Simplex 4010ES Installation Manual

4010ES
Fire Alarm System

Installation
Guide

579-989
Rev. M

Copyrights, Trademarks, Cautions, Warnings and Regulatory Info

Copyrights and Trademarks

Cautions, Warnings and Regulatory Information

©2011 - 2016 Tyco Fire Protection Products. All rights reserved.
Specifications and other information shown were current as of publication and are subject to

change without notice. TYCO, SIMPLEX, and the product names listed in this material are
marks and/or registered marks. Unauthorized use is strictly prohibited.

READ AND SAVE THESE INSTRUCTIONS- Follow the instructions in this installation

manual. These instructions must be followed to avoid damage to this product and asso ciated
equipment. Product operation and reliability depend upon proper installation.

DO NOT INST ALL ANY SIMPLEX® PRODUCT THAT APPEARS DAMAGED- Upon

unpacking your Simplex product, inspect the contents of the carton for shipping damage. If
damage is apparent, immediately file a claim with the carrier and notify an authorized Simplex
product supplier.

ELECTRICAL HAZARD - Disconnect electrical field power when making any internal adjust-

ments or repairs. All repairs should be performed by a representative or authorized agent of
your local Simplex product supplier.

ST ATIC HAZARD - Static electricity can damage components. Handle as follows:

• Ground yourself before opening or installing components.

• Prior to installation, keep components wrapped in anti-static material at all times.

EYE SAFETY HAZARD - Under certain fiber optic application conditions, the optical output of

this device may exceed eye safety limits. Do not use magnification (such as a microscope or
other focusing equipment) when viewing the output of this device.

FCC RULES AND REGULATIONS – PART 15 - This equipment has been tested and found to

comply with the limits for a Class A digital device pursuant to Part 15 of the FCC Rules. These
limits are designed to provide reasonable protection against harmful interference when the
equipment is operated in a commercial environment. This equipment generates, uses, and can
radiate radio frequency energy and, if not installed and used in accordance with the instruction
manual, may cause harmful interference to radio communications. Operation of this equipment
in a residential area is likely to cause harmful interference in which case the user will be
required to correct the interference at his own expense.

SYSTEM REACCEPT ANCE TEST AFTER SOFTWARE CHANGES - T o ensure proper system

operation, this product must be tested in accordance with NFPA 72® after any programming
operation or change in site-specific software. Re-acceptance testing is required after any
change, addition or deletion of system components, or after any modification, repair or
adjustment to system hardware or wiring.

All components, circuits, system operations, or software functions, known to be affected by a
change must be 100% tested. In addition, to ensure that other operations are not inadvertently
affected, at least 10% of initiating devices that are not directly affected by the change, up to a
maximum of 50 devices, must also be tested and proper system operation verified.

NFPA 72® is a registered trademark of the National Fire Protection Association.

iii

Table of Contents

Copyrights, Trademarks, Cautions, Warnings and Regulatory Info............................. iii

Copyrights and Trademarks ................................................................................................... iii

Cautions, Warnings and Regulatory Information ...................................................................iii

Chapter 1 Overview ...........................................................................................1-1

Introduction ..........................................................................................................................1-1

In this chapter ............... .. ............................................. ... ............................................. ........1-1

Standalone configuration ...............................................................................................1-2

Overview ..............................................................................................................................1-2

Standalone system layout ....................................................................................................1-2

Network configuration .....................................................................................................1-3

Overview ..............................................................................................................................1-3

Connecting network loops ....................................................................................................1-4

Network communication .......................................................................................................1-4

Chapter 2 Basic Hardware ................................................................................ 2-1

Introduction ..........................................................................................................................2-1

In this chapter ................................................... ... ............................................. .. .................2-1

CPU ...................................................................................................................................2-2

Overview ..............................................................................................................................2-2

CPU LEDs ............................................................................................................................2-3

CPU jumper settings ............................................................................................................2-5

CPU switches .......................................................................................................................2-6

CPU connectors/ports/terminal block ...................................................................................2-6

CPU card specifications .......................................................................................................2-7

Operator interface ...........................................................................................................2-8

Overview ..............................................................................................................................2-8

Main system supply (MSS) .............................................................................................2-9

Overview ..............................................................................................................................2-9

MSS LEDs and jumpers .....................................................................................................2-11

MSS specifications .............................................................................................................2-12

48-LED Module ...............................................................................................................2-14

Overview ............................................................................................................................2-14

48-LED Module specifications ...........................................................................................2-15

System power ...................................... ... ... .... ... ... ... .... ... ... ... .... ... ... ................................2-16

Main system power ............................................................................................................2-16

Backup batteries ................................................................................................................2-16

Chapter 3 Panel configurations ........................................................................3-1

Introduction ..........................................................................................................................3-1

In this chapter ................................................... ... ............................................. .. .................3-1

One-bay 4010ES Panels ..................................................................................................3-2

Overview ..............................................................................................................................3-2

Optional modules .............................................. ... ................................................................3-4

Back box mechanical specifications ....................................................................................3-5

Two-bay 4010ES Panels ............ .... ... ... ... ... .......................................... .... ... ... ..................3-6

Overview ..............................................................................................................................3-6

Optional modules .............................................. ... ................................................................3-9

Back box mechanical specifications ....................................................................................3-9

v

Table of Contents

Chapter 4 Orderable panels and devices ........................................................ 4-1

Introduction ..........................................................................................................................4-1

In this chapter ................................................... ... ............................................. .. .................4-1

Panels ...............................................................................................................................4-2

One-bay 4010ES Panels .....................................................................................................4-2

Two-bay 4010ES Panels .....................................................................................................4-2

Optional modules ... ... ... .... ... ... ... .... ... ... ............................................................................4-3

Local optional modules ..................................... ... ............................................... ... ..............4-3

Remote devices ...................................................................................................................4-4

Adjunct features ...................................................................................................................4-5

End user programming tools ................................................................................................4-5

LED kits for the 48-LED Module ..........................................................................................4-5

Chapter 5 Installing 4010ES systems ..............................................................5-1

Introduction ..........................................................................................................................5-1

In this chapter ................................................... ... ............................................. .. .................5-1

Mounting the panel ..........................................................................................................5-2

Installing the back box .........................................................................................................5-2

Attaching the dead front .......................................................................................................5-3

Attaching doors ....................................................................................................................5-4

General field wiring guidelines ......................................................................................5-5

Power-limited guidelines ......................................................................................................5-5

Connecting 4010ES basic components .........................................................................5-7

Connecting the CPU and the operator interface ..................................................................5-7

Connecting the MSS ............................................................................................................5-9

Connecting the 48-LED Module .........................................................................................5-10

RUI wiring .......................................................................................................................5-11

Overview ............................................................................................................................5-11

Installing the optional modules .............................................. ................................ ......5-13

Overview ............................................................................................................................5-13

Installing one-block and two-block cards ...........................................................................5-13

Address configuration DIP switch ...............................................................................5-14

Overview ............................................................................................................................5-14

Connecting main system power ...................................................................................5-16

Overview ............................................................................................................................5-16

Panel power-up sequence .................................................................................................5-16

Chapter 6 MSS field wiring ...............................................................................6-1

Introduction ..........................................................................................................................6-1

In this chapter ................................................... ... ............................................. .. .................6-1

Power supply wiring distances ......................................................................................6-2

Overview ..............................................................................................................................6-2

Class A NAC wiring table ..................................... ... .. ................................................ ... ... .....6-2

Class B NAC wiring table ..................................... ... .. ................................................ ... ... .....6-3

MSS NAC field wiring guidelines ...................................................................................6-4

Guidelines ............................................................................................................................6-4

MSS NAC wiring ..............................................................................................................6-5

Class A NAC Wiring ................................................................... ..........................................6-5

Class B NAC wiring ........................................................................................... .. .................6-6

vi

Table of Contents

MSS IDNet wiring .............................................................................................................6-7

Overview ..............................................................................................................................6-7

Wiring parameters ................................................................................................................6-7

Class A wiring ......................................................................................................................6-8

Class B wiring ......................................................................................................................6-9

MSS auxiliary power wiring ..........................................................................................6-10

Guidelines ..........................................................................................................................6-10

Wiring .................................................................................................................................6-11

MSS auxiliary relay wiring ............................................................................................6-12

Guidelines ..........................................................................................................................6-12

Wiring .................................................................................................................................6-12

Chapter 7 PC software connections ................................................................7-1

Introduction ..........................................................................................................................7-1

In this chapter ................................................... ... ............................................. .. .................7-1

Software modes ................ ... ... ... .... ... ... ....................................... ... ... ... .... ... ... ... .... ...........7-2

Software modes ...................................................................................................................7-2

Ethernet service port ........... ... ... .... ... ... ... ... ......................................................................7-4

Ethernet service port overview .............................................................................................7-4

Chapter 8 System wiring checkout and earth fault diagnostics ...................8-1

Introduction ..........................................................................................................................8-1

In this chapter ................................................... ... ............................................. .. .................8-1

Checking system wiring .................................................................................................8-2

Overview ..............................................................................................................................8-2

Using the multimeter ............................................................................................................8-2

Meter readings .................................................. ............................................. ... .. .................8-3

Earth fault diagnostics ....................................................................................................8-4

Overview ..............................................................................................................................8-4

General guidelines .................................................. .. ...........................................................8-4

Earth fault searching from the front panel ....................................................................8-6

Overview ..............................................................................................................................8-6

Access level selection ..........................................................................................................8-6

Starting the Earth Fault Search ............................................................................................8-6

Search Option A: Select Location ........................................................................................8-7

Search Option B: Select Location ........................................................................................8-7

Search Option C: Last Search Result ..................................................................................8-8

Completing the search .........................................................................................................8-8

Earth fault search results ...............................................................................................8-9

Overview ..............................................................................................................................8-9

Non-point faults ....................................................................................................................8-9

Point Faults ..........................................................................................................................8-9

Fault Not Found ............................................................................ ... ... ...............................8-10

No Fault .............................................................................................................................8-10

Result Not Available ...........................................................................................................8-10

Chapter A ULC programming requirements ...................................................A-1

Introduction .........................................................................................................................A-1

In this chapter ................................................... ... ............................................. .. ................A-1

vii

Table of Contents

Common earth fault ground indicator .......................................................................... A-2

Overview .............................................................................................................................A-2

Step 1. Open CPU card properties dialog ...........................................................................A-2

Step 2. Program the LED .................................................................................................... A-3

Simultaneous alarm display .......................................................................................... A-4

Overview .............................................................................................................................A-4

Creating annunciation zone lists .............................................................. ... ........................A-4

Programming the address and mode for each LED ............................................................A-5

Setting alarm verification timer to Canadian operation .............................................. A-7

Introduction .........................................................................................................................A-7

Procedure ...........................................................................................................................A-7

Setting Alarm Reset/Inhibit Timer ................................................................................. A-8

Overview .............................................................................................................................A-8

Enabling Alarm Reset/Inhibit Timer .................................................................................... A-8

Alarm Cutout Timer ........................................................................................................ A-9

Overview .............................................................................................................................A-9

Enabling Alarm Cutout Timer .............................................................................................. A-9

Chapter B UL programming requirements ......................................................B-1

Introduction .........................................................................................................................B-1

In this chapter ................................................... ... ............................................. .. ................B-1

Setting Alarm Verification to US operation .................................................................. B-2

Overview .............................................................................................................................B-2

Procedure ...........................................................................................................................B-2

Alarm Cutout Timer ........................................................................................................ B-3

Overview .............................................................................................................................B-3

Enabling Alarm Cutout Timer .............................................................................................. B-3

Non Steady Visual Evacuation system option ............................................................. B-4

Overview .............................................................................................................................B-4

Chapter C Simplex special application NAC-compatible notification appliances and

accessories ........................................................................................................C-1

Chapter D Cooper Wheelock appliances compatible with 4010ES Wheelock protocol

for special applications .....................................................................................D-1

Overview .............................................................................................................................D-1

Synchronizing horn strobes ................................................................................................ D-1

Synchronizing strobes .........................................................................................................D-2

Appliances with synchronizing strobes ...............................................................................D-3

Synchronizing horns ...........................................................................................................D-4

Coded audible appliances ...................................................................................................D-5

Non-synchronizing appliances ............................................................................................D-5

viii

Chapter 1

Overview

Introduction The 4100ES FACP panel is an expandable fire alarm panel, which can be used as a standalone

system, or can be networked with the following panels to create a larger network:

• 4002

• 4010

• 4020

• 4100

• 4100U

• 4100ES

• 4010ES

• 4007ES

• 4190 TrueSite Workstation

• 4190 TrueSite Incident Commander

• 4190 Network System Integrator
The 4100ES comes with basic system components pre-installed. This chapter provides an

overview of standalone and network 4010ES panel concepts:
Standalone. Comprised of on e 4010ES FACP and its assorted notification appliances,

initiating devices, and signaling line circuit devices.
Network. Multi-FACP systems connected by 4120 network cards. Each panel maintains the

status and control of its own circuit points, while monitoring and controlling activity at other
locations. Network nodes may perform similar tasks, or may be dedicated to specific
functions.

In this chapter This chapter covers the following topics:

Topic Page

Standalone configuration 1-2
Network configuration 1-3

1-1

Standalone configuration

4010ES Panel

Remote Annunciation
(Graphical or LCD)

TrueAlert Non-Addressable
Devices

TrueAlarm Thermal
Sensor with Base

Monitor and
Control ZAMs

Addressable Station

Remote Line Powered
Isolator

Supervised
IAM

TrueAlarm Smoke
Sensor with Base

To additional IDNet devices

4009A Series
Devices

TrueAlert Non-Addressable
Devices

to Device(s)

to Device(s)

RUI

TrueAlert Non-Addressable
Devices

TrueAlert Non-Addressable
Devices

4010ES NAC

IDnet

Note: Some 4009-series
devices are controlled
through RUI and not
IDNet

4009T or
4009TPS

TrueAlert Addressable
Devices

Overview The standalone version of the 4010ES is used for smaller, or single-building applications. A

standalone system is ideally placed into a small building that requires a limited number of
notification appliances and initiating devices.

If a small building is being expanded, or if other buildings are being constructed in the same
general area, as in a campus application, the standalone 4010ES can be upgraded to a network
system and linked with other 4010, 4100, 4100U, 4100ES and 4010ES panels to create a larger
network.

Note: You must order and install the 4010-9902 and the 4010-9922 network cards into the standalone

system to enable network functionality.

Standalone system layout

Figure 1-1 below shows the layout of the 4010ES standalone configuration.

Figure 1-1. Standalone 4010ES system

1-2

Network configuration

Ring Topology

Physical Bridge Links

(Star Topology)

TSW

Network Display Unit

(NDU)

Hub Node

Distributed Remote

Node Locations

Note: Physical Bridge
links in a 4010ES
requires a two-bay box

Overview The 4010ES can be expanded to a network system by using the 4010-9902 and the 4010-9922

network interface cards (NICs). When a NIC is installed into a 4010ES host panel, it is used to
connect to up to 98 other network nodes. Nodes may consist of other host 4010ES panels, or
they may be completely different: 4010ES FACPs and TrueSite Workstation (TSW) are
examples of what could be used as nodes. A node is a self-sufficient FACP that controls
appliances and devices, which also has the capability of controlling and communicating with
other nodes.

The network configuration supports two prevalent architectures or wiring configurations: hub
(or ring), or star. A networked system can also use a combination of the two.

The hub configuration consists of a main loop with nodes connected in a radial manner. The
star configuration consists of several nodes connected directly to one common node. Physical
bridge cards are used for the star configuration. Physical bridges reduce the amount of wire that
would otherwise be needed to connect all nodes in a loop. A combination of the two styles is
illustrated in Figure 1-2.

Figure 1-2. Hub/ring configuration

1-3

Network configuration, continued

Remote Loop

Physical Bridge Link

Local Loop

Physical Bridging

(Star Configuration - 3 max)

TSW

Physical

Bridge

Link

Physical Bridge Links

Hub Node

Hub

Node

Remote

Node

Connecting network loops

Network loops can be joined by using physical bridge cards. There may be no more than two
Style 7 network loops, two hub configurations, connected in tandem. For every two loops that
are interconnected using one physical bridge, there can be a maximum of three physical
bridges used in a star configuration. See Figure 1-3.

Network communication

Network communication is achieved using the 4010-9902 and the 4010-9922 NICs. Each
network node requires a NIC. Once the FACP is a network node, it may be programmed to be
fully in control of other nodes, to be fully passive, or anywhere in between.

The 4010-9902 and the 4010-9922 NICs are option cards that use a PDI connector to
communicate with the CPU. The NICs allow for communication between each panel using a
fiber or twisted shielded pair wire in a Style 4 or Style 7 wiring configuration.

The NICs are designed to be connected in a point-to-point arrangement, so that one wire fault
does not cause the entire system to fail. The point-to-point arrangement provides the most
secure and fault-tolerant wiring possible.

Two types of media cards can be used with the NICs:

• The Fiber-Optic Media (4010-9819) card can be used for electrically noisy environments,

• The Wired Media Card (4010-9818) is used in all other types of applications.
Up to two media cards can be plugged into each NIC. The same NIC can use a combination of

different types of media boards; for example, a NIC may have a Wired Media card connected
to the left port, a Fiber-Optic Media card connected to the right port.

For setup and installation of a physical bridge card, refer to document 579-184: 4100/4120/
4010-Series Physical Bridges and Media Modules.

Figure 1-3. Interconnected loop configuration

or for connecting externally to other buildings.

For setup and installation of network interface cards, refer to document 579-956: 4010ES
Network Interface and Media Card Installation Instructions.

1-4

Chapter 2

Basic Hardware

Introduction The 4010ES FACPs are one-bay or two-bay back boxes with a dead front and glass door,

containing a set of pre-installed basic system components:

• Dead front-mounted CPU (2x40 character LCD or InfoAlarm)

• Operator interface

• Main system supply (MSS) (notification appliance circuits and system power)

• 48-LED Module (for some 4010ES configurations)

• IDNet+ or MX Loop circuit (for initiating and other devices)

• PDI Blocks for optional modules
In addition to the basic modules, optional modules can be installed inside the one-bay or two-

bay 4010ES panels. The types of modules available depend on the panel configuration, as well
as the accessibility, and availability, of the power distribution interface (PDI) blocks. The
number of available PDI blocks depends on the system ordered. See Chapter 3, “Panel
Configurations.”

In this chapter This chapter covers the following topics:

Topic Page

CPU 2-2
Operator interface 2-8
Main system supply (MSS) 2-9
48-LED Module 2-14
System power 2-16

2-1

CPU

SUPERVISORY LED (LED17)

2x40 LCD

USER-DEFINABLE LEDs TROUBLE LED (LED16)
(LED11-LED14, LED21, LED22)

CONTROL KEY LEDs PRIORITY 2 ALARM LED AC POWER LED (LED20)
(LED23-LED25)

(LED18)

FIRE ALARM LED (LED19) ALARM SILENCED LED (LED15)

Note: All LEDs on the front side of the board are used for standard fire
alarm functions and are visible through the dead front membrane.

Overview The CPU card (Figure 2-1 and Figure 2-2) is the main decision maker in the 4010ES FACP. It

holds all job information, current system status, and communicates to all slaves connected to
the 4010ES panel. A 4010ES CPU contains the following features:

• 2 x 40 LCD display and piezo (non-InfoAlarm systems only) - Annunciation for

supervisory , trouble, priority 2 and fire alarm signals.

• Compact flash socket (card pre-installed) - Alternate exec and job storage.

• Ethernet service port - PC connection used by Simplex service personnel.

• Serial service port - Interface for service equipment or Simplex service personnel.

• Style 4/7 Remote Unit Interface - Remote connection to system components not located

within 4010ES box.

Figure 2-1. Dead front-mounted CPU with a 2 x 40 display (front view)

Continued on next page

2-2

CPU, continued

RUI TROUBLE LEDs (LED1-LED3)

RUI ENABLE JUMPER (P1)

BATTERY (BT1)
PIEZO CONNECTION (BUZ1)

BATTERY ENABLE LCD CONTRAST RUI SHIELD
COMPACT FLASH (P3) JUMPER (P5) ADJUST (R23) JUMPER (P2)

COLD START KEYPAD MEMBRANE 24V POWER/COMMS
SWITCH (SW3) CONNECTOR (P8) CONNECTORS (P9 & P10)

BOOTLOADER STATUS LEDs (LED7-LED10) SERIAL SERVICE PORT (P11)

RESET SWITCH (SW1) ETHERNET SERVICE PORT (J7)

ETHERNET STATUS LED (LED5) & ACTIVITY LED (LED6)

RUI PLUGGABLE TERMINAL BLOCK (TB1)

Overview

Figure 2-2. Dead front-mounted CPU with a 2 x 40 display (back view)

CPU LEDs The tables below outline the functions of the LEDs on the CPU card.

Table 2-1. Reset LED

Reference

designator

LED4 RESET Yellow

Silkscreen name Color Status

ON = CPU is in reset
FLASHING = Board is unable to come

out of reset. Possibly corrupt CFIG, or
board needs to be replaced.

OFF = CPU is running normally

2-3

Continued on next page

CPU, continued

CPU LEDs

T able 2-2. Ethernet LEDs

Reference

designator

LED5 STATUS Green ON = Cable connected
LED6 ACTIVITY Red FLASHING = Ethernet activity

Reference

designator

LED1 OPEN Yellow ON = Class A fault (open-circuit) or a short
LED2 B SHORT Yellow ON = Short-circuit on the primary side
LED3 A SHORT Yellow ON = Short-circuit on the secondary side

Reference

designator

LED11
LED12 Yellow ON = User-definable key A active (Note)
LED13
LED14 Red ON = User-definable key B active (Note)

Silkscreen name Color Status

Table 2-3. RUI trouble LEDs

Silkscreen name Color Status

Table 2-4. Front panel LEDs

Silkscreen name Color Status

Red ON = User-definable key A active (Note)

USER-DEF A

Yellow ON = User-definable key B active (Note)

USER-DEF B

LED15

LED16 TRBL Y ellow ON = Trouble
LED17 SUPV Yellow ON = Supervisory
LED18 PRI2 Red ON = Priority 2 alarm
LED19 FIRE Red ON = Alarm

LED20 AC POWER Green

LED21
LED22 Green ON = User-definable key C active (Note )
LED23 CTRL 1 Yellow ON = Control key 1 active
LED24 CTRL 2 Yellow ON = Control key 2 active
LED25 CTRL 3 Yellow ON = Control key 3 active

Note: Only one LED in each user-definable pair will be on at a time, never both.

ALARM

SILENCED

USER-DEF C

Yellow ON = Alarm silenced

ON = System power is functioning
properly

Yellow ON = User-definable key C active (Note)

Continued on next page

2-4

CPU, Continued

CPU LEDs

Table 2-5. Bootloader status LEDs

Status

Reference

designator
Silkscreen

Name

LED7 LED8 LED9 LED10

AB C D

Color Green Green Green Green

Bootloader

Initialization

Bad Master

CRC or No

Master

Present

Diagnostic

Fail - RAM

Diagnostic

Fail -

Bootloader

CRC

Downloading

Master

Downloading

CFIG

Downloading

MsgLib

On (0.25 s)
Off (0.25 s)

Off Off Off On

On Off Off On

Off On Off On

On On Off On

Off Off On On

On Off On On

On (0.25 s)
Off (0.25 s)

On (0.25 s)
Off (0.25 s)

On (0.25 s)
Off (0.25 s)

CPU jumper settings

Downloading

Bootloader

Download

Successful

Off On On On

On On On On

T able 2-6. CPU settings

Reference designator Silkscreen name Position Function

1-2 Enable RAM battery backup

P5 BATTERY

2-3 (default) Disable RAM battery backup
1-2 (default) Disable RUI

P1 RUI CKT

2-3 Enable RUI

1-2 (default) RUI shield tied to 24C (Note)

P2 RUI SHIELD

2-3 RUI shield tied to earth

Note: Some devices that connect to RUI have inherently grounded shield terminals, in which case, 24C

cannot be used. If 24C is used, a negative earth fault will occur.

2-5

CPU, continued

CPU switches

Table 2-7. Switches

CPU connectors/ ports/terminal block

Reference

designator

SW1 RESET

SW3 COLD START

Reference

designator

P3 COMPACT FLASH

Silkscreen name Function

Silkscreen name Function

Short press (< 3 seconds) to activate a software-controlled
reset (warm start).

Press and hold (> 3 seconds) to force a hardware reset
(also a warm start).

Generally, unless the CPU card appears to be locked up,
you should always use the software-controlled reset.

A warm start preserves the logs and the disabled status of
any points that are in the disabled state.

During startup, press and hold this button to clear all history
logs and enable any points that were previously disabled.

Table 2-8. Connectors/po rts/terminal bl ock

Used for alternative job/exec storage. Card does not
“run” out of compact flash.

P8

P9 & P10

P11

J7

TB1

KEYPAD

MEMBRANE

24 V POWER/

INTERNAL COMMS

SERIAL SERVICE

PORT

Ethernet SERVICE

PORT

RUI A-, RUI A+,

SHIELD, RUI B-, RUI

B+

Used to communicate user inputs from the keypad
membrane to the CPU card.

Used to provide the necessary connections to daisy
chain 4100 comms and 24 VDC card power in an in-out
fashion. 24 VDC card power originates from the MSS.
4100 comms originates from the CPU card.

Used to connect the CPU card to the remote service
gateway. It may also be used as a service port if the
Ethernet service port is not available.

Used to connect the panel to a local PC through the front
panel Ethernet connection board, or 4010-9914 BNIC.

Remote user interface (RUI) used for communication
between the CPU and remote slaves.

2-6

CPU, continued

CPU card specifications

Table 2-9 shows the battery current draw for the CPU card.

Table 2-9. Battery standby (24 V)

Configuration Supervisory current draw Alarm current draw

RUI disabled 124 mA 173 mA

RUI enabled - no load 149 mA 198 mA

RUI enabled - full load 176 mA 225 mA

T able 2-10 shows the maximum draw over the voltage range.

Table 2-10. Maximum draw over voltage range

Configuration Supervisory current draw Alarm current draw

RUI disabled 144 mA 208 mA

RUI enabled - no load 167 mA 226 mA

RUI enabled - full load 186 mA 248 mA

Note: CPU InfoAlarm supervisory and alarm current draws are both the same as the supervisory current

draw.

2-7

Operator interface

A B C D E F G H I

J K L M N O P Q R

'S P' ( ) , # :

S T U V W X Y Z /

ZONE

1

SIG2AUX

3

FB4IO5IDNet

6

P7A8L

9

NET ADDR

0

C/Exit

Menu Enter

Prev ious

Next

Page Dn

Page Up

AC

Power

ALARMS

Fire

Alarm

Prior ity 2

Alarm

WARNINGS

System

Supervi sory

System
Trouble

Alarm

Silenced

Fir e A l ar m

Ack

Prior ity 2

Ack

Supv

Ack

Trouble

Ack

Alarm

Silence

System

Reset

Ground Fault

Water flow-We st

Waterflow-East

Cit y Disconnect

Manual E vac

Door Hold er

Bypass

Drill

Language

Toggle

Smoke Sensor

Almost Dirty Ch eck

Lamp Test

Overview The two operator interfaces which are available with the 4010ES are shown below.

The operator interface is used to obtain fire alarm, priority 2, supervisory, trouble, and other
statuses through the display and LEDs. Control functions are accessed using dedicated and
user-programmable keys.

Figure 2-3 is the standard 2 x 40 LCD operator interface. This model includes a 2 line by 40
character liquid crystal display. The membrane is available in both English and French.

Figure 2-3. Stan da rd op era t or interfa ce

Figure 2-4 is the InfoAlarm operator interface. This model includes a larger graphical display,
which can display more information simultaneously.

Note: The InfoAlarm operator interface can only be installed on two-bay 4010ES panels. See Chapter 3,

“Panel Configurations,” for details on two-bay panels.

Figure 2-4. InfoAlarm operator interface

2-8

Main system supply (MSS)

Top Bay
PDI card

Rectifier

Option Card
Blocks

Optional City Card
or Relay Card
Mounting Space

Transformer

AC Block

MSS

Overview The MSS is the power source for the FACP. It provides 24 VDC card power to the 4010ES.

T able 2-11 lists the MSS capabilities.
The MSS also performs standard fire alarm functions, such as brownout detect, battery transfer,

battery recharge, earth fault detection, and power limiting per UL 864. It is shipped, installed,
and connected in the 4010ES panel. Figures 2-5 and 2-6 illustrate a 4010ES MSS.

Table 2-11. MSS capabilities

MSS with IDNet MSS without IDNet

8 A of available power 8 A of available power

4 Class A NACs 4 Class A NACs

Battery charger (Note) Battery charger (Note)

1 AUX relay (2 A, 32 V) 1 AUX relay (2 A, 32 V)

1 AUX power tap (2 A) 1 AUX power tap (2 A)

Single channel, Dual Isolated Loop IDNet+

Note: The 4010ES can hold a maximum of 33 Ah batteries in the one-bay box and 50 Ah in the two-

bay box. The MSS charger is listed for 110 Ah UL and 50Ah ULC.

Note: The type of MSS you get depends on the base panel selected. See Chapter 3, “Panel

Configurations.”

Figure 2-5. MSS shown with IDNet

Continued on next page

2-9

Main system supply (MSS), continued

Overview

Figure 2-6. MSS LEDS and switches

2-10

Main system supply (MSS), Continued

MSS LEDs and jumpers

Tables 2-12 and 2-13 list the details associated with the LEDs and jumpers on the MSS.

Table 2-12. MSS LED Functions and Indications

LED number Silkscreen name Status

LED1 IDNet POS. EARTH ON = IDNet POS. EARTH (Note)
LED2 IDNet NEG. EARTH ON = IDNet NEG. EARTH (Note)

LED3 IDNet

LED4 IDNet CIRCUIT A ON = CLASS A / OPEN TRBL
LED5 IDNet CIRCUIT B ON = CLASS A / OPEN TRBL
LED6 4100 COMMS ON = COMM LOSS

LED7 GENERAL POWER TRBL

LED8 AC POWER ON = MSS POWER FROM AC MAIN

LED9 NAC1 NAC1 TRBL or NAC1 “ON”
LED10 NAC2 NAC2 TRBL or NAC2 “ON”
LED11 NAC3 NAC3 TRBL or NAC3 “ON”

STEADY = NO DEVICE DETECTED
BLINK = SHORT CIRCUIT TRBL

STEADY = OVERCURRENT
SINGLE BLINK = POS. EARTH
DOUBLE BLINK = NEG. EARTH
TRIPLE BLINK = BATTERY TRBL
QUAD BLINK = CHARGER TRBL

LED12 NAC4 NAC4 TRBL or NAC4 “ON”

Note: The IDNet circuit on the MSS is electrically isolated and has its own earth fault detection circuit.

The IDNet earth fault detection circuit detects a 10K Ohms (or less) stray impedance to earth

ground.

Table 2-13. MSS Jumper Functions

Jumper

number

P1 IDNet CIRCUIT B

P2 IDNet CIRCUIT A

P3 EARTH DETECT (Note 2)

P7

Note 1. When jumpers are set for Class B (Style 4) on IDNet, you may use both the B-side and the A-side

to wire devices. Thus, for Circuit B, you can have two pairs of wires per side or four branches per
circuit.

2. Only one power module should be set for earth fault monitoring for each location within a system.

Normally, the MSS is set to monitor for earth faults. The earth fault detection circuit will detect a
10K Ohms (or less) stray impedance to earth ground. The expansion battery charger (XBC,
4081-9306, -9308) may also be set to monitor for earth faults. When an XBC is used to provide
battery backup for a 4010ES panel, disable the earth fault detection on the XBC.

Silkscreen name Position Function

LOW BATTERY

DISCONNECT

CLASS B (STYLE 4) (Note 1)

CLASS A (STYLE 7)

CLASS B (STYLE 4) (Note 1)

CLASS A (STYLE 7)

ENABLE

DISABLE

DISABLE (DOMESTIC)

ENABLE (CANADA)

1-3, 2-4
3-5, 4-6 (DEFAULT)

1-3, 2-4
3-5, 4-6 (DEFAULT)

1-2 (DEFAULT)
2-3

1-2 (DEFAULT)
2-3

2-11

Main system supply (MSS), continued

MSS specifications

Table 2-14 lists the specifications for the MSS.

Table 2-14. Input and output specifications

AC input specifications

MSS in 120V FACP 4 A maximum

120 VAC @ 60 Hz, nomi nal (Note 1)

MSS in 220/240V FACP 2 A maximum

220/230/240 VAC @ 50 or 60 Hz (Note 1)

DC output specifications

All MSSs Minimum: 19.9 VDC (special applications)

Maximum: 31.1 VDC
Ripple: 2 VDC p-p @ full load (8 A)

MSS with IDNet output (see
note)

Battery charger specification s (Note 3)

Input voltage range 21-33VDC
Output float voltage

High voltage output 29.1 V @ 3.3 A
Output current limit 1.4 A for 6.2 - 18 Ah battery

30V or 35V (Note 2)

o

27.4 VDC ±500 mV @ 20
24 mV to -36 mV/×C (32

C, temperature compensated at -

o

F to 120oF or 0oC to 49oC)

3.3 A (default; for 18-50 Ah battery- Canadian; for 18-110 Ah
battery - U.S.)

Note: 1. The MSS detects a low or missing AC input and switches to batteries automatically. The system

returns to AC when it detects the presence of acceptable AC levels for a minimum of 30 seconds. AC
wiring must run from a dedicated AC branch circuit, and the breaker/wiring must be sized according
to local codes.

2. When it is necessary to activate large numbers of output devices on IDNet peripherals, such as
piezo sounders, the output voltage increases to 35V to provide sufficient voltage at the end of line to
activate the piezo. The higher voltage state is an alarm condition for the purpose of standby battery
calculation. The 30V output is the normal condition, and is used to prolong battery standby. The CPU
will activate the boost feature when 10 LED, Piezo or other outputs are activated.

3. The battery circuit is supervised for overcurrent, low battery and missing or depleted battery.

Continued on next page

2-12

Main system supply (MSS), continued

MSS
specifications

Tables 2-15 and 2-16 list the battery current draw for the MSS. The assumed voltage is
24 VDC, which is rated battery voltage for lead-acid type batteries.

Table 2-15. MSS with IDNet current specifications

Standby conditions (Note 1)

No alarms (NACs normal); TBL relay activated; IDNet LED ON, No IDNet devices connected 140 mA 190 mA
Add to above for each additional set of 50 IDNet devices in standby 40 mA
Total current for fully loaded IDNet channel (248 devices) in standby 339 mA 450mA

Alarm conditions (Note 2)

4 NACs ON (Note 3); TBL Relay Activated; IDNet LED ON, No IDNet devices connected 165 mA 220 mA
Add to above for each set of 50 IDNet devices in alarm 50 mA
Add to above for 20 LEDs ON 40 mA
Total current for a fully loaded IDNet channel (248 devices) in alarm (20 LEDs ON) 453 mA 600 mA

Current

(battery standby 24V)

Current

(battery standby 24V)

Current

(max)

Current

(max)

Table 2-16. MSS without IDNet current specifications

Standby conditions (Note 1)

No Alarms (NACs normal); TBL Relay activated 70 mA 110mA

Alarm Conditions (Note 2)

4 NACs ON (Note 3); TBL Relay activated 100 mA 150 mA

Current

(battery standby 24V)

Current

(battery standby 24V)

Current

(max)

Current

(max)

Note: 1. Additional standby conditions: Auxillary relay activated, power trouble LED on, battery charger off,

auxiliary power load = 0 mA.

2. Additional alarm conditions: Auxillary relay activated, power trouble LED on, battery charger off,
auxiliary power load = 0 mA, NAC alarm load = 0 mA, IDNet = 35 V.

3. Notification power must also be taken into account for alarm current. Consult the notification
appliances, used installation manuals to determined the current draw for each appliance used.

The notification appliance circuits on the MSS are rated for special application and for
regulated 24 VDC operation per UL864, 9th Edition.

When used with the notification appliances listed in Table C-1 (Appendix C) or Table D-1
(Appendix D), each NAC is rated for 3 A, and total MSS capacity is rated at 8 A. This rating is
the UL864 special application rating. Appliances listed in Tables C-1 or D-1 are synchronized
per UL864 between all NACs on the MSS, and any NACs on a MSS or 4009As within the
same 4010ES system.

When using notification appliances not listed in Tables C-1 or D-1, each circuit is rated for 2 A
maximum, with a total notification appliance load of 4 A per MSS. This rating is the UL864
regulated 24 VDC rating. Synchronization of strobes and other appliances requires use of the
associated, listed, compatible synchronization module. Consult the supplier of notification
appliances for synchronization limits and details.

Simplex appliances (Table C-1) may not be mixed with Wheelock appliances (Table D-1) on a
single power supply. A 4010ES system with mix of appliances from Tables C-1 and D-1 will
not meet the UL864 9th Edition requirement for visual synchronization (10 milliseconds)
between power supplies. Appliances listed in Table C-1 will be consistently out of visual sync
with appliances in Table D-1 by about 30 milliseconds. Appliances listed Ta ble C-1 will be
notably out of audible sync with appliances in Table D-1 by a consistent time, Wheelock
leading by 1/2 second. In order to meet the requirements for visual and audible sync system
wide, all appliances in the system must be exclusively from either Table C-1 or D-1. Non­pulsing, linear-type notification appliances, such as horns or bells may be used up to the full
rating (3 A/NAC, 8 A total for the MSS).

2-13

48-LED Module

Overview The 48-LED Module (Figure 2-7) comes pre-installed inside some base configurations of the

4010ES panel. Each LED can be associated with a point, or group of points. By default, the
module is supplied with red LEDs, except for the last column which has yellow LEDs. All of
the LEDs can be replaced by different color LEDs. Refer to Chapter 4, “LED Kits for the 48­LED Module,” for a list of LED kits. Refer to Chapter 5, “Installing 4010ES Systems,” for
instructions on replacing LEDs.

Figure 2-7. 48-LED Module (front view)

Figure 2-8 outlines what the different LEDs, jumpers and switches represent.

Figure 2-8. 48-LED Module LEDs, jumper s an d switches (rear view)

2-14

48-LED Module, continued

48-LED Module specifications

Standby current Current

LED controller circuit 20 mA
Add to above for each additional LED that is on 1.89 mA
Total current for fully loaded 48-LED Module 111 mA

Maximum alarm current

LED controller circuit 20 mA
Add to above for each additional LED that is on 2.39 mA
Total current for fully loaded 48-LED Module 135 mA

Table 2-17. 48-LED Module current specifications

Current

2-15

System power

Main system power

Backup batteries A pair of 12V sealed lead acid batteries are used as a backup power source in the event of AC

The 4010ES FACP is powered primarily by the MSS. The MSS draws power from the main
power line, via an AC block, a transformer and a rectifier (Figure 2-5). In the case of main
power failure, backup power is provided by backup batteries.

failure. The backup batteries are ordered and shipped separately from the 4010ES system. They
are installed at the bottom of the 4010ES back box.

Batteries larger than 33 Ah for a one-bay 4010ES and 50 Ah for a two-bay 4010ES can be
used. However, they must be accepted and installed per UL and local authority requirements
using 4100-5128 Battery Distribution Terminal Block. The connection from the battery box to
the 4010ES panel must be within 20 feet and in conduit.

For 50 Ah external batteries with a one-bay box, use box 2081-9282 Remote Battery Cabinet
(Red). For 110 Ah external batteries with a one or two-bay box, use box 2081-9280 Remote
Battery Cabinet (Red).

2-16

Chapter 3

Panel configurations

Introduction The 4010ES comes in either in a one-bay or a two-bay configuration. Each of these can be

ordered in a variety of base systems to satisfy various market needs.

In this chapter This chapter covers the following topics:

Topic Page

One-bay 4010ES Panels 3-2
Two-bay 4010ES Panels 3-6

3-1

One-bay 4010ES Panels

With 48 LED Module

Without 48 LED Module

Overview The basic components are shipped pre-assembled inside the 4010ES panel. The optional

components need to be ordered and installed separately.
The one-bay 4010ES panel comes in three configurations. Table 4-1 of Chapter 4, “Orderable

Panels and Devices,” lists the basic components that are shipped with each of the three
configurations.

Note: The dead front on a one-bay 4010ES panel is different for 48-LED Module configurations, as seen in

Figure 3-1. See Figure 3-2 for detailed diagrams of one-bay 4010ES panels.

Figure 3-1. One-bay dead front with and without 48-LED Module

3-2

Continued on next page

One-bay 4010ES Panels, continued

Without 48-LED Module

With 48-LED Module

Glass Door

Glass Door

Dead
Front

Dead
Front

CPU

CPU

Back
Box

Back
Box

Option Card
Mounting Space

Option Card
Mounting Space

48-LED
Module

Overview

Figure 3-2. One-Bay 4010ES Panel

3-3

One-bay 4010ES Panels, continued

Optional modules In addition to the basic modules, optional modules can be installed inside the one-bay 4010ES

panels. The types of modules available depend on the panel configuration as well as the
accessibility and availability of the power distribution interface (PDI) blocks.

Note: Out of four PDI blocks in the top bay PDI card, three are available since the MSS card utilizes one

(Figure 2-5).

Table 3-1 lists the optional modules that can be installed insid e the different configurations of
the 4010ES panels. Refer to the user manual associated with each card for specifications and
installation instructions. The list of these manuals is available in Table 4-3 in Chapter 4,
“Orderable Panels and Devices.”

Table 3-1. Optional modules

Optional modules Description Blocks

4010-9818 Network Media Card Wired (Mounts on 4010-9902 and 4010-9922) none
4010-9819 Network Media Card Fiber Optic (Mounts on 4010-9902 and 4010-9922) none

4010-9901 VESDA Interface Card 1
4010-9902 and 4010-9922 4120 Network Interface Card 2
4010-9903 and 4010-9924

(Note 2)

4010-9904 and 4010-9925

(Note 2)

4010-9905 and 4010-9926

(Note 2)

4010-9906 and 4010-9927

(Note 2)
4010-9908 4-Point Flat AUX Relay (2 A) 1
4010-9909 City Connect Card with Disconnect Switches (MSS mounted) none
4010-9910 City Connect Card without Disconnect Switches (MSS mounted) none
4010-9911 Alarm Relay Card (MSS mounted) none

4010-9912

4010-9913 SafeLinc Internet Interface (FPII) Card 2
4010-9914 Building Network Interface Card (BNIC) 2
4010-9916 25 VDC Voltage Regulator Card 1
4010-9917 MX Digital Loop Card (international models only) 2
4010-9918 Dual RS232 Card 1

4010-9919

4010-9920 8 Zone Initiating Device Circuit, Class B 2
4010-9921 8 Zone Initiating Device Circuit, Class A 2
4010-9929 IDNet 2+2 Card 1

4120 Network Interface w/ Modem physical Bridge Style 4 2

4120 Network Interface w/ Modem physical Bridge Style 7 2

4120 Network Interface TCP/IP physical Bridge Style 4 3

4120 Network Interface TCP/IP physical Bridge Style 7 3

SDACT Card

(Mounts in top bay Block D only)

TrueInsight Remote Service Gateway (Perle)

(mounts on dead front)

none

1

Note: 1. Consult your local sales office to determine which modules are available in your area.

2. Physical bridge cards must also be installed with a network interface card. Therefore, the 4010ES

one-bay systems do not have enough option card space left to install a physical bridge after a NIC is
added.

3-4

One-bay 4010ES Panels, continued

Back box mechanical specifications

Back boxes ship with the panel and can only be ordered separately as a service part. Table 3-2
lists the specifications for the one-bay back boxes.

Table 3-2. Back box specifications

PID number Height Width Depth

699-467 (Platinum)

22 in. (559 mm) 24 in. (610 mm)

699-466 (Red)

6-29/32 in.

(175 mm)

Depth with

door

11-11/16 in.

(297 mm)

3-5

Two-bay 4010ES Panels

#05#ARD

/PERATOR)NTERFACE

'ROUNDING3TRAP

$EAD&RONT,ATCH

0IEZO

%THERNET3ERVICE0ORT

'ROUNDING3TRAP

'ROUNDING3TRAP

#05#ARD

)NFO!LARM5SER
)NTERFACE

)NFO!LARM!PPLIQUE

3TANDARD5SER)NTERFACE

)NFO!LARM5SER)NTERFACE

$EAD&RONT,ATCH

Overview A two-bay system is used when more option card space is required than is given in a one-bay

system, or when InfoAlarm is the primary display. Refer to Figure 2-4 for an illustration of the
InfoAlarm interface.

The basic components of the two-bay panels are the same as for the one-bay panels and are pre­installed in the top bay. The expansion bay contains another PDI card with eight available
blocks. Those can be used to connect optional modules to the 4010ES panels. The Expansion
Bay PDI card comes pre-installed inside the two-bay panel.

See Figures 3-3 through 3-5 for two-bay 4010ES diagrams.

Figure 3-3. Two-bay, standard and InfoAlarm dead fronts

Continued on next page

3-6

Two-bay 4010ES Panels, continued

CPU

Dead Front

Expansion PDI

MSS

Back Box

Glass Door

Top Bay

Overview

Figure 3-4. Two-bay 4010ES Panel with standard user interface

Continued on next page

3-7

Two-bay 4010ES Panels, continued

MSS

Expansion PDI

InfoAlarm
Interface

Dead Front

CPU

Glass Door

Back Box

Top Bay

Overview

Figure 3-5. Two-bay 4010ES Panel with InfoAlarm interface

3-8

Two-bay 4010ES Panels, continued

Optional modules The same optional modules can be used with the two-bay panels as with the one-bay panels.

For a complete list of optional components, see Chapter 4, “Orderable Panels and Devices.”

Back box mechanical specifications

Table 3-3 lists the specifications for the two-bay back boxes.

Table 3-3. Back box specifications

PID number Height Width Depth

699-465 (Platinum)

40.0 in. (1016 mm) 24 in. (610 mm)

699-464 (Red)

6-29/32 in.

(175 mm)

Depth with

door

11-11/16 in.

(297 mm)

3-9

Chapter 4

Orderable panels and devices

Introduction The following chapter lists the 4010ES panels and optional modules that can be ordered. It

also lists the installation manuals that are associated with each optional device.

In this chapter This chapter covers the following topics:

Topic Page

Panels 4-2
Optional modules 4-3

4-1

Panels

One-bay 4010ES Panels

Table 4-1. One-bay 4010ES systems

Panel PIDs

4010-9401 Red
4010-9402 Platinum
4010-9501 Red
4010-9502 Platinum
4010-9403 Red
4010-9404 Platinum
4010-9405 Red
4010-9406 Platinum
4010-9503 Red

4010-9504 Platinum

Panel

color

Panel language
and AC voltage

English

120V

English

220V-240V

English

120V

French

120V

English

220V-240V

CPU with a 2 x 40

display and a piezo

Standard

operator
interface

Panel components

MSS with an IDNet

channel

MSS (No IDNet)

Three free

option blocks

One free

option block

48-LED Module
(door-mounted)

One MX Loop

Option Card pre-

installed (4010-

Two-bay 4010ES Panels

T able 4-2. Two-bay 4010ES systems

Panel PIDs

4010-9421 Red
4010-9422 Platinum
4010-9521 Red
4010-9522 Platinum 10 free

4010-9425 Red

4010-9426 Platinum

4010-9525 Red

4010-9526 Platinum -­4010-9523 Red

4010-9524 Platinum
4010-9527 Red
4010-9528 Platinum
4010-9529 Red
4010-9530 Platinum
4010-9423 Red

4010-9428 Platinum

4010-9430 Platinum French 120V

Panel

color

Panel

language and

AC voltage

English 120V

English

220V-240V

English 120V

English

220V-240V

English 120V

CPU with a 2 x 40

display and a piezo

CPU

CPU with a 2 x 40

display and a piezo

CPU

CPU with a 2 x 40

display and a piezo

Panel components

Standard operator

interface

InfoAlarm interface
(display and piezo)

Standard operator

interface

InfoAlarm interface
(display and piezo)

Standard operator

interface

MSS with an

IDNet channel

MSS

(No IDNet)

MSS with an

IDNet channel

option

card blocks

11 free

option card

blocks

7 free option

card blocks

9 free option

card blocks

7 free option

card blocks

10 free

option card

blocks

One IDNet 2+2 Card

pre-installed

(4010-9929)

One IDNet 2+2 Card

pre-installed (4010-

One IDNet 2+2 Card

pre-installed (4010-

Two MX Loop Option

Cards pre-installed

(4010-9917)

One MX Loop Option

Card pre-installed

(4010-9917)

Two MX Loop Option

Cards pre-installed

(4010-9917)

One IDNet 2+2 Card

pre-installed (4010-

48 LED Module (door

mounted)

---

9917)

9929)

9929)

--

9929)

4-2

Optional modules

Local optional modules

T able 4-3. Local optional modules installation instructions

PID Description

4010-9818 Wired Network Media Card 579-956
4010-9819 Fiber Optic Network Media Card 579-956
4010-9901 4010ES/4100/4120-Series VESDA Card 579-963
4010-9902

and

4010-9922
4010-9903

and

4010-9924
4010-9904

and

4010-9925
4010-9905

and

4010-9926
4010-9906

and

4010-9927

Network Interface Card

Style 4 Network Modular Physical Bridge

Style 7 Network Modular Physical Bridge

Style 4 Network TCP/IP Physical Bridge

Style 7 Network TCP/IP Physical Bridge

Installation

instructions

579-956
574-041

579-818
579-184
574-041

579-818
579-184
574-041

579-818
579-184
574-041

579-818
579-184

574-041
4010-9908 4-Point Flat AUX Relay Card 5 79-220
4010-9909 City Connect Module with Disconnect Switches (MSS mounted) 579-955
4010-9910 City Connect Module without Disconnect Switches (MSS mounted) 579-955
4010-9911 Alarm Relay Modul e (MSS mounted) 579-955
4010-9912 SDACT 579-954
4010-9913 SafeLinc Internet Interface (FPII) 579-349
4010-9914 B uilding Network Interface Card (BNIC) 579-949
4010-9916 25 VDC Voltage Regulator Module (international only) 579-812
4010-9917 M X Digital Loop (international only) 579-833
4010-9918 Dual RS232 Module 574-910
4010-9919 TrueInsight Remote Service Gateway 579-953
4010-9920 8 Zone Initiating Device Circuit, Class B 579-205
4010-9921 8 Zone Initiating Device Circuit, Class A 579-991
4010-9929 IDNet 2+2 Module 579-1170

4-3

Optional modules, continued

Remote devices

Table 4-4. Remote power and notification devices installation instructions

PID Description

4010-9818 Wired Network Media Card 579-956
4010-9819 Fiber Optic Network Media Card 579-956
4009-9401 4009T TrueAlert Controller 574-762

4081-9306

4009-9201 4009A 120V 574-181

4009-9202CA 4009A 120V ULC-listed model 574-181

4009-9301 4009A 240V 574-181

4009-9813 Transponder Interface Card (TIC) 579-875
4100-5120 120 V Domestic TPS 579-875
4100-5121 120 V Canadian TPS 579-875
4100-5122 220-240 V International TPS 579-875

4100U External Battery Charger 120V (with cabinet,
holds 11 Ah batteries)

4009 Remote TrueAlert Power Supply (TPS)

Installation

instructions

579-268

Table 4-5. Remote display and annunciation devices installation instructions

PID Description

4100-9401 Remote InfoAlarm - Red 579-687
4100-9402 Remote InfoAlarm - Beige 579-687
4100-9421 Remote InfoAlarm (French) - Red 579-687
4100-9422 4100-9422 Remote InfoAlarm (French) - Beige 579-687
4100-9441 Remote InfoAlarm (international) - Red 579-687
4100-9442 Remote InfoAlarm (international) - Beige 579-687
4100-7401 24-Point I/O Graphic Module (requires mounting cabinet) 574-348
4606-9102 4010ES RUI LCD Annunciator 579-977

Installation

instructions

4-4

Optional modules, continued

Adjunct features

Table 4-6. Adjunct features

End user programming tools

PID Description

4081-9308

4190-9021

4190-9022

4190-9023 Right Port Modem for Exp Cabinet – Single Mode 579-831

4190-9024

4190-9025

4190-9026 Right Port Modem for Expansion Cabinet – Single Mode 579-831

4100U External Battery Charger 220/230/240 V (with
cabinet. Holds 110Ah batteries)

Red Fiber Modem Expansion Cabinet with Left Port
Modem – Single Mode

Beige Fiber Modem Exp Cabinet with Left Port Modem ­Single Mode

Red Fiber Modem Exp Cabinet with Left Port Modem –
Multimode

Beige Fiber Modem Exp Cabinet with Left Port Modem ­Multimode

T able 4-7. End user programming tools

PID Description

Installation

instructions

579-268

579-831

579-831

579-831

579-831

LED kits for the 48-LED Module

4100-0292 Custom Label Editing (USB Dongle)
4100-0295 Port Vectoring Setup and Control (USB Dongle)
4100-0296 User Group/Passcode Editing (USB Dongle)
4100-0298 Walktest Configuration Setup and Control (USB Dongle)
4100-8802 Programming Unit Software

T able 4-8. LED kits for the 48-LED Module

PID Description

4100-9843 8 Yellow LEDs
4100-9844 8 Green LEDs
4100-9845 8 Red LEDs
4100-9855 8 Blue LEDs

4-5

4-6

Chapter 5

Installing 4010ES systems

Introduction This chapter describes how to mount the 4010ES back boxes to a wall, and install basic

system components into the boxes.
Before beginning the installation, review this chapter to get a sense of the types of bays and

modules that make up the FACP.

IMPORTANT: Verify ES Panel Programmer, Executive, and Slave Software compatibility

when installing or replacing system components. Refer to the technical
support website for up-to-date compatibility information.

In this chapter This chapter covers the following topics:

Topic Page

Mounting the panel 5-2
General field wiring guidelines 5-5
Connecting 4010ES basic components 5-7
RUI wiring 5-11
Installing the optional modules 5-13
Address configuration DIP switch 5-14
Connecting main system power 5-16

5-1

Mounting the panel

POTPOT

RESERVED
FOR
BATTERIES
(SEE NOTE 6)

ADDITIONAL
BACK BOX

USE 4 HOLES TO
SECURE BACKBOX
TO THE WALL

USE 4 HOLES TO
SECURE BACKBOX
TO THE WALL

24”
(610 mm)

3 17/32”

(90 mm)

5 17/32”
(140 mm)

16”
(406 mm)

See Notes 3 and 5

6 29/32”

(175 mm)

22”

(559 mm)

(ONE

BAY)

ALIGNMENT MARKERS
FOR WALL STUDS:

6” (152 mm)
4” (102 mm)

WAL L

WAL L

PANEL
FRONT

Installing the back box

Store the system electronics containers in a safe, clean, and dry location until the back box
installation is completed and you are ready to install additional modules. Make certain that you
have the necessary hardware before you begin the installation procedure.

Install the back box as shown in Figure 5-1. Use the holes in the back box to secure it to the
wall.

Note: • Conductor entrance and routing restrictions apply to power-limited systems only.

• While the pre-installed system components may be left in the backbox during installation, due to

the danger of metal fragments falling into electronics, it is recommended to remove the dead front
and any bay pans in the system.

• For surface or flush mounting to a wooden wall structure, the back box must be attached with four
3/8-inch-diameter x 1-½-inch-long (9.5 mm x 38 mm) fasteners and four 3/8-inch-diameter (9.5
mm) washers.

• For surface mounting, secure the box to the wall using the tear-drop mounting holes on the back
surface. For flush and semi-flush mounting, secure the box to the wall studs using the indicated
areas (dents in the metal) on the sides of the box. Note that the front surface of the back box must
protrude at least three inches from the wall surface for semi-flush installations.

• Power-limited systems have entrance and routing restrictions for field wiring. See section
“General Field Wiring Guidelines” on page 5-5 for more details.

Figure 5-1. Back box installation

Notes:

1. Dimensions shown are typical for all surface and semi-flush installations.

2. Use suitable punch when conduit is required. Knockouts are not provided. Locate and create on-site
as required during installation.

3. A minimum clearance of 5 inches (127 mm) from the hinge side is required to provide a maximum
door opening of 90 degrees.

4. Do not install any power-limited wiring in the shaded area of the back box as shown in Figure 5-1.
This area is reserved for non power-limited devices and circuits. for example, AC power, batteries,
and city circuits. The non power-limited area is determined by the internal barriers, but is always
below and to the right of these barriers.

5. Minimum distance between boxes is 3 1/4 inches (83 mm). Maximum distance between boxes is 10
inches (254 mm).

5-2

Mounting the panel, continued

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One-Bay

Two-Bay

Top

Bottom

Attaching the dead front

To attach the 4010ES panel dead fronts containing the operator interface and the 48-LED
Module (where applicable), perform the following steps:

1. Align the dead front hinges with the hinge pins on the back box, and slide the door down
onto the hinge pins.

2. Attach the two grounding straps to the back box with the # 6 hex flange nuts. See Figure 5-3.
The grounding straps should already be attached to the dead front.

Figure 5-2. 4010ES dead fronts

Figure 5-3. Dead front grounding straps

5-3

Mounting the panel, continued

One-bay

Two-bay

Attaching doors To attach the glass doors (Figure 5-4) to the cabinet, follow the steps below:

1. Align the door hinges with the hinge pins on the back box, and slide the door down onto the
hinge pins.

2. Attach the two grounding straps to the back box with the # 6 hex flange nuts. The grounding
straps should already be attached to the door.

Note: The hinge pins for the glass door are located higher and further to the side than the dead front hinge

pins.

Figure 5-4. One-bay and Two-bay glass doors

5-4

General field wiring guidelines

NON-POWER LIMITED
WIRING AREA

POWER LIMITED
WIRING AREA

Power-limited guidelines

For wiring guidelines, see the applicable installation documentation or contact your authorized
Simplex Product supplier. Make sure these guidelines are accounted for before wiring for
power-limited systems:

• Non-power limited field wiring (AC power, batteries, city connection) must be installed

and routed in the shaded areas shown in Figure 5-5.

• Power-limited field wiring must be installed and routed in the non-shaded areas shown in

Figure 5-5, with the exception of city wiring.

• Excess slack should be kept to a minimum inside the back box enclosure. The wiring

should be neatly dressed and bundled together using wire ties.

Figure 5-5. Field wiring guidelines

• Tie the wiring located between bays to the internal wiring troughs, if applicable.

• When powering remote units or switching power through relay contacts, power for these

circuits must be provided by a power-limited power supply listed for fire-protective
signaling use. An EOL relay must be used to supervise the auxiliary power circuit.

• Auxiliary power only: Supervision must be provided if the auxiliary power circuit is to be

wired as a power-limited circuit. In order to connect a circuit using power-limited wiring,
the devices being powered must all be addressable, or a UL listed EOL relay must be used
to supervise the circuit. Refer to Figure 5-6 for wiring directions for the EOL relay.

Continued on next page

5-5

General field wiring guidelines, continued

2098-9739

END OF

LINE RELAY

TO AUX POWER

RED BLACK

LAST IDC

DEVICE

YELLOW

RESISTORIDC

Note: The 2098-9739 Relay is

used as an example.
Other UL Listed 24VDC
EOL relays can be used,
depending on the
application.

Power-limited
guidelines

Figure 5-6. The EOL relay

5-6

Connecting 4010ES basic components

SERIAL SERVICE PORT (P11)

ETHERNET SERVICE PORT (J7)

KEYPAD MEMBRANE

Connecting the CPU and the operator interface

Note: All the basic components come pre-installed with the system. The connections are shown for

reference purposes.

To connect the CPU and the operator interface, follow the steps below:

1. Place the white spacer on the dead front.

2. Attach the CPU card and the piezo to the dead front, using metal screws provided.

3. Attach the Keypad Membrane cable of the operator interface to port P8 on the CPU card
(Figure 5-7). To do so:

a. Slide down the keypad connector shroud on the CPU card.

b. Insert the Keypad Membrane cable into the connector. Do not twist the flat cable.
c. Slide the shroud back up into the connector while holding the flat cable in place.

4. Attach the Ethernet connection board using the 734-232 RJ45 cable.

5. Attach the perle box using the 734-229 cable.

6. Connect port P9 or P10 of the CPU card to the dead front connection (P1) port on the top­bay power distribution interface (PDI) card (Figure 5-7 and Figure 5-8). Use the

734-008 4-pin connector harness provided.

Figure 5-7. CPU card rear view

5-7

Continued on next page

Connecting 4010ES basic components, continued

Back Box

MSS

Rectifier

Transformer

Top Bay
PDI

AC Terminal
Block

Connecting the
CPU and the
operator interface

Figure 5-8. Top bay

5-8

Connecting 4010ES basic components, continued

Connecting the MSS

Follow the steps below:

1. Connect the MSS to the MSS (Block C) connector on the Top Bay PDI.

2. Attach the MSS to the back box using metal screws and standoffs.

3. Connect the rectifier to the Bridge HARN1 connectors on the MSS (Figure 5-9). The red
wire connects to the tab labeled “+” on the bridge. The black wire connects to the tab labeled
“-” on the rectifier. See Figure 5-8 for the location of the rectifier.

4. Connect the backup batteries to the Battery connectors on the MSS. The red wire connects
to the tab labeled "RED" on the MSS, the black wire connects to the “BLK” tab. The backup
batteries must be wired in series such that you have 24 V. Use the white wire provided to
bridge the batteries together. The batteries can be placed on the bottom of the 4010ES back
box.

Notes: 1. A fused harness is required to connect the backup batteries. That harness is shipped with the

panel. The mating spade lug on the battery should be 0.250 inch x 0.032 inches. If another size is
needed, you will need to replace the battery terminal connectors on the supplied battery harness.

2. One-bay system back boxes support up to 33 Ah batteries. Two-bay system back boxes support
up to 50 Ah batteries. If 50 Ah batteries are used, you must also order the 4100-0650 Battery
Shelf.

3. To minimize the power losses due to wiring from the battery box to the 4010ES, use at least a
12 AWG wire and keep the battery box at the minimum distance possible from the 4010ES.

Figure 5-9. MSS Bridge HARN1 connector

5-9

Connecting 4010ES basic components, continued

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Connecting the 48-LED Module

Connect port P1 or P2 of the 48-LED Module card to either port P9 or P10 of the CPU card
(Figure 5-10). Use the 734-181 4-pin connector harness provided.

Figure 5-10. 48-LED Module rear view

Swapping LEDs

To swap any of the 48 LEDs on the 48-LED Module, follow the steps below:

1. Turn off AC power at the breaker, then remove the battery + connection at the panel.

2. Remove the 48-LED module from the dead front by following the steps below:

1. Disconnect any cables in P1 or P2 of the module

2. Remove the four screws holding the card to the dead front.

3. Remove the card from the dead front.

3. Pull out any necessary LEDs from the module.

4. Insert new LEDs in the vacated slots. For correct polarity, the flat line of the LED outline
on the card must line up with the flat side on the LED.

5. Re-attach the 48-LED module back on its spot on the dead front.

6. Re-attach the batteries and re-apply AC power to the 4010ES panel.

5-10

RUI wiring

Overview The CPU card’s RUI channel supports the following devices:

• 4009T

• 4009 TPS

• 4602 Series RCU/SCU

• 4606-9102 Remote LCD Annunciator

• 4100-7400 Series Graphic Annunciators

• 4100-9400 Series Remote InfoAlarm Command Center

Wire from the CPU card’s RUI interface to the RUI terminal block (Figure 5-11). From there,
wire to each RUI device. The wiring may be Class A or Class B:

Class A wiring allows devices to communicate with the FACP even in the event of a single
open circuit somewhere in the loop. Class A wiring requires that two wires are routed from the
CPU card to each device, and then back again to the CPU card.

Class B wiring allows “T” tapping, and therefore requires less wiring distance per installation
than Class A.

Figure 5-1 1 . Lo ca tio n of the RUI termin a l blo ck

5-11

Continued on next page

RUI wiring, continued

RUI

SHLD

RUI

SHLD

DASHED LINES ARE FOR

CLASS A OPERATION

1. Wire size must be

between 18 AWG (0.8231 mm

2

)

and 12 AWG (3.309 mm2).

2. Maximum wiring distance: 2,500 feet

(762 m) to device from CPU card.

3. Maximum “T” tapping length:

10,000 feet (3,048 m).

4. Maintain correct polarity on terminal

connections.

Do not loop wires under terminals.

RUI Device RUI Device

RUI A-

RUI A+

SHIELD

RUI B-

RUI B+

4010ES CPU Card

5. If Class A is not used, leave loop back wires from A+ to B+ and A- to B- on RUI terminal blocks.

6. Shield wire is not required. Twisted wire is recommended for improved noise immunity

Notes:

RUI
Terminal
Block

Overview Figure 5-12 depicts Class A and Class B wiring.

Figure 5-12. RUI wiring to the host panel

For more detailed field wiring information on each device, refer to its specific installation
instructions manual. See Chapter 4, “Orderable panels and devices,” for a list of instruction
manuals.

5-12

Installing the optional modules

Overview Note: Skip this section if no optional modules need to be installed.

This page contains the general placement guidelines for the optional modules that can be used
with the 4010ES panels. If this information conflicts with the installation instructions for the
optional modules, the installation instructions take precedence. Refer to Table 4-3 in Chapter 4,
“Orderable panels and devices,” for a list of these installation instructions.

In addition to basic system components, the 4010ES panel has space on the PDI to
accommodate the following option card configurations:

1. One Two-Block 4 inch x 10 inch option card (such as a NIC or a SafeLINC card) and one 4

inch x 5 inch option card.

or

2. Three 4 inch x 5inch single-block option cards.

If the system is a two-bay system, an eight-block PDI card in the second bay allows for
additional mounting space beyond the three blocks in the top bay.

Note: Some systems come with option cards pre-installed. In these cases, the number of available option

card blocks is reduced. See the PID list table in Chapter 4 for details.

Installing one­block and two­block cards

The PDI cards are mounted to the back of each bay and carry power and data across all bays.
Use the following instructions and Figure 5-13 to mount cards into a 4010ES panel bay

1. Screw standoffs and washers to the appropriate holes in the back of the cabinet. These holes

must line up with the screw holes in the card.

2. Plug the card into the appropriate blind mating connector. Seat the card firmly onto the PDI

when installing to ensure complete insertion of the power connector into the PDI.

3. Secure the card to the standoffs with screws and washers.

Figure 5-13. Card connection to a PDI

5-13

Address configuration DIP switch

18765432

ON

OFF

DIP Switches SWx-2 through
SWx-8 set the Card Address.
Figure shows an Address of 3.

4100 Comm. Baud Rate.
Switch (SWx-1)
Must Be Set to ON

Overview Addressable cards include a bank of eight DIP switches. From left to right (Figure 5-14) these

switches are designated as SWx-1 through SWx-8. The function of these switches is as
follows:

• SWx-1. This switch sets the baud rate for the internal 4010ES communications line
running between the card and the CPU. Set this switch to ON.

• SWx-2 through SWx-8. These switches set the card’s address within the 4010ES FACP.
Refer to Table 5-1 for a complete list of the switch settings for all of the possible card
addresses.

Note: You must set these switches to the value assigned to the card by the ES Panel Programmer.

Figure 5-14. DIP switch SWx

Continued on next page

5-14

Address configuration DIP switch, continued

Address SW 1-2 SW 1-3 SW 1-4 SW 1-5 SW 1-6 SW 1-7 SW 1-8 Address SW 1-2 SW 1-3 SW 1-4 SW 1-5 SW 1-6 SW 1-7 SW 1-8

1 ON ON ON ON ON ON OFF 61 ON OFF OFF OFF OFF ON OFF

2 ON ON ON ON ON OFF ON 62 ON OFF OFF OFF OFF OFF ON

3 ON ON ON ON ON OFF OFF 63 ON OFF OFF OFF OFF OFF OFF

4 ON ON ON ON OFF ON ON 64 OFF ON ON ON ON ON ON

5 ON ON ON ON OFF ON OFF 65 OFF ON ON ON ON ON OFF

6 ON ON ON ON OFF OFF ON 66 OFF ON ON ON ON OFF ON

7 ON ON ON ON OFF OFF OFF 67 OFF ON ON ON ON OFF OFF

8 ON ON ON OFF ON ON ON 68 OFF ON ON ON OFF ON ON

9 ON ON ON OFF ON ON OFF 69 OFF ON ON ON OFF ON OFF

10 ON ON ON OFF ON OFF ON 70 OFF ON ON ON OFF OFF ON

11 ON ON ON OFF ON OFF OFF 71 OFF ON ON ON OFF OFF OFF

12 ON ON ON OFF OFF ON ON 72 OFF ON ON OFF ON ON ON

13 ON ON ON OFF OFF ON OFF 73 OFF ON ON OFF ON ON OFF

14 ON ON ON OFF OFF OFF ON 74 OFF ON ON OFF ON OFF ON

15 ON ON ON OFF OFF OFF OFF 75 OFF ON ON OFF ON OFF OFF

16 ON ON OFF ON ON ON ON 76 OFF ON ON OFF OFF ON ON

17 ON ON OFF ON ON ON OFF 77 OFF ON ON OFF OFF ON OFF

18 ON ON OFF ON ON OFF ON 78 OFF ON ON OFF OFF OFF ON

19 ON ON OFF ON ON OFF OFF 79 OFF ON ON OFF OFF OFF OFF

20 ON ON OFF ON OFF ON ON 80 OFF ON OFF ON ON ON ON

21 ON ON OFF ON OFF ON OFF 81 OFF ON OFF ON ON ON OFF

22 ON ON OFF ON OFF OFF ON 82 OFF ON OFF ON ON OFF ON

23 ON ON OFF ON OFF OFF OFF 83 OFF ON OFF ON ON OFF OFF

24 ON ON OFF OFF ON ON ON 84 OFF ON OFF ON OFF ON ON

25 ON ON OFF OFF ON ON OFF 85 OFF ON OFF ON OFF ON OFF

26 ON ON OFF OFF ON OFF ON 86 OFF ON OFF ON OFF OFF ON

27 ON ON OFF OFF ON OFF OFF 87 OFF ON OFF ON OFF OFF OFF

28 ON ON OFF OFF OFF ON ON 88 OFF ON OFF OFF ON ON ON

29 ON ON OFF OFF OFF ON OFF 89 OFF ON OFF OFF ON ON OFF

30 ON ON OFF OFF OFF OFF ON 90 OFF ON OFF OFF ON OFF ON

31 ON ON OFF OFF OFF OFF OFF 91 OFF ON OFF OFF ON OFF OFF

32 ON OFF ON ON ON ON ON 92 OFF ON OFF OFF OFF ON ON

33 ON OFF ON ON ON ON OFF 93 OFF ON OFF OFF OFF ON OFF

34 ON OFF ON ON ON OFF ON 94 OFF ON OFF OFF OFF OFF ON

35 ON OFF ON ON ON OFF OFF 95 OFF ON OFF OFF OFF OFF OFF

36 ON OFF ON ON OFF ON ON 96 OFF OFF ON ON ON ON ON

37 ON OFF ON ON OFF ON OFF 97 OFF OFF ON ON ON ON OFF

38 ON OFF ON ON OFF OFF ON 98 OFF OFF ON ON ON OFF ON

39 ON OFF ON ON OFF OFF OFF 99 OFF OFF ON ON ON OFF OFF

40 ON OFF ON OFF ON ON ON 100 OFF OFF ON ON OFF ON ON

41 ON OFF ON OFF ON ON OFF 101 OFF OFF ON ON OFF ON OFF

42 ON OFF ON OFF ON OFF ON 102 OFF OFF ON ON OFF OFF ON

43 ON OFF ON OFF ON OFF OFF 103 OFF OFF ON ON OFF OFF OFF

44 ON OFF ON OFF OFF ON ON 104 OFF OFF ON OFF ON ON ON

45 ON OFF ON OFF OFF ON OFF 105 OFF OFF ON OFF ON ON OFF

46 ON OFF ON OFF OFF OFF ON 106 OFF OFF ON OFF ON OFF ON

47 ON OFF ON OFF OFF OFF OFF 107 OFF OFF ON OFF ON OFF OFF

48 ON OFF OFF ON ON ON ON 108 OFF OFF ON OFF OFF ON ON

49 ON OFF OFF ON ON ON OFF 109 OFF OFF ON OFF OFF ON OFF

50 ON OFF OFF ON ON OFF ON 110 OFF OFF ON OFF OFF OFF ON

51 ON OFF OFF ON ON OFF OFF 111 OFF OFF ON OFF OFF OFF OFF

52 ON OFF OFF ON OFF ON ON 112 OFF OFF OFF ON ON ON ON

53 ON OFF OFF ON OFF ON OFF 113 OFF OFF OFF ON ON ON OFF

54 ON OFF OFF ON OFF OFF ON 114 OFF OFF OFF ON ON OFF ON

55 ON OFF OFF ON OFF OFF OFF 115 OFF OFF OFF ON ON OFF OFF

56 ON OFF OFF OFF ON ON ON 116 OFF OFF OFF ON OFF ON ON

57 ON OFF OFF OFF ON ON OFF 117 OFF OFF OFF ON OFF ON OFF

58 ON OFF OFF OFF ON OFF ON 118 OFF OFF OFF ON OFF OFF ON

59 ON OFF OFF OFF ON OFF OFF 119 OFF OFF OFF ON OFF OFF OFF

60 ON OFF OFF OFF OFF ON ON

Overview

T able 5-1. Card addresses

5-15

Connecting main system power

Ground Screw

AC Block Label
Location

Ferrite Bead

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Connect the “hot” wire to the
appropriate voltage, depending on
your installation.

The neutral wire always connects
to the lowest terminal.

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Overview The 4010ES panel is shipped with the AC block, the transformer, and the rectifier already

interconnected. You only need to wire the AC block to the main power line. The ground wire
on the power line connects to a screw, located on the top right back box (Figure 5-15). The
other wires connect to the AC terminal block, as indicated by the labels (Figure 5-16).

Figure 5-15. Grounding wire

Panel power-up sequence

Note: In 220-240 V panels, the 4010ES requires a true transformer output of 220-240 V. Do not connect two

When connecting the AC power wire to the AC block, it needs to pass through a ferrite bead to
reduce radiated emissions. Route the black and white AC power wires to the supplied ferrite
bead. Loop the wires twice through the bead and secure with two cable ties as shown in
Figure 5-17. The cable ties are supplied in the ship group that comes with the panel.

Follow the steps below to power-up the 4010ES panel:

1. Connect the negative (-) connector on the battery.

2. Connect the positive (+) connector on the battery.

3. Apply AC power.

Figure 5-16. AC Block labels for AC power connections

out of phase "hot" wires to create the desired voltage.

Figure 5-17. AC power line ferrite bead

5-16

Chapter 6

MSS field wiring

Introduction This chapter shows how 4010ES devices are wired to notification appliances. Most of the

connections shown here are reverse-polarity NACs, IDNet circuits, and power circuits.

In this chapter This chapter covers the following topics:

Topic Page

Power supply wiring distances 6-2
MSS NAC field wiring guidelines 6-4
MSS NAC wiring 6-5
MSS IDNet wiring 6-7
MSS auxiliary power wiring 6-10
MSS auxiliary relay wiring 6-12

6-1

Power supply wiring distances

Overview Before wiring from any type of power supply to notification appliances, check Tables 6-1 and

6-2 for wiring distances.

Class A NAC wiring table

Alarm current

@ 24 VDC

0.25 A 420 ft (128 m) 667 ft (203 m) 1,063 ft (324 m) 1,691 ft (515 m) 6 Ohms

0.50 A 210 ft (64 m) 334 ft (102 m) 532 ft (162 m) 845 ft (258 m) 3 Ohms

0.75 A 140 ft (43 m) 222 ft (68 m) 354 ft (108 m) 564 ft (172 m) 2 Ohms

1.00 A 105 ft (32m) 167 ft (51 m) 266 ft (81 m) 423 ft (129 m) 1.5 Ohms

1.25 A 84ft (26 m) 1 33 ft (41 m) 213 ft (65 m) 338 ft (103 m) 1.2 Ohms

1.50 A 70 ft (21 m) 111 ft (34 m) 177 ft (54 m) 282 ft (86 m) 1 Ohm

1.75A 60ft (18m) 95ft (29m) 152ft (46m) 242ft (74m) 0.86 Ohm

2.00A 53ft (16m) 83ft (25m) 133ft (41m) 211ft (64m) 0.75 Ohm

2.25A 47ft (14m) 74ft (23m) 118ft (36m) 188ft (57m) 0.67 Ohm

2.50A 42ft (13m) 67ft (20m) 106ft (32m) 169ft (51m) 0.60 Ohm

2.75A 38ft (12m) 61ft (19m) 97ft (30m) 154ft (47m) 0.55 Ohm

3.00A 35ft (11m) 56ft (17m) 89ft (27m) 141ft (43m) 0.50 Ohm

Table 6-1 lists the maximum distances from the NAC terminal block to the last appliance in a
Class A configuration, depending on wire gauge and current. Use Table 6-1 to calculate wire
distances for your application if you are using Class A wiring.

Table 6-1. Class A wiring distances

Max distance

w/ 18 AWG

(0.8231 mm

2

)

Max distance

w/ 16 AWG

(1.309 mm

2

Max distance

w/ 14 AWG

)

(2.081 mm

2

)

Max distance

w/ 12 AWG

(3.309 mm

2

)

DC

resistance

Note:

• Max distance = distance from MSS to last appliance.

• This table is calculated at 49
higher temperatures, refer to NEC Table 8.

• Distances are based on a 3V drop, and take into account the worst-case panel output voltage.

• If circuit integrity wire is used instead of housing cable in a fire-rated enclosure, reduce wiring
distances by 38 ft (12 m) for every 10 ft (3 m) of potential exposure.

o

C (120oF). If you are installing in locations that could be exposed to

6-2

Power supply wiring distances, continued

Class B NAC wiring table

Alarm current

@ 24 VDC

0.25 A 840 ft (256 m) 1,335 ft (407 m) 2,126 ft (648 m) 3,382 ft (1,031 m) 12 Ohms

0.50 A 420 ft (128 m) 667 ft (203 m) 1,063 ft (324 m) 1,691 ft (515 m) 6 Ohms

0.75 A 280 ft (85 m) 445 ft (136 m) 709 ft (216 m) 1,127 ft (344 m) 4 Ohms

1.00 A 210 ft (64 m) 334 ft (102 m) 532 ft (162 m) 845 ft (258 m) 3 Ohms

1.25 A 168 ft (51 m) 267 ft (81 m) 425 ft (130 m) 676 ft (206 m) 2.4 Ohms

1.50 A 140 ft (43 m) 222 ft (68 m) 354 ft (108 m) 564 ft (172 m) 2 Ohms

1.75 A 120 ft (37 m) 191 ft (58 m) 304 ft (93 m) 483 ft (147 m) 1.71 Ohms

2.00 A 105 ft (32 m) 167 ft (51 m) 266 ft (81 m) 423 ft (129 m) 1.5 Ohms

2.25 A 93 ft (28 m) 148 ft (45 m) 236 ft (72 m) 376 ft (115 m) 1.33 Ohms

2.50 A 84 ft (26 m) 133 ft (41 m) 213 ft (65 m) 338 ft (103 m) 1.2 Ohms

2.75 A 76 ft (23 m) 121 ft (37 m) 193 ft (59 m) 307 ft (94 m) 1.09 Ohms

3.00 A 70 ft (21 m) 111 ft (34 m) 177 ft (54 m) 282 ft (86 m) 1 Ohm

Table 6-2 lists the maximum distances from the NAC terminal block to the last appliance in a
Class B configuration, depending on wire gauge and current. Use Table 6-2 to calculate wire
distances for your application if you are using Class B wiring.

Table 6-2. Class B wiring distances

Max distance

w/ 18 AWG

(0.8231 mm

2

)

Max distance

w/ 16 AWG

(1.309 mm

2

Max distance

w/ 14 AWG

)

(2.081 mm

2

)

Max distance

w/ 12 AWG

2

(3.309 mm

)

DC resistance

Note:

• Max distance = distance from MSS to last appliance.

• This table is calculated at 49
higher temperatures, refer to NEC Table 8.

• Distances are based on a 3V drop, and take into account the worst-case panel output voltage.

• If circuit integrity wire is used instead of housing cable in a fire rated enclosure, reduce wiring distances
by 38 ft (12 m) for every 10 ft (3 m) of potential exposure.

o

C (120oF). If you are installing in locations that could be exposed to

6-3

MSS NAC field wiring guidelines

Guidelines Review the following guidelines for NACs before you begin NAC field wiring.

• All wiring is 18 AWG (0.8231 mm

2

) minimum to 12 AWG (3.309 mm2) maximum.

• All wiring is supervised and power-limited.

• The maximum alarm current is 3 A per circuit. The supervisory current is 2.03 mA at 24
VDC.

• When NACs are used for regulated notification appl iances, maximu m current pe r NAC is
reduced to 2 A.

• The nominal voltage rating is 24 VDC, 2 Vp-p ripple maxim um.

• The total available current from the MSS is 8 A, unless it is used for regulated.

• 24 VDC notification appliances, where the MSS is rated for 4 A notification. Any current
used for card power by modules plugged into the PDI, as well as any auxiliary 24 VDC
current, must be deducted from the total available current.

• Terminal designations “+” and “-” are for the alarm state.

• Compatible TrueAlert non-addressable appliances for NACs are:

- 4901-series Horn

- 4903-series A/V

- 4903-series S/V

- 4904-series V/O

- 4906-Multi-Candela series A/V, V/O, S/V, and oth ers.

- 49CMT-series, Multi-Tone

- 49CMTV-series, Multi-Tone/Multi-Candela

Note 1. A maximum of 70 appliances can be supported per circuit.
Note 2. Each 49CMT and 49CMTV series appliance counts as 5 regular appliances, therefore no

more than thirteen 49CMT or 49CMTV series appliances may be placed on one circuit.

1

1

1

1

1

2

2

• Notification appliances are rated per individual nameplate label.

• Maintain correct polarity on terminal connections. Do not loop wires under terminals.

6-4

MSS NAC wiring

&%22)4%"%!$

#!",%4)%3

TYPICAL

APPLIANCE

RED

RED

RED

TYPICAL

APPLIANCE

BLK

BLK

BLK

12 AWG (3.309 mm2) to
18 AWG (0.8231 mm

2

)

Important: Conductors must test free of

all grounds.

Leave the 378-030 EOL
Resistor (10 KOhms, ½ W;
brown/black/orange) on
unused

circuits

Ferrite beads

required for RF immunity

to CE specified levels.

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Class A NAC Wiring

T o connect the MSS to reverse-polarity, non-addressable notification appliances using Class A
wiring, read the instructions below and refer to Figure 6-2.

1. When connecting the NAC wires to the terminal block, they need to pass through a ferrite

bead to reduce radiated emissions. Route the wires to the supplied ferrite bead. Loop the
wires twice through the bead and secure with two cable ties as shown in Figure 6-1. The
cable ties are supplied in the panel’s ship group.

Figure 6-1. NAC ferrite bead wiring

2. Route wire (between 12 AWG [3.309 mm2] and 18 AWG [0.8231 mm2]) from the “B+”,

“B-”, and SHIELD (if used) outputs on TB2 of the MSS to the appropriate inputs on a
peripheral notification appliance. Use NAC1, NAC2, NAC3 or NAC4.

3. Route wire from the first appliance to the next one. Repeat for each appliance.

4. Route wire from the last appliance to the A+ and A- inputs on the same NAC circuit of TB1

of the MSS.

5. Repeat steps 1 through 4 for each NAC output you want to use.

6. Leave the 10 KOhms, ½ W, brown/black/orange resistor (378-030) on each unused circuit.

The circuit must connect “B+” to “B-” terminals. No external end-of-line resistor is needed
for circuits in use.

Figure 6-2. Class A NAC wiring

6-5

MSS NAC wiring, continued

TYPICAL

APPLIANCE

RED BLK

TYPICAL

APPLIANCE

10K 1/2W (133-894)

RED RED

RED RED

Important: Conductors must test free of

all grounds.

12 AWG (3.309 mm2) to
18 AWG (0.8231 mm

2

)

BLK

BLK

BLK

4081-9008 EOL Harness

Leave the factory installed
EOL Resistor (10 KOhms, ½ W
brown/black/orange) on
unused circuits

Ferrite bead
required for RF
immunity to CE

specified levels.

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Class B NAC wiring

To connect the MSS to appliances using Class B wiring, read the following instructions and
refer to Figure 6-3.

1. When connecting the NAC wires to the terminal block, they need to pass through a ferrite
bead to reduce radiated emissions. Route the wires to the supplied ferrite bead. Loop the
wires twice through the bead and secure with two cable ties as shown in Figure 6-1. The
cable ties are supplied in the panel’s ship group.

2. Route wire (between 12 AWG [3.309 mm

2

] and 18 AWG [0.8231 mm2]) from the B+, B-,
and SHIELD outputs on TB2 of the MSS to the appropriate inputs on a peripheral
notification appliance. Use NAC1, NAC2, NAC3 or NAC4.

3. Route wire from the first appliance to the next one. “T” tapping is not allowed. Repeat for
each appliance.

4. Route wire from the last appliance to the EOLR harness (10KOhms, 1/2 W: P/N 733-894,
PID# 4081-9008).

5. Repeat steps 1 through 4 for each NAC output you want to use.

6. Leave the factory installed EOL Resistor (10K Ohms, ½ W; brown/black/orange) on each
unused circuit. The circuit must connect “B+” to “B-” terminals.

Figure 6-3. Class B wiring

6-6

MSS IDNet wiring

Overview A single IDNet+ channel is provided that can connect up to 248 IDNet devices. The IDNet+

channel has 2 isolated circuits that support either Class A or Class B wiring. Typical devices
include smoke and heat sensors, QuickConnect sensors and a variety of addressable input and/
or output modules. Refer to datasheet S4090-0011 for a list of compatible IDNet devices.

Class A wiring provides an alternate communication path that provides communications to
all devices when a single open circuit fault occurs. Class A wiring requires two wires to be
routed from the IDNet+ Primary T erminals (B+, B-) to each IDNet device, and then back to the
IDNet+ Secondary Terminals (A+, A-).

Note: Wiring is in/out. “T” tapping is not allowed.

Class B wiring allows “T” tapping, and typically results in less wiring used per installati on

compared to Class A. IDNet wiring is inherently supervised due to individual device level
communications, and end-of-line resistors are not required.

Wiring parameters

Table 6-3 identifies the MSS with IDNet wiring parameters that must be considered when
applying this module. For additional wiring information, see the applicable installa tion
documentation or contact your authorized Simplex Product supplier.

Table 6-3. MSS IDNet wiring parameters

IDNet wiring capacitance parameters

Parameter Value

Maximum supported channel capacitance;

Total of both isolated outputs

Capacitance between IDNet+ SLCs wiring

(between wires of the same polarity; plus to

plus, minus to minus)

IDNet+ wiring distance limits (see notes below)

Class B wiring, total channel wiring

Channel loading

Total loop resistance 50  maximum 35  maximum 50  maximum 35  maximum

18 AWG (0.82 mm
16 AWG (1.31 mm
14 AWG (2.08 mm
12 AWG (3.31 mm

Notes: Maximum wiring distance is determined by either reaching the maximum resist ance, the maximum capaci tance, or the

stated maximum distance, whichever occurs fi rst. Class A maximum distances are to the farthest device on the loop
from either “B” or “A” terminals. For Class B wiring, the maximum dist ance to th e farthest device is limited t o the st ated
Class A wiring distances.

IDNet+ wiring considerations using 2081-

9044 Overvoltage Protectors

(2081-9044 is UL listed to Standard 60950-1,

Standard for Safety of Inf ormation Technology

2

)

2

)

2

)

2

)

Equipment)

parameters, including T-Taps

Up to 125 devices 126 to 248 devices Up to 125 devices 126 to 248 devices

12,500 ft (3.8 km) 4000 ft (1219 m) 2500 ft (76 2m)
12,500 ft (3.8 km) 5000 ft (1524 m) 2500 ft (762 m)
12,500 ft (3.8 km) 5000 ft (1524 m) 2500 ft (762m)
12,500 ft (3.8k m) 5000 ft (1524 m) 2500 ft (762 m)

The sum of line-to-line capacitance, plus the capacitance of either line-to-

shield (if shield is present) = 0.6 µF (600 nF)

1 µF maximum (this is for multiple IDNet+ channels)

Class A wiring,

total channel wiring parameters

Note: External wiring must be shielded for lightning suppression, and 2081-

9044 Overvoltage Protectors must be installed at building exit and entrance
locations.

Capacitance; each protector adds 0.006µF across the connected line.
Resistance; each prot ector adds 3  per line of series resistance; both IDNet

lines are protected; 6  per protector will be added to total loop resistance.
Maximum distance of a single protected wiring run is 3270 ft (1 km).
Refer to document number 574-832, 2081-9044 Overvoltage Protector

Installation Instructions, for additional information.

6-7

MSS IDNet wiring, continued

IDNet Circuit A

B+ B- A+ A-SHLD

IDNet Circuit B

B+ B- A+ A-SHLD

P1

135

246

135

246

P2

Position 3-5 and 4-6

Class A Wiring

+++---++ +-- -

IDNet Devices

18 to 12 AWG

(0.82 to 3.31 mm

2

)

MSS with IDNet

TB1

Notes:

Set jumpers to Positions 3-5 and 4-6 to
select Style 6 (Class A) operation. (Refer
to P1 and P2 in Figure for correct
orientation)

For this application, the Shield (if present)
can be terminated at both ends for
improved EMI susceptibility.

Circuit A jumpers Circuit B jumpers

Class A wiring To connect the MSS with an IDNet+ channel to devices using Class A wiring, read the

following instructions and refer to Figure 6-4:

1. Route wiring from the IDNet Circuit Primary Terminals (B+, B-), and SHIELD terminals on
TB1 of the IDNet+ module to the appropriate inputs on the first IDNet device.

Note: Shielded wiring is optional. SHIELD terminations are connected to earth.

2. Route wiring from the first IDNet device to the next as in/out as shown in Figure 6-4. Repeat
for each device.

3. Route wiring from the last IDNet device to the IDNet Circuit Secondary Terminals (A+, A)
and SHIELD Terminals (if used) on TB1 of the IDNet+ module.

4. Ensure that circuit jumpers are configured for Class A operation.

Note: There are two considerations for addressing Class A wired IDNet devices connected to the IDNet+

module:

1. If no remote isolators or isolator bases are on the loops, device addressing can be assigned without

Figure 6-4. Class A wiring

concern for sequence.

2. If remote isolators or isolator bases are on the loops, the required addressing approach is to
start from the “B” side of the A loop output and assign each successive isolator a higher address
than the isolator it proceeds. Follow this sequencing through to the “B” side of the B loop.

6-8

MSS IDNet wiring, continued

A tiucriC teND

I

-

A+A-B+BDLHS

B tiucriC teND

I

-A+A-B+BDLHS

1P

531

642

135

24

6

2P

4-2

dna 3-1 n

oitisoP

gniriW B ssalC

seciveD

teND

I

GW

A 21 o

t 8

1

mm 13.3 ot 28.0(

2

)

teNDI htiw SSM

1BT

:et

oN

ot 4-2 dna 3-1 snoitisoP ot srepmuj teS

dna 1P ot refeR( .noitarepo B ssalC tceles

)noitatne

iro tcerroc rof erugiF ni 2P

srepmuj B tiucriCsrepmuj A tiucriC

seciveD te

NDI

-A+A-B+

B

DLH

S

2

1 3

4

lellarap 4 ot pu ,y

lno gni

riw B ssalC roF

tuptuo eht ta edam eb yam spat ”T“ gniriw

skcolb lanimret

eht f

o

Class B wiring Class B wiring requires the configuration jumpers to be set to positions 1-3 and 2-4. Two

jumpers must be set for each circuit, refer to Figure 6-5 for locations. Each of the four IDNet
outputs provides short circuit isolation between itself and the others. A short on one output is
isolated from the others.

For Class B wiring only, both the B+, B- and A+, A- terminals are available for parallel
connections. A+ is connected to B+, and A- is connected to B- as shown in Figure 6-5.
Additionally , two wires can be connected to each screw terminal. The result is that for Class B
wiring only, four parallel output branch circuits can be connected at the IDNet+ module
terminals.

Note: There are two considerations for addressing Class B wired IDNet devices connected to the IDNet+

1. If no remote isolators or isolator bases are on the loops, device addressing can be assigned without

module.

concern for sequence.

Figure 6-5. Class B wiring

2. If remote isolators or isolator bases are on the loops, the required addressing approach is to start at

the A loop output and assign each successive isolator a higher address than the previous one.
Follow this sequencing through to the B loop, then to the C loop, and then to the D loop.

3. For Class B wiring only, the “A” output and “B” output per loop are connected together in parallel for
wiring convenience.

6-9

MSS auxiliary power wiring

Guidelines • All wiring is 18 AWG (0.8231 mm

• All wiring is power-limited.

• When a NAC is configured as an auxiliary power circuit, no end-of-line resistor is used.

• Auxiliary power may be taken from the dedicated auxiliary power tap or from an unused NAC. The Aux

power circuit can be used to power four-wire detectors. It can also control unit accessories and other
supplemental devices.

• If auxiliary power is taken from NAC terminals, the NAC must be configured as an auxiliary power point

type in the ES Panel Programmer.

• Remove end-of-line resistors from NACs when used for auxiliary power.

• External wiring from the dedicated auxiliary power tap is not supervised unless an end-of-line relay is

wired to auxiliary power, and normally open contacts are monitored by a system power point. Relay
current must be considered as part of the load. When NACs are used as AUX power taps, they are
supervised for overcurrent or short-circuit faults. When only addressable devices are connected to the
auxiliary power tap, an end-of-line relay is not required. This is because the power for the addressable
devices is supervised due to the device being addressable.

• All wiring that leaves the building requires overvoltage protection. Install module 2081-9044 wherever

wire enters or exits the building.

• Voltage rating: 24 VDC (nominal), 2 Vp-p ripple (maximum).

• The following devices are compatible with 24VDC aux. power:

- 2088-series relays and door holders

- 2098-series four-wire smoke detectors

- 4090-series IDNet ZAMs

- 4098-series four-wire smoke detectors and duct detectors

- 4190-9050/9051 4-20 mA ZAMs

- 4606-9102 LCD Annunciator

- 4100-94XX InfoAlarm Remote Annunciators

- 4100-7401, -7402 Graphic Annunciator Modules

• The total auxiliary current available is 4A. The total current available for the entire MSS is 8 A (special

application) or 4 A regulated 24 VDC, including NAC, auxiliary, and card power.

2

) and 12 AWG (3.309 mm2).

6-10

MSS auxiliary power wiring, continued

AUXILIARY

POWER

AUXILIARY

POWER

AUXILIARY

POWER

AUXILIARY

POWER

• Maximum allowed NAC current consumption (aux power plus NACs): 8 A
(Special Application) or 4 A regulated 24 VDC.
Maximum per NAC: 3 A

• Maximum allowed auxiliary power current consumption: 4 A (total supply).
Maximum per auxiliary output: 2 A

• Class A wiring is possible only if a 4090-9117 Power Isolator is used.

• International systems require ferrite beads. Use kit 4100-5129.

Devices

Primary Return

TB1 TB2

24V

0V

TB1 TB2

To MSS

Class A aux power wiring requires the use
of 4090-9117 IDNet Power Isolators, as
shown above.

4090-9117
ISOLATOR

4090-91

17

ISOLA

TOR

Dedicated auxiliary
power screw terminal
(configured in the
Programmer)

NAC points must be
reconfigured as
auxiliary power
output points in the
programmer

12 AWG (3.309 mm2) to
18 AWG (0.8231 mm

2

)

12 AWG (3.309 mm2) to
18 AWG (0.8231 mm

2

)

Ferrite bead
Required for RF
immunity to CE
specified levels.
Use kit 4100-5129.

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AUXILIARY

POWER

MSS

Wiring The MSS can connect to auxiliary power appliances via the dedicated auxiliary power tap. If

more power is needed, any of the three NAC outputs can be used for auxiliary power.

Figure 6-6. Auxiliary power wiring

6-11

MSS auxiliary relay wiring

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MSS

12 AWG (3.309 mm

2

) to

18 AWG (0.8231 mm

2

)

Dedicated auxiliary
relay terminal block

.##./

!58
4"

NORMALLY

OPEN

COMMON

NORMALLY

CLOSED

Guidelines The MSS includes one on-board, programmable relay.

• All wiring must be between 18 AWG (0.8231 mm2) and 12 AWG (3.309 mm2).

• When power through auxiliary contacts is provided by the MSS, wiring is power-limited.

• When power through auxiliary contacts is not provided by the MSS, use in-line fuse holder 208-165
with 208-183, 1A fuse with attached cap (supplied separately). If the power source is not power-limited
to the requirements of UL864, wiring is to be segregated to the non-power-limited spaces of the
cabinet.

• The relay circuit is not supervised.

• The relay circuit is rated to switch 2 A at 30 VAC or 30 VDC, resistive load.

• Relay contacts are Form C dry contacts. Suppression is provided to earth. Do not switch voltages
greater than rating, or damage may result.

Wiring Figure 6-7 shows MSS auxiliary rel ay wiring.

Figure 6-7. Auxiliary relay wiring

6-12

Chapter 7

PC software connections

Introduction The service port on the CPU allows the 4010ES panel to connect to a PC running utilities,

such as diagnostics, programming, CPU firmware downloading, and channel monitoring.

In this chapter This chapter covers the following topics:

Topic Page

Software modes 7-2
Ethernet service port 7-4

7-1

Software modes

Laptop/PC running

terminal emulation software

4010ES Panel

serial download or
standard Ethernet cable

Laptop/PC running

Programmer software

4010ES Panel

serial download or
standard Ethernet cable

Software modes There are three basic software modes that the service port can be used to connect to:

• Service and Diagnostics Mode

• Data Transfer Interface Mode

• Master Bootloader Interface Mode

Each mode is described below.

Service and Diagnostics Mode:

This is the default functionality when a PC is connected to the FACP. On a PC, this mode
provides application startup messages, an ASCII interface to a UI command set for diagnostics,
and event reporting. A pre-configured terminal emulator is part of the 4010ES software and
can be launched from the programmer. The connection to a PC is made through the Ethernet
port. If it is not available, the serial port can be used instead.

Note: Ethernet connection is the preferred connection for service.

Figure 7-1. Service and Diagnostic interface

Data Transfer Interface Mode:

In this mode, the ES Panel Programmer is used. This allows for slave downloading and
uploading a configuration or history log from the FACP. Connection to a PC is made through
the Ethernet port. If it is not available, the serial port can be used instead.

Figure 7-2. Data Transfer interface

Continued on next page

7-2

Software modes, continued

Laptop/PC running

terminal emulation software

4010ES Panel

running Bootloader

serial download or
standard Ethernet cable

Laptop/PC running

programming file transfer

Software modes Master Bootloader Interface Mode:

This interface should be used when the Master executable is not functioning. It downloads the
CPU Exec firmware and the CFG.TXT file to the CPU via the serial or the Ethernet port.

Figure 7-3. Bootloader interface

7-3

Ethernet service port

Ethernet SERVICE PORT (J7)
RJ45 TYPE

Ethernet service port overview

The Ethernet service port J7 on the CPU card is used to connect the panel to a local PC. See
Figure 7-4 for the port location.

Figure 7-4. Ethernet service port

The Ethernet service port connects to the front panel Ethernet connection through a standard
straight (non-crossover) Ethernet patch cable. The front panel Ethernet connection is located
on the top left of the 4010ES front panel. The service technician should connect his PC to the
CPU card through this front panel connection with a standard straight Ethernet cable. If this
connection is not available, you may plug the CPU Card connector J7 directly to the PC with a
standard straight Ethernet cable.

Note: If a BNIC card is used with the system, the CPU card Ethernet connection connects to it. The BNIC

card then connects to the Front Panel Ethernet Connection board

.

Figure 7-5. Front Panel Ethernet Service Port

7-4

Chapter 8

System wiring checkout and earth fault diagnostics

Introduction This chapter describes how to check system wiring and run the earth fault diagnostics in the

panel.

In this chapter This chapter covers the following topics:

T opic Page

Checking system wiring 8-2
Earth fault diagnostics 8-4
Earth fault searching from the front panel 8-6
Earth fault search results 8-9

8-1

Checking system wiring

Overview This section contains instructions on how to use a multimeter to check system wiring

Using the multimeter

When using the multimeter to check each circuit, make sure to adhere to the notes and
instructions below.

Note:

• Ensure that no power is applied to the 4010ES fire alarm panel and that all wiring is properly connected
(terminal blocks, LED/switch module ribbon cables, etc.)

• Use the grounding lug with the earth ground symbol inside the control panel for all measurements to
ground.

• Each circuit must test free of all grounds and extraneous (stray) voltages.

• If there are problems removing all power from the fire alarm system, there is an alternate method of
testing for stray voltage. The wires may be lifted from the panel and terminated with appropriate
resistors. Use 3.3K ohms across conductor pairs and 50K ohms connected from any conductor under
test to ground. All conductors must read less than 1.0V AC or DC.

Use a multimeter as described in the steps below to check each circuit type.

1. At the control panel, locate wires from each initiating device or indicating appliance
circuit.

2. Check each circuit for extraneous voltage by setting the volt/ohm meter to AC. Place the
meter probes so that the black probe is on the “-” wire and the red probe is on the “+” wire.
Meter readings must show less than 1.0 VAC.

3. Set the multimeter to DC and repeat step 2. The meter must read less than 1.0 VDC.

4. Check all conductors for extraneous voltage to ground. The meter must read less than 1.0V
AC and DC.

5. Set the multimeter to OHMS and place the meter probes as described in step 2. Check the
circuits using the resistance measurements in Table 8-1. Locate and correct any abnormal
conditions at this time.

Note: If the reading indicates an open circuit in an initiating circuit, make sure the smoke detector heads

are properly mounted and seated. The circuit may be open if smoke detector power is not present,
and if separately powered 4-wire devices are used.

6. Check all other system wiring to verify that each circuit is free of grounds and extraneous
voltages.

8-2

Checking system wiring, continued

Meter readings Table 8-1 lists the correct meter readings for indicating app liances and initiating devices.

Table 8-1. Acceptable zone and signal circuit meter readings

Circuit type Meter reading

Class B/Style B Initiating Device (Zone) Circuit
From zone + to zone – (each zone) 3.3 KOhms
From zone + to ground Infinity
From zone - to ground Infinity
Class A/Style D Initiating Device (Zone) Circuit
From zone + to zone – (each zone) Infinity
From zone + to ground Infinity
From zone - to ground Infinity
From zone + OUT to + IN Less than 25 Ohms
From zone - OUT to - IN Less than 25 Ohms
Class B/Style Y Notification Appliance Circuit (each signal circuit)
From + to ground Infinity
From - to ground Infinity

Resistance across circuit 10 KOhms
Class A/Style Z Notification Appliance Circuit (each signal circuit)
From + to ground Infinity
From - to ground Infinity
From B+ to A+ Less than 50 Ohms
From B- to A- Less than 50 Ohms

Resistance across circuit 10 KOhms
IDNET+ Loops (ZAMs and IAMs)
From IDNET+ “+” to ground Infinity
From IDNET+ “-” to ground Infinity

Note: Ground refers to earth ground.

8-3

Earth fault diagnostics

Overview This section contains instructions on how to use the Earth Fault Search feature of the 4010ES

diagnostics menus. The minimum earth fault detection level for the 4010ES is 10 KOhms for
all circuits.

Earth Fault Search is a diagnostic search of external field wiring that assists in locating circuits
with earth faults. An earth fault occurs when an electrical circuit is shorted to ground. Although
most circuits operate with a single earth fault, multiple earth faults can disable
communications. Because of this, earth faults must be located and repaired.

Earth Fault Search is conducted by the FACP. The diagnostic may be activated using either the
front panel interface or the computer port protocol (CPP), via a service port.

The 4010ES supports two types of Earth Fault Searches:

• Location Search. Searches all circuits at a location, such as a transponder or the main
panel. For the purposes of earth fault searching,

- A location is composed of a group of slaves connected to each other via 4010ES comm

(local RUI).

- The main panel is defined as all slaves local to the Master CPU.

- A transponder denotes all slaves associated with a single Transponder Interface Card

(Remote InfoAlarm or 4009 TPS).

• IDNet Channel Search. Selectively enables channel isolators and repeaters to detect
which segment of the channel wiring has a fault. Earth faults are detected by one of the
following:

General guidelines

- A single designated power supply at a location. The power supply that detects the fault

is designated via a jumper setting on the power supply slave. For any given location,
only one power supply should detect earth faults.

- Each 4009 IDNet NAC Extender on an IDNet channel.

Review the guidelines below before initiating an Earth Fault Search.

• The Detect Earth Fault jumper (P3) must be installed at the MSS for earth fault detection
to occur. See Table 2-12 in Chapter 2 for details on that jumper.

• Only one power supply per location is configured to detect earth faults.

• For more reliable earth fault searching:

- Use IDNet channel isolators to isolate channel faults to a specific segment of channel

wiring.

- Set IDNet channel isolator addresses to the lowest IDNet device addresses, increasing

with communication distance from the IDNet card.

• If an earth fault is suspected on the IDNet channel with multiple isolators, start an IDNet
Channel Search before doing a Location Search. If the Location Search is done first, it
may not yield the correct location (this is a by-product of the extended amount of time
required for the IDNet channel to initialize during a Location Search).

Note: The 4009 IDNet NAC Extender has a common ground fault trouble that reports to the panel without

running the Earth Fault Search.

• Earth Fault Search detects only one fault at a time. Multiple faults require fixing the first
fault and then repeating the search.

• The FACP suspends normal operation for the duration of the Earth Fault Search.

8-4

Continued on next page

Earth fault diagnostics, continued

General
guidelines

• Location Earth Fault Searches optionally allow exclusion of auxiliary power circuits from
the search, so that modules connected to the 24V auxiliary outputs can remain in operation
during the search.

• The option to exclude auxiliary power circuits does not apply to IDNet devices, because
the entire IDNet communication channel is isolated during each search.

• During the search, all related troubles are suppressed and a single trouble pseudo-point is
activated (P438).

• At the completion of the search, all slaves are restarted and normal panel operation
resumes.

IMPORTANT: The fire panel cannot provide fire protection during an Earth Fault Search.

8-5

Earth fault searching from the front panel

Overview This section describes how to conduct an Earth Fault Search, from selecting the appropriate

access code to correcting the fault.

Access level selection

Starting the Earth Fault Search

The panel must be at the appropriate access level (1, 2, 3, or 4) in order to run diagnostics. To
get to the correct access level:

1. Press the Menu button. The following message comes up (press the Next or Previous

buttons, if necessary, to display it):

Press <NEXT> or <PREVIOUS> to scroll
Change Access Level?

2. Press the Enter button. Now you are prompted to log in or log out.

1=Login 2=Logout
CURRENT ACCESS LEVEL = x

3. Press the "1" key on the numeric keypad to log in, so that the passcode prompt comes up.

Enter a Passcode followed by <ENTER>

4. Enter the passcode and press the Enter button. ACCESS GRANTED displays briefly on

the LCD, and then the display goes back to:

1=Login 2=Logout
CURRENT ACCESS LEVEL = y

You can now open the diagnostic menu as described in the next topic.

To start an Earth Fault Search:

1. If necessary, press the Menu button to access the menus.

2. Press the Previous or Next buttons until the diagnostic functions option appears:

Press <NEXT> or <PREVIOUS> to scroll
Diagnostic Functions?

3. Press the Enter button. Then press Next or Previous buttons until the Earth Fault Search

option appears:

Press <NEXT> or <PREVIOUS> to scroll
Earth Fault Search?

4. Press the Enter button. The following options become available when you press the Next

and Previous buttons:

Press <NEXT> or <PREVIOUS> to scroll
Location Search

Press <NEXT> or <PREVIOUS> to scroll
IDNet Channel Search

Press <NEXT> or <PREVIOUS> to scroll
Last Search Result

The search types are described below. When you have determined what kind of search to
initiate, display its option (one of the three shown above) and press the Enter button. Each
option is described below.

8-6

Earth fault searching from the front panel, continued

Search Option A: Select Location

• If you select the Location Search menu item, a list of cards to search becomes available.
Use the Next and Previous buttons to scroll through the list.

• If you find a card that you suspect is connected to a circuit with an earth ground, press the
Enter button when that circuit is shown.

• Before you can start the search, the Aux Power Select option comes up.

1=Exclude 2=Include
Exclude AUXPWR circuits from search?

• The number you select, 1 or 2, determines whether the auxiliary power circuit on the
selected board is searched for earth grounds. If you exclude the auxiliary power circuit
from the search, the circuit will continue to operate normally.

• Press 1 (or just press the Enter button) to exclude the card's auxiliary power circuits from
the search, or press 2 to remove auxiliary power circuits from normal operation and search
them for earth grounds.

• Now you are prompted to start the search. When the location you want to search is shown
and "Press <ENTER> to start search" displays, the search is ready to start. A sample is

shown below.

CARD 1, SYSTEM POWER SUPPLY
Press <ENTER> to start search

Note: The FACP suspends normal operation for the duration of the search.

Search Option B: Select Location

• Press the Enter button to start the search.

• As the search progresses, watch the display for an indication of how much of the search
has been completed. The search can be aborted at any time if you press the Clear button.

Earth Search In-Progress, Please Wait...
Earth Search In-Progress, Please Wait...

40%

Skip ahead to "Completing the Search".

• If you select the IDNet Channel Search menu item, a list of IDNet channels to search
becomes available. Use the Next and Previous buttons to scroll through the list. When the
IDNet channel you want to search is shown and "Press <ENTER> to start search" displays,

the search is ready to start. A sample screen is shown below.

IDNET CHANNEL M12
Press <ENTER> to select for search

Note: The FACP suspends normal operation for the duration of the search.

• Press the Enter button to start the search.

• As the search progresses, watch the display for an indication of how much of the search
has been completed. The search can be aborted at any time if you press the Clear button.

Earth Search In-Progress, Please Wait...

Earth Search In-Progress, Please Wait...
40%

Skip ahead to "Completing the Search".

8-7

Earth fault searching from the front panel, continued

Search Option C: Last Search Result

Completing the search

This option simply displays the last Earth Fault Search result. If there has been no search since
the last system startup, or if the last search was aborted, the panel displays "RESULT NOT
AVAI LAB LE."

When a Location or IDNet Channel Search completes, all of the following occur:

• All slaves automatically reset.

• The FACP turns off the Earth Fault Search trouble pseudo-point.

• The panel displays the specific fault information.

The panel can only return one Earth Fault Search result at a time. If another fault exists, it can
only be found via diagnostics after the first fault is cleared. Faults will continue to appear, one
by one, until each one has been found and corrected.

IMPORTANT: Once you have been directed to an earth ground fault and corrected it, it is

recommended that you restart the system (warm- or cold-start).

Continue to the next topic for a list of search results and their required actions.

8-8

Earth fault search results

Overview There are several types of results that can display at the end of an Earth Fault Search. This

section covers all types of results.

IMPORT ANT: Once you have been directed to an earth ground fault and corrected it, it is

recommended that you restart the system (warm- or cold-start).

Non-point faults A non-point fault indicates a ground that cannot be traced to an addressable point (for example,

a shield

Point Faults A point fault indicates a ground at a specific addressable point. Point faults can be found at any

point in the system that connects to field wiring.
Some IDNet channel point fault examples are illustrated below.
Fault not cleared. The message below shows that an IDNet channel that has been isolated for

fault detection still has the earth fault:

Fault between channel output and first isolator. The message below shows a fault between
the IDNet channel output and the first isolator on the line:

).

CARD 2, IDNET CARD (250 POINTS)
M1, EARTH FAULT SEARCH FAULT CLEAR FAIL

CARD 2, IDNET CARD (250 POINTS)
M1, CHANNEL OUTPUT EARTH FAULT

4009 IDNet NAC Extender/TrueAlert Addressable Controller faults. The message below
shows a fault detected on the 4009 IDNet NAC Extender before the repeater connected to that

circuit is turned on:

CARD 2, IDNET CARD (250 POINTS)
M1-18, 4009A NAC EARTH FAULT

Conversely, the following example shows a fault detected after the repeater connected to that
circuit is turned on:

CARD 2, IDNET CARD (250 POINTS)
M1-18, 4009A REPEATER EARTH FAULT

IDNet isolator fault. The message below shows a fault detected after the IDNet isolator was
turned on:

CARD 2, IDNET CARD (250 POINTS)
M1-3, IDNET ISOLATOR EARTH FAULT

8-9

Earth fault search results, continued

Fault Not Found If the message in the lower right corner of the LCD reads FAULT NOT FOUND (for a

Location Earth Fault Search) or FAULT CLEAR FAIL (for an IDNet Channel Earth Fault
Search), it means the search could not locate the fault, but it acknowledges that a fault exists.

There are five possible causes for this message:

• There are one or more internal wiring earth(s) in the system.

• There are system defects (hardware or software, such as a failed isolation circuit).

• An intermittent earth exists in the system (it occurs inconsistently and is therefore difficult
to track via diagnostics).

• The cable to the service port may be grounded due to the remote PC's 3-prong plug. Use a
non-grounded plug adapter to the remote PC to get rid of the earth ground.

• The fault is on an auxiliary output that was excluded from the search.

The problem may have to be found manually and then corrected in some of the above
scenarios.

No Fault If the message in the lower right corner of the LCD reads NO FAULT, it means the IDNet

channel search could not locate any earth faults on that channel.

Result Not Available

If the message in the lower right corner of the LCD reads RESULT NOT AVAILABLE, it
means there is no result to view. This message comes up only when you have selected "Last
Search Result" on the menu.

8-10

Appendix A

ULC programming requirements

Introduction This appendix discusses the programming operations that must be met to comply with

Canadian Underwriter’s Laboratory (ULC) standards.

In this chapter This chapter covers the following topics:

Topic Page

Common earth fault ground indicator A-2
Simultaneous alarm display A-4
Setting alarm verification timer to Canadian operation A-7
Setting Alarm Reset/Inhibit Timer A-8
Alarm Cutout Timer A-9

A-1

Common earth fault ground indicator

Overview This application monitors a system pseudo (A112) that counts the number of ground faults that

occur on the system. Each time this counter increments (i.e., a ground fault occurs), a yellow
LED on the operator interface panel illuminates.

Step 1. Open CPU card properties dialog

1. Click on the Hardware tab and expand the Unit 0, Box 1, Bay 1 icons to display the CPU

Card. (Click on the + signs to the left of the Unit 0, Box 1, and Bay 1 icons to expand them.)

Figure A-1. Selecting the CPU card

2. Right click on the CPU card icon (it is highlighted in the example above) and select Proper-

ties. When the CPU card properties dialog appears, click on the Display tab as shown in the

example below.

Figure A-2. The Display tab: Display checkbox

A-2

Common earth fault ground indicator, continued

Step 2. Program the LED

1. Select one of the multicolor LEDs (0-5-11, 0-5-12, or 0-5-13) to program (Figure A-3).

2. Click on the Point Type list box and select LEDYELLOW.

3. Click on the Mode drop down list box and select ON.

4. Enter A112 (no spaces) in the Reference Address field.

Figure A-3. The Display tab: LEDs

A-3

Simultaneous alarm display

Overview ULC requires that every fire panel be capable of indicating the presence of up to eight

simultaneous alarms. The 48-LED Module supplied with some configurations of the 4010ES
panels is used for that purpose. Implementing this on the 4010ES is a two-step process, as
follows:

1. Create Annunciation Zone Lists. Divide the panel’s initiating devices into physical areas (by

floor, by department, etc.) Create a user-defined list for each zone and include all of the ini­tiating devices for the zone in the list. See “Creating Annunciation Zone Lists” below for
information on doing this.

Note: Annunciation Zone Lists are only necessary if you are using addressable devices. If you are using

hardwired monitor zones, it is not necessary to create a list.

2. Program LED modes and reference addresses. This step associates the address of the zone

list with the LED and its mode.

Creating annunciation zone lists

To create the annunciation zone lists – which are the lists containing the initiating devices for
each zone – follow these steps.

1. Click on the List tab in the main ES Panel Programmer window.

2. Right click anywhere in the TagList dialog. A menu appears, containing a range of options.

Select Add List. A tag list, similar to the following, appears.

Figure A-4. The TagList dialog

A-4

Continued on next page

Simultaneous alarm display, continued

Creating
annunciation
zone lists

3. Select points for the list as follows.

• Non-Adjacent Points. If the points required for the zone are not adjacent to one another,
select the points by holding down the shift key and then click the mouse cursor on each
point. When all of the non-adjacent points are selected, press the space key to select the
points and add them to the zone’s list. A >> symbol appears to the left of each point to
indicate that it is selected.

• Range of Adjacent Points. If the points required for the zone are adjacent to one another in
the tag list, highlight the first point then hold down the shift key and use the Up or Down
arrow key to highlight the points above or below the first point. When the full range of
points is highlighted, press the space key to select the points and add them to the zone’s
list. A >> symbol appears to the left of each point to indicate that it is selected.

4. Click the OK button in the TagList dialog. A labeling dialog appears, allowing you to

specify the name for the list.

Figure A-5. The List dialog

Programming the address and mode for each LED

5. Enter a text name that uniquely identifies the zone (i.e., Floor1, Zone1, etc.). Click OK.

The list is added to the List window. Repeat steps 1 through 5 for each annunciation zone
list.

This section describes associating each pair of LEDs with the correct mode and reference
address.

1. Click on the Hardware tab. Locate the icon for the 48 PLuggable LED Module (door

mount). Right-click the mouse and select Properties. When the properties dialog for the
card appears, click on the Point Editing tab. A window similar to the following appears.

Figure A-6. The Point Editing tab

A-5

Continued on next page

Simultaneous alarm display, continued

Programming the
address and
mode for each
LED

2. Do the following for each zone:

a. Click on the line for a red LED.
b. Click on the Mode list box and select the FIRE mode.
c. Click on the Reference Address field and enter the identifier for one of the zone’s list
d. Click on the line for the yellow LED that is paired with the red LED you selected in Step

2a.
e. Click on the Mode list box and select the TROUBLE mode.
f. Click on the Reference Address field and enter the identifier for the same list specified

in Step 2c.

The effect of this programming is that if any of the points within the zone’s list enters an alarm
state, the red LED illuminates. Likewise, if any of the points within the zone’s list enters a
trouble state, the yellow LED illuminates.

A-6

Setting alarm verification timer to Canadian operation

Introduction When you select Canadian operation for the alarm verification feature, the system operates as

follows:

• If a point specified within one of the alarm verification lists enters an alarm state, the
system delays the annunciation of the alarm for 15 seconds.

• When the 15-second timer expires, the system attempts to reset the initiating device for
five seconds.

• After the five-second timer expires, the system evaluates the state of the initiating device
for 10 additional seconds. After 10 seconds, if the device is still in alarm, the system
immediately annunciates the alarm.

Procedure 1. Click on the List tab to display the List window.

2. At the bottom of the List window, select the Alarm Verification tab.

3. Right-click on one of the lists and select Properties. The Alarm Verification Properties

dialog shown below appears.

4. Click on the Alarm Verification tab .

5. Click on the drop down list box and select Canadian (ULC).

Setting this property for one alarm verification list sets it for all lists.

Figure A-7. Alarm verification properties: Alarm Verification tab

A-7

Setting Alarm Reset/Inhibit Timer

Overview The Alarm Reset/Inhibit Timer system option disables the Alarm Silence and System Reset

keys for a user-definable duration that ranges from 1 to 60 mi nutes. The timer is acti vate d only
by the first alarm (i.e., subsequent alarms do not reset the timer).

Note: The default setting is not enabled. This option must be enabled for Canadian jobs

Enabling Alarm Reset/Inhibit Timer

To enable the Alarm Reset/Inhibit Timer, do the following:

1. Click on the Panel tab at the top of the programmer.

2. Click on the System Options tab at the bot tom of the programmer. A screen similar to the

one shown below appears.

3. Click on the checkbox to the right of Alarm Silence/Reset Inhibit. Specify the timer value in

the Seconds box to the right of the checkbox.

Figure A-8. The Panel: System Options tab

A-8

Alarm Cutout Timer

Overview The Alarm Cutout Timer allows you to set a duration (up to 10 minutes) that specifies how

long signals sound following an alarm. For example, with this option set at two minutes,
building signals sound for two minutes and then automatically stop. After the signals stop, the
alarm condition remains active at the panel.

Note: The default setting is not enabled. This option must be enabled for Canadian jobs

Enabling Alarm Cutout Timer

To enable the Alarm Cutout Timer, do the following:

1. Click on the Panel tab at the top of the programmer.

2. Click on the System Options tab at the bottom of the programmer. A screen similar to the

one shown below appears.

3. Click on the checkbox to the right of Alarm Cutout Timer. Specify the timer value in the

Seconds box to the right of the checkbox.

Figure A-9. System Options: Setting the Alarm Cutout Timer

A-9

Appendix B

UL programming requirements

Introduction This appendix identifies key UL programming requ irement s for the 4010ES FACP.

In this chapter This chapter covers the following topics:

Topic Page

Setting Alarm Verification to US operation B-2
Alarm Cutout Timer B-3
Non Steady Visual Evacuation system option B-4

B-1

Setting Alarm Verification to US operation

Overview When you select United States operation for the alarm verification feature, the system operates

as follows:

• If a point specified within one of the alarm verification lists enters an alarm state, the
system delays the annunciation of the alarm for 30 seconds.

• When the 15 second timer expires, the system attempts to reset the initiating device for
five seconds.

• After the five second timer expires, the system evaluates the state of the initiating device
for up to 120 additional seconds. If the device re-alarms during this time, the system
immediately annunciates the alarm.

Procedure 1. Click on the List tab to display the List window.

2. At the bottom of the List window, select the Alarm Verification tab.

3. Right-click on one of the lists and select Properties. The Alarm Verification Properties

dialog shown below appears.

4. Click on the Alarm Verification tab .

5. Click on the drop down list box and select United States.

Setting this property for one alarm verification list sets it for all lists.

Figure B-1. Alarm Verification Properties: Alarm Verification tab

B-2

Alarm Cutout Timer

Overview The Alarm Cutout Timer allows you to set a duration (up to 10 minutes) that specifies how

long signals sound following an alarm. For example, with this option set at two minutes,
building signals sound for two minutes and then automatically stop. After the signals stop, the
alarm condition remains active at the panel.

Note: The default setting is not enabled.

Enabling Alarm Cutout Timer

To enable the Alarm Cutout Timer, do the following:

1. Click on the Panel tab at the top of the programmer.

2. Click on the System Options tab at the bottom of the programmer. A screen similar to the

one shown below appears.

3. Click on the checkbox to the right of Alarm Cutout Timer. Specify the timer value in the

Seconds box to the right of the checkbox.

Figure B-2. System Options: Setting the Alarm Cutout Timer

B-3

Non Steady Visual Evacuation system option

Overview When enabled, this option allows you to select the flash pattern output by non-steady visual

signals. The term non-steady visual signal refers to any visual notification appliance capable of
emitting a pattern of flashes, such as incandescent visuals.

The default setting for this option is not enabled.

When you enable this option, use the drop down list box to the right of the option to set the
flash pattern as follows:

• March Time. A coded signal that uses 120 beats per minute. Each beat consists of 1/4
second pulse on, 1/4 second off.

• Slow March Time. A coded signal that uses 60 beats per minute. Each beat consists of
1/2 second pulse on, 1/2 second off.

• Temporal. A five-pulse coding pattern consisting of five 1/2 second pulses, each
separated by a 1/2 second silence. Each three pulse group is separated by 1 ½ seconds of
silence.

Note: This option cannot be used for public mode signaling as defined in Section 4-4 of NFPA 72-99.

Figure B-3. System Options: Setting Non Steady Visual Evacuation

B-4