace the battery cable to P6 on the CPU module.
9.
h.
Set the voltage from the variac to 102 VAC and the system should switch to the batteries.
i.
Set the voltage from the variac to 108 VAC and the system should switch back to AC power.
Repeat steps 8 and 9 several times to insure switching from AC to battery power. When switching is correct,
j.
continue.
k.
Remove the battery connector from connector P6 of the CPU module.
I.
Turn off, and remove the variac wiring from connector TB5 of the CPU module.
m.
Replace the 120 VAC power input wires to connector TB5.
n.
Turn on the AC input power at the dedicated circuit breaker box.
0.
Replace the battery connector to P6 on the CPU module.
The battery charger normally provides a trickle charge to the batteries at 27.6 VDC +/- 0.5 VDC. The charger can
output a maximum of 1.5 Amps of current when the batteries are low (20.4 VDC). The trickle charge when the
batteries are fully charged is 10 mA. This circuit is protected by F3, an 8 Amp fuse.
NOTE: The first of the following procedures is for CPU modules, Revision A, B, and C. The second and third
procedures are for CPU modules Rev. D and later. The “SYSTEM RESET” push button may require
pressing to start the battery chiarger. If the batteries are very low or disconnected, the battery charger will
turn off because the system detects a “no battery” condition. The power trouble LED will stay illuminated
IB. Lead Acid Battery Charging Adjustment (562-909 CPU modules, Revs. D and later) (Figures 5-3 and 5-4)
a. Disconnect the batteries by removing the battery cable from connector P6.
b. Measure the voltage across connector f%, observing polarity.
c. (See Figure 5-3) Place the alignment tool through the hole in the CPU module to reach resistor R114.
d. Adjust R114 on the power supply module until the output reads 27.6 VDC.
e. Connect the battery cable to the batteries.
NOTE: The 4002 periodically (once a minute) turns off the battery charger output to verify that the batteries are
connected. If they are not connected, it remains off. If this occurs while adjusting the batteries, press the
“System Reset” push button to restore the charger voltage.
C. NICAD Battery Charging Adjustment (562-909 CPU Modules, Rev. D and later) (Figures 5-3 and 5-4)
a. Disconnect the batteries by removing the connectors from the batteries.
b. Connect a 1000 (1 K)Ohm resistor across the battery cable.
c. (See Figure 5-3) Place an alignment tool through the hole in the CPU module to reach resistor R114.
d. Adjust resistor R114 until 25.5 VDC is read across the 1 K Ohm resistor.
This section should be used when removing/installing the various units within the 4002 panel. It contains caution
statements which must be observed to prevent damage to equipment or injury to personnel.
The only tools required to remove/install assemblies within the 4002 system are two flat tip screwdrivers and
diagonal pliers.
CAUTIONS
1. Notify the customer prior to repairing the system.
2. Remove AC and DC power before removing modules from the system.
3. Test the system after making repairs to ensure proper operation.
4. Care must be taken to avoid contact and potential static damage to the printed circuit boards during this
process. A grounding wrist stamp should be used.
This section contains remove/replacement procedures for the following items:
I
I
1. Door
2. Retainer
3. Expansion Module Covers
4. Fuses
5. Cables
6. Rack Set
7. Modules
1. Door
To Remove:
A. Unlock the 4002 Fire Alarm Panel door.
B. Remove one end of the green ground strap located in the upper left side of the door.
C. Remove the door from the back box hinges by gently lifting straight up on the door.
D. Place the door in a safe location.
To Install:
A. Replace the door on the back box hinges and gently push down until the door rests firmly on the hinges.
B. Replace the one end of the green ground.
C. Lock the 4002 fire alarm panel door.
2. Retainer
To Remove:
A. Squeeze the two black plastic retaining tabs which are located at the upper center of the retainer, then pull
forward until the top of the retainer releases from the back box.
B. Lift the retainer up to release the bottom of the retainer from the back box lip.
A. Place the lower portion of the retaliner into the lip of the back box.
B. Center the two black plastic retaining t(abs over the two slots in the back box.
C. Squeeze the two black plastic retaining tabs and push in to secure the retainer to the back box.
3. Expansion Module Covers
The black expansion module covers come in i:wo sizes: 2 x 6 inches and 4 x 6 inches. Each cover is labeled to ,
identify a specific expansion module, and rnay contain holes for LEDs or for switches. These covers also are slotted 1
on both sides to overlap each other. When removing these covers, start with the cover on the far right side of a rack
set, and remove from right to left. When replacing the covers, start on the left side of a rack set and replace from left
to right.
To Remove:
A. Place your thumb on top of the cover and your fingers on the bottom of the cover.
B. Press down with your thumb and gently pull the cover until the top tabs release from the module.
C. Press the bottom with your fingers, working the cover up and down, until the lower tabs release from the
module.
D. Place the cover in a safe location.
To Install:
A. Place your thumb on top of the cover and your fingers on the bottom of the cover.
B. Line the lower tabs up with the holes on the expansion module.
C. Gently push the tabs into the lower holes in the module.
D. Press down with your thumb, and press the tabs into the upper module holes. This should secure the
module cover.
E. Use caution when replacing covers to prevent bending of LEDs.
4. Fuses
The CPU module and several of the expansion modules have fuses which are replaced as required. All replaceable
fuses are mounted in fuse clips for easy replacement. Several modules in the 4002 system have fuses which are
soldered on the module. These hardwired fuses are a U.L. requirement.
REPLACEMENT FUSES MUST HAVE THE EXACT VOLTAGE AND CURRENT RATINGS AS SPECIFIED IN
THIS MANUAL. FAILURE TO USE EXACT REPLACEMENT FUSES COULD RESULT IN FAILURE OF THE
4002 SYSTEM AND LOSS OF LIFE OR PROPERTY.
To Remove:
A. Disconnect the transformer cable from connector P4.
B. Disconnect the battery cable from connector P5.
C. Disconnect the expansion power supply, if applicable.
D. Remove the fuse from the fuse clap or unsolder U.L. fuses.
A. Observe the CAUTION shown on page 5-2. Use exact replacement fuse.
B. Insert the new fuse into the fuse clip/solder in U.L. fuses.
C. When applicable, connect the expansion power supply.
D. Connect the transformer by replacing the 6-wire cable to connector P4.
E. Connect the battery by replacing the 2-wire cable on P5.
F. Test the effected circuit to insure its proper operation.
5. Cables
Various cables are used to connect signals and power to the assorted modules within a 4002 system. The ribbon
cables have no guide pins and may be installed incorrectly on any module. The power cable from the battery will
also incorrectly mate with connector P5. Connector P20 (gold colored, hardwired ribbon connector) on the bottom
of the CPU module is connected to the power supply which is located behind the CPU module. This cable provides
input power to the power supply.
USE EXTREME CAUTION WHEN CONNECTING/DISCONNECTING THE RIBBON CABLES FROM THEIR
CONNECTORS. PULL ONLY ON THE CONNECTORS OF THE RIBBON CABLES WHEN REMOVAL IS
REQUIRED. ENSURE THE CABLES ARE PROPERLY INSTALLED AND THAT ALL PINS ARE MATED IN THE
CONNECTOR. THE GRAY IO-PIN RIBBON CABLES SHOULD BE INSTALLED WITH A TWIST AND THE
ARROWS ON THE CONNECTORS CONNECTED TO PIN 9. POLARITY MUST BE OBSERVED WHEN
CONNECTING ALL POWER CONNECTIONS.
6. Rack Set
The rack set is a complete set of modules which are mounted on a metal rail. There are two sizes of rack sets
in the 4002 system, the large CPU rack set, and the small upper and lower rack sets (depending on system size).
Two sizes of flat tip screwdrivers are required to remove/replace the rack sets, a small screwdriver for field wiring
and a large for rack screws. Use a grounded wrist strap when removing/replacing rack sets.
To Remove:
A. Remove battery power from the CPU module by disconnecting P5
B. Remove AC power from the system by opening the dedicated AC input circuit breaker.
C. Carefully mark one end of each ribbon cable, wiring harness, and each wire within the field wiring which
is terminated on the rack set to be removed.
D. Remove all cables, field wiring and wiring harnesses from the rack set to be removed.
E. Loosen the six screws for the rack set to be removed.
F. Lift the rack set straight up and remove it from the back box.
G. Place the rack set in a safe location.
To Install:
A. Lift the replacement rack set into the back box and place it on the six loosened screws.
B. Secure the six screws that hold the rack set in the back box.
C. Replace all cables, field wiring and cable harnesses.
D. Reconnect battery power to the CPU module by replacing connector P5.
Each module within the 4002 system is secured to a rack set with four screws (except CPU module). Each screw
is attached to a standoff which provide clearance for sandwiching modules. Each of the four screws must be
removed before the module can be replaced.
Use a ground wrist strap when removing/rep/acing modules. Two flat tip screwdrivers are required for module
removal/replacement. A small screwdriver is required for field wiring and a large one for module screws.
A. CPU Module
To Remove:
1. Disconnect connector P5 to remove battery power.
2. Remove AC power at the dedicated power breaker box.
3. -Disconnect connector P4 (transformer).
4. Disconnect connector TB5 (AC power input to CPU module).
5. Disconnect connector P6 (to signal expansion modules) if required.
6. One wire at a time, disconnect and /abe/ all contractor field wiring that terminates on the CPU/power supply
module.
NOTE:
NOTE:
Do not disconnect the wires from the CPU module’s Style D module (if present).
7. Disconnect the 40-pin ribbon cable from Pl (if present).
8. Disconnect the lo-pin ribbon cables from SPRl and SPR2 (if present).
9. Hold the CPU module in place and rerrlove the six screws which secure the CPU module to the rack.
10. Gently remove the CPU module.
If this CPU module is configured for Style D operation, unplug the Style D adaptor module from the CPU
module. Do not disconnect the field wiring from the Style D adaptor module.
11. Place the replacement module beside the defective module, and perform the following:
a. Remove E.O.L. resistors from ,the defective module and install them carefully on the new replacement
module (if required).
b. Set DIP switch, SWl, on the new module to be the same as the defective module’s SWl.
C.
Set DIP switch, SW2, on the new module to be the same as the defective module’s SW2.
d. Set DIP switch, SW3, on the new module to be the same as the defective module’s SW3.
e. Set DIP switch, SW1 1, on the new module to be the same as the defective module’s SW1 1.
f. Check for clipped resistors on the defective CPU module. Clip the same resistors on the replacement
module.
g. Set the jumpers to configure the city connection (Jl) to be the same as those on the defective module.
h. If system configuration contains the ESP option, remove the ICs from U25 and U26 and install them in the
replacement CPU module.
i. Check all jumpers on the CPU module to determine which have been clipped. Clip the same jumpers
on the new CPU module.
6-4
Page 97
To Install:
1. Plug in the Style D adaptor module (if required).
2. Position the CPU module in its correct position in the back box and tighten the six screws to secure the CPU
module.
3. Replace the contractor installed field wiring, which was marked during CPU removal procedures. Replace
this wiring one-wire-at-a-time.
4. Replace the signal expansion module wiring harness at connector P6.
5. Replace the transformer connector to P4.
6. Connect the AC input wiring to TB5.
7. Apply AC power at the dedicated power breaker box.
8. Connect the batteries by connecting the battery harness to P5.
9. Test the system to ensure proper operation.
B. Style D Adaptor Module
To Remove:
The Style D adaptor module is mounted behind the CPU module, 4 or 8-zone expansion module, which must
be removed prior to removal of this module. To remove the Style D adaptor module, perform the following
procedures:
1. Disconnect connector P5 to remove battery power.
2. Remove AC power at the dedicated power breaker box.
3. Disconnect connector P4 to disconnect the transformer.
4. Disconnect connector P6 (to signal expansion module) if required.
5. One-wire-at-a-time, disconnect and mark all contractor field wiring which terminates on the CPU/Zone
module.
6. Mark and disconnect the wires from Style D adaptor module.
7. Disconnect the 40-pin ribbon cable from Pl (if present).
8. Hold the module in place and remove the screws which secure the module in the rack.
9. Unplug the Style D adaptor module from the 13-pin connector on the module.
10. Remove the module from the rack, and place it in a safe location.
11. Remove the four screws which secure the Style D adaptor module to the rack. These screws attach to l/2
inch stand-offs.
To Install:
1. Place the replacement Style D adaptor module, terminals up, on the four stand-offs.
2. Install the four screws to secure the module to the rack.
3. Carefully plug the module into the Style D adaptor module.
4. Replace the screws which secures the module to the rack.
5. Connect the field wiring, as marked during removal procedures, to the Style D adaptor module.
6. Connect the field wiring, which was marked during removal procedures, to the module.
7. Connect the 40-pin ribbon cable to connector Pl (if applicable).
8. Connect connector P6 (to signal expansion modules) if required.
9. Connect the transformer cable to the connector P4.
10. Turn on AC power at the AC breaker Elox.
11. Connect the batteries by replacing the battery cable on connector P5.
12. Test the system to ensure proper operation.
C. g-Zone Expansion Module
To Remove:
1. Disconnect the batteries by disconnecting connector P5.
2. Disconnect AC power to the system al the dedicated breaker box.
3. One-wire-at-a-time, disconnect and mark aI1 field wiring which terminates on TBl and TB2.
4. Remove the 40-pin ribbon cable from connectors Pl and P2.
5. Remove the 1 O-pin ribbon cables from connectors SPRl and SPR2. Mark the connections of each cable (if
applicable).
6. Remove the screws which secure the
7. Place the defective module beside the replacement module and check for clipped jumpers and resistors.
Clip the same resistors and jumpers on the replacement module. Remove all E.O.L. resistors from the
defective module and place these on the replacement module to terminate unused circuits. (if required).
Clipping these resistors and jumpers will reconfigure the system.
To Install:
1. Place the replacement module over the standoffs and replace the screws to secure the module to.the rack.
2. Connect the field wiring which was marked during removal procedures. This field wiring connects the TBl
and TB2.
3. Connect the 1 O-pin ribbon cable(s) to SPRl and SPR2. The arrow on the connector should line up with pin
9, and there should be a twist in the ribbon cable.
4. Connect the 40-pin ribbon cables to connectors Pl and P2.
5. Turn on AC power to the system at the declicated breaker box.
6. Connect battery power by connecting wiring harness to P5 on the CPU module.
7. Test the system to ensure proper operation.
D. 4-Zone Expansion Module
tnOdlJlf3
to the rack.
To Remove:
1. Disconnect battery power by disconnecting P5 on CPU module.
2. Disconnect AC power to the system at the breaker box.
3. One-wire-at-a-time, disconnect and mark all field wiring to connector TBl.
4. Mark and disconnect the 1 O-pin ribbon cable.
5. Remove the 40-pin ribbon cables from connectors Pl and P2.
6. Remove the four screws which secure the module to the rack.
7. Place the defective module beside the replacement module and check for clipped jumpers and resistors.
Clip the same resistors and jumpers on the replacement module. Remove the E.O.L. resistors and place
these in the same position on the new module to terminate unused circuits (if applicable).
5. Remove the four screws which secure the module to the rack.
6. Place the replacement module beside the defective module and check for clipped jumpers on the defective
module. Clip the same jumpers on the replacement module.
To Install:
1. Position the replacement module over the standoffs and install the four screws which secure the module to
the rack.
2. Connect the field wiring to connector TBl.
3. Connect the 1 O-pin ribbon cable to connector Pl , ensuring that the arrow points to pin 9.
4. Turn on AC power at the system breaker box.
5. Connect connector P5 on the CPU module to apply battery power.
6. Test the system to ensure proper operation
H. Signal Expansion Module
To Remove:
1. Remove battery power by disconnecting P5 on the CPU module.
2. Disconnect AC power at the dedicateld breaker box.
3. Remove connector P3.
4. Remove the 40-pin ribbon cable from connector Pl and, if applicable, from P2.
5. One-wire-at-a-time, disconnect and fJJark all field wiring to connector TBl.
6. Remove the four screws which secure the module to the rack.
7. Place the replacement module beside the defective module and check for clipped jumpers. Clip the same
jumpers as are clipped on the defective module. Move the E.O.L. resistors (if any) from the defective module
on the replacement module.
To Install:
1. Position the replacement module over the four standoffs and secure it in position with the four screws.
2. Reconnect the field wiring to TBl.
3. Connect the 40-pin ribbon cable(s) to Pl and P2, if applicable.
4. Connect connector P3, observing polarity.
5. Apply AC power at the dedicated system circuit breaker box.
6-8
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