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
IntroductionThe 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 chapterThis chapter covers the following topics:
Note: Some 4009-series
devices are controlled
through RUI and not
IDNet
4009T or
4009TPS
TrueAlert Addressable
Devices
OverviewThe 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
OverviewThe 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
IntroductionThe 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 chapterThis chapter covers the following topics:
TopicPage
CPU2-2
Operator interface2-8
Main system supply (MSS)2-9
48-LED Module2-14
System power2-16
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.
OverviewThe 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.
LED1OPENYellowON = Class A fault (open-circuit) or a short
LED2B SHORTYellowON = Short-circuit on the primary side
LED3A SHORTYellowON = Short-circuit on the secondary side
Reference
designator
LED11
LED12YellowON = User-definable key A active (Note)
LED13
LED14RedON = User-definable key B active (Note)
LED21
LED22GreenON = User-definable key C active (Note )
LED23CTRL 1YellowON = Control key 1 active
LED24CTRL 2YellowON = Control key 2 active
LED25CTRL 3YellowON = Control key 3 active
Note: Only one LED in each user-definable pair will be on at a time, never both.
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
SW1RESET
SW3COLD START
Reference
designator
P3COMPACT FLASH
Silkscreen nameFunction
Silkscreen nameFunction
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)
ConfigurationSupervisory current drawAlarm current draw
RUI disabled124 mA173 mA
RUI enabled - no load149 mA198 mA
RUI enabled - full load176 mA225 mA
T able 2-10 shows the maximum draw over the voltage range.
Table 2-10. Maximum draw over voltage range
ConfigurationSupervisory current drawAlarm current draw
RUI disabled144 mA208 mA
RUI enabled - no load167 mA226 mA
RUI enabled - full load186 mA248 mA
Note: CPU InfoAlarm supervisory and alarm current draws are both the same as the supervisory current
draw.
2-7
Operator interface
A B CD E FG H I
J K LM N OP Q R
'S P' ( ), # :
S T UV W XY Z /
ZONE
1
SIG2AUX
3
FB4IO5IDNet
6
P7A8L
9
NETADDR
0
C/Exit
MenuEnter
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
OverviewThe 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
OverviewThe 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 IDNetMSS without IDNet
8 A of available power8 A of available power
4 Class A NACs4 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.
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
P1IDNet CIRCUIT B
P2IDNet CIRCUIT A
P3EARTH 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 namePositionFunction
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 FACP4 A maximum
120 VAC @ 60 Hz, nomi nal (Note 1)
MSS in 220/240V FACP2 A maximum
220/230/240 VAC @ 50 or 60 Hz (Note 1)
DC output specifications
All MSSsMinimum: 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 range21-33VDC
Output float voltage
High voltage output29.1 V @ 3.3 A
Output current limit1.4 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 connected140 mA190 mA
Add to above for each additional set of 50 IDNet devices in standby40 mA
Total current for fully loaded IDNet channel (248 devices) in standby339 mA450mA
Alarm conditions (Note 2)
4 NACs ON (Note 3); TBL Relay Activated; IDNet LED ON, No IDNet devices connected165 mA220 mA
Add to above for each set of 50 IDNet devices in alarm50 mA
Add to above for 20 LEDs ON40 mA
Total current for a fully loaded IDNet channel (248 devices) in alarm (20 LEDs ON) 453 mA600 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 activated70 mA110mA
Alarm Conditions (Note 2)
4 NACs ON (Note 3); TBL Relay activated100 mA150 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
OverviewThe 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 currentCurrent
LED controller circuit20 mA
Add to above for each additional LED that is on1.89 mA
Total current for fully loaded 48-LED Module111 mA
Maximum alarm current
LED controller circuit20 mA
Add to above for each additional LED that is on2.39 mA
Total current for fully loaded 48-LED Module135 mA
Table 2-17. 48-LED Module current specifications
Current
2-15
System power
Main system
power
Backup batteriesA 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
IntroductionThe 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 chapterThis chapter covers the following topics:
TopicPage
One-bay 4010ES Panels3-2
Two-bay 4010ES Panels3-6
3-1
One-bay 4010ES Panels
With 48 LED Module
Without 48 LED Module
OverviewThe 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
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