Note: This Manual, P/N 06-236716-001, is to be used by qualified and factory-trained personnel,
knowledgeable of NFPA standards and any other applicable standards in effect.
This Manual is intended to provide guidance to qualified technical professionals for the installation,
operation and maintenance of the Kidde AEGIS™ Conventional Fire Alarm-Suppression Control Unit.
Only qualified persons experienced and trained in the installation of this type of equipment should install
and configure the Kidde AEGIS. They must be familiar and experienced with the wiring diagrams and
components, electrical installation, and familiar not only with NEC, relevant NFPA and local codes but also
trained and qualified by Kidde-Fenwal, Inc. Kidde-Fenwal, Inc. is a manufacturer of the components that
make up the Kidde AEGIS system, and may not have the opportunity to visit the sites where the product
is installed or intended to be installed. It is the responsibility of the professional installer (described above)
to properly install and configure the systems. Under no circumstances will Kidde-Fenwal be liable for
improper installation or configuration of the systems.
The technical data contained herein is provided for informational purposes only, and should not be used as
a substitute for professional judgment. Although, Kidde-Fenwal believes this information to be true and
correct, it is published and presented without any guarantee or warranty whatsoever. Kidde-Fenwal
disclaims any liability for any use of the data other than as set out in this manual, foreword included.
Any questions concerning the information presented in this manual should be addressed to:
Kidde-Fenwal, Inc.
400 Main Street
Ashland, MA 01721
Phone: (508) 881-2000
Toll Free: (800) 872-6527
Technical Support: (866) 287-2531
Fax: (508) 881-8920
P/N 06-236716-001iAugust 2007
Page 4
TERMS AND ABBREVIATIONS
°C:°Centigrade
°F:°Farenheit
A:
AC:Alternating Current
ADA:Americans with Disabilities ActN.C.:Normally Closed
AH:Ampere HourNEC:National Electrical Code
AHJ:Authority Having JurisdictionNFPA:National Fire Protection Association
ARC:Automatic Release CircuitN.O.:Normally Open
AWG:American Wire GaugeNYC:New York City
CSFM:California State Fire MarshalPCB:Printed Circuit Board
DACT:Digital Alarm Comm. TransmitterpF:Pico-farads
DC:Direct CurrentP/N:Part Number
DET:DetectorPSU:Power Supply Unit
EOLD:End of Line DeviceRAM:Random Access Memory
EOLR:End of Line ResistorSLC:Signaling Line Circuit
FM:Factory MutualTB:Terminal Block
ft.:FeetUL/ULI:Underwriters Laboratories, Inc.
HSD:High Sensitivity Smoke DetectorV:Volts
Ampere
LCD:Liquid Crystal Display
LED:Light Emitting Diode
MEA:Materials and Equipment Acceptance
Division of the City of New York
NAC:Notification Appliance Circuit
Hz:Hertz (Frequency)Vac:Volts AC
in.:InchVdc:Volts DC
IRI:Industrial Risk InsurersVRMS:Volts Root Mean Square
CAUTIONS AND WARNINGS
A caution identifies a procedure, practice, or statement, which, if not strictly followed,
CAUTION
WARNING
could result in programming errors, impairment of equipment operation, or equipment
damage.
A warning identifies an operating or maintenance procedure, practice,
condition or statement, which, if not strictly followed, could result in personal
injury or death.
August 2007iiP/N 06-236716-001
Page 5
SAFETY SUMMARY
This entire manual must be read and understood before installation.
Installation PrecautionsAdherence to the following will aid in problem-free installation with long-
term reliability:
Several different sources of power can be connected to this fire alarm control unit.
Disconnect all sources of power before servicing. Control unit and associated
WARNING
CAUTION
equipment may be damaged by servicing while the unit is energized. Do not
attempt to install, service, or operate this control unit until this manual is read
and understood.
System Re-acceptance Test after Re-Programming: To ensure proper system operation, this
system must be retested in accordance with NFPA 72 Chapter 10 after any
programming change. Re-acceptance testing is also required after any addition or
deletion of system components, and after any modification, repair or adjustment to
system hardware or wiring.
All components, circuits and system operations 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.
This system meets FM and ANSI/UL 864 requirements for operation at 32° to 120°F (0 to 49°C) and at a
relative humidity of 93% (non-condensing) @ 90°F (32.2°C). However, the useful life of the system’s
standby batteries and the electronic components may be adversely effected by continuous operation at
these environmental limits. Therefore, it is recommended that this system and its peripherals be installed
in an environment with a nominal room temperature of 60-80°F.
Like all solid state electronic devices, this system may operate erratically or can be damaged when
subjected to lightning induced transients. Although no system is completely immune from lightning
transients and interference, proper grounding will reduce susceptibility. The use of overhead or outside
aerial wiring is not recommended due to the increased susceptibility to nearby lightning strikes.
Consult with the Technical Support Department if any problems are anticipated or encountered.
Do not install electronic assemblies prior to mounting and attaching conduit for field wiring to the enclosure.
Before making modifications, verify that they will not interfere with battery and printed circuit board
locations. Do not overtighten screw terminals. Overtightening may damage threads, resulting in reduced
terminal contact pressure and difficulty with screw terminal removal.
This system contains static-sensitive components. Always ground yourself with a proper wrist strap before
handling any circuits so that static charges are removed from the body. Use static suppressive packaging
to protect electronic assemblies removed from the control unit.
Follow the instructions in this manual. These instructions must be followed to avoid damage to the control
unit and associated equipment. System operation and reliability depend upon proper installation.
Fire Alarm System Limitations While installing a fire alarm system may make lower insurance
rates possible, it is not a substitute for fire insurance!
An automatic fire alarm system – typically made up of smoke detectors, heat detectors, manual pull stations,
notification appliances, and a fire alarm control unit with remote-notification capability – can provide early warning
of a developing fire. Such a system, however, does not assure protection against property damage or loss of life
resulting from a fire.
Any fire alarm system may fail for a variety of reasons:
Smoke detectors may not sense fire where smoke cannot reach the detectors such as in chimneys, in walls,
on roofs, or on the other side of closed doors. Smoke detectors on one level also may not sense a fire on
P/N 06-236716-001iiiAugust 2007
Page 6
SAFETY SUMMARY (CONT.)
another level or floor of a building. A second floor detector, for example, may not se nse a first floor or
basement fire.
Furthermore, all types of smoke detectors, both ionization and photoelectric types, have sensing limitations. No
type of smoke detector can sense every kind of fire caused by carelessness and safety hazards such as smoking
in bed, violent explosions, escaping gas, improper storage of flammable materials, overloaded electrical circuits,
children playing with matches, or arson.
Notification appliances, such as bells, may not alert people if these appliances are located on the other side
of closed or partly open doors or are located on another floor of a building.
A fire alarm system will not operate without electrical power. If AC power fails, the system will operate from
standby batteries only for a specified time.
Rate-of-Rise heat detectors may be subject to reduced sensitivity over time. For this reason, the rate-ofrise feature of each detector should be tested by a qualified fire protection specialist as recommended in
NFPA 72.
Auxiliary Equipment used in the system may not be technically compatible with the control unit. It is
essential to use only equipment listed for service with your control unit.
Telephone lines needed to transmit alarm signals from a premise to a central monitoring station may be
out of service or temporarily disabled.
The most common cause of fire alarm malfunctions, however, is inadequate maintenance. All devices and
system wiring should be tested and maintained by professional fire alarm installers following written
procedures supplied with each device. System inspection and testing should be scheduled monthly or as
required by national and/or local fire codes. Adequate written records of all inspections should be kept.
GENERAL SAFETY NOTICES The following must be observed to maintain personnel safety .
The following general safety notices supplement specific warnings and cautions appearing in the manual.
The safety precautions in this section must be understood and applied during operation and maintenance.
This manual is to be used by trained distributors/technicians. The entire manual should be read and fully
understood prior to installation.
FIRST AID
Any injury, no matter how slight, should never go unattended. Always obtain first aid or medical attention
immediately.
GENERAL PRECAUTIONS
The following general safety precautions are to be observed at all times:
1.All electrical components associated with equipment shall be installed and grounded in accordance
with NEC and local regulatory requirements.
2.Special precautionary measures are essential to prevent applying power to equipment at any time
maintenance work is in progress.
3.Before working on electrical equipment, use a voltmeter to ensure that system is not energized.
4.When working near electricity, do not use metal rulers, flashlights, metallic pencils, or any other
objects having exposed conductive material.
5.When connecting a meter to terminals for measurement, use a voltage range higher than expected
voltage to be measured.
August 2007ivP/N 06-236716-001
Page 7
NOTICE TO USERS, INSTALLERS, AUTHORITIES HAVING
JURISDICTION AND ALL OTHER INVOLVED PARTIES
This product incorporates field-programmable software. In order for the product to comply with the
requirements in the Standard Control Units and Accessories for Fire Alarm Systems, ANSI/UL 864, certain
programming features or options must be limited to specific values or not used at all as indicated below.
Abort switches may be set-up to operate in any of the following ways:
*
1.Abort Mode 1
2.Abort Mode 2 (Reset) - Reset to initial delay setting. Resume countdown for entire delay period.
3.Abort Mode 3 (IRI) - Same as Mode 1, except disable abort function if countdown timer has started.
4.Abort Mode 4 (NYC) - Resets to 120 seconds.
5.Abort Mode 5 - Disables the abort.
*
Only Abort Mode 1 is ANSI/UL 864 compliant.
(UL) - Count down to 10 seconds and hold. Resume countdown at 10 seconds.
APPENDIX BLIST OF AGENCY LISTED COMPATIBLE DEVICES
APPENDIX CTECHNICAL SPECIFICATIONS
APPENDIX DFM RULES FOR PREACTION/DELUGE SYSTEMS
APPENDIX ECENTRAL STATION OPERATION
APPENDIX FROUTINGS FOR POWER-LIMITED AND NON-POWER-LIMITED WIRING
P/N 06-236716-001viiAugust 2007
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THIS PAGE INTENTIONALLY LEFT BLANK.
August 2007viiiP/N 06-236716-001
Page 11
LIST OF FIGURES
FigureNamePage Number
1-1Control Unit Components and Dimensions...............................................................1-3
The Kidde AEGIS™ is a versatile, flexible, microprocessor-based conventional fire control unit
which can be used in a wide range of fire alarm and suppression discharge applications.
1-2LISTINGS AND APPROVALS
The Kidde AEGIS is listed/approved with the agencies listed in Table 1-1 for system
classifications as described in the NFPA Standard 72, “National Fire Alarm Code”, ANSI/UL 864
9th edition, “Control Units for Fire Protective Signaling Systems”, and CAN/ULC-S527-99. The
Kidde AEGIS shall be implemented according to the following:
•NFPA Standard 72, “National Fire Alarm Code”
•NFPA Standard 70, “National Electric Code”
•This Installation, Operation, and Maintenance Manual (IOM)
•Any other standards enforced by a local Authority Having Jurisdiction (AHJ)
Table 1-1. Agency Listing/Approval by System Classification
CHAPTER 1
AgencySystem Classification
Protected Premises Fire Alarm Systems
- Protected Premises (Local) Unit
4
UL
3,4
cUL
2
FM
CSFMFire Alarm Control Unit (Non-High Rise)
New York
City MEA
- Releasing Device Control Unit
Central Station Fire Alarm System
- Protected Premises Unit
- Releasing Device Control Unit
Protected Premises Fire Alarm Systems
- Protected Premises (Local) Unit
- Releasing Device Control Unit
(for use in buildings not required to have an annunciator)
Automatic Releases for External SystemsAutomatic
Central Station Signaling Systems
Local Protective Signaling
- Local
- Central Station
- Releasing Device Service
Fire Control Releasing Unit Automatic
Type
ServiceSignaling
Automatic
Manual
Waterflow
Sprinkler Supervisory
Automatic
Manual
Waterflow
Sprinkler Supervisory
Manual
Waterflow
Sprinkler Supervisory
Automatic
Manual
Waterflow
Sprinkler Supervisory
Manual
Waterflow
Sprinkler Supervisory
1
DAC
Non-Coded
Non-Coded
1
DAC
Non-Coded
1
DAC
Non-Coded
1
DAC
Non-Coded
1
Must be used with ANSI/UL 864 Listed/FM Approved Silent Knight DACT Model 5104B.
2
FM approved to FM requirements, ANSI/UL 864 9th edition, and CAN/ULC S527-99.
3
Per Canadian Building Code, not for use as a high-rise building fire alarm system.
4
For UL and cUL installation, must not exceed 24 hours standby and 5 minutes of alarm.
P/N 06-236716-0011-1August 2007
Page 14
General Information
1-3CODES AND STANDARDS
1-3.1Suppression System Standards
The Kidde AEGIS is listed/approved for the control and activation of suppression systems listed
in Table 1-2 which the designer/installer should be familiar with.
Table 1-2. Listed/Approved Suppression Systems
ApplicationApplicable NFPA Standard
Carbon Dioxide Extinguishing SystemNFPA 12
Halon 1301 Fire Extinguishing SystemsNFPA 12A
Installation of Sprinkler SystemsNFPA 13
Water Spray Fixed Systems for Fire ProtectionNFPA 15
Foam-Water Sprinkler and Foam-Water Spray SystemsNFPA 16
Dry Chemical Extinguishing SystemsNFPA 17
Wet Chemical Extinguishing SystemsNFPA 17A
Water Mist Fire Protection SystemsNFPA 750
Clean Agent Fire Extinguishing SystemsNFPA 2001
1-3.2Other Standards
The designer/installer should also be familiar with the following (as applicable):
•NFPA Standard 70, “National Electric Code
•NFPA Standard 72, “National Fire Alarm Code
•NFPA Standard 75, “Standard for the Protection of Electronic Computer/Data Processing
Equipment”
•NFPA Standard 76, “Fire Protection of Telecommunications Facilities”
•NFPA Standard 101, “Life Safety Code
•NFPA Standard 110, “Standard for Emergency and Standby Power Systems 2002 Edition”
•UL Standard 38, “Manual Signaling Boxes for Fire Alarm Systems”
•UL Standard 268, “Smoke Detectors for Fire Protective Signaling Systems”
•UL Standard 268A, “Smoke Detectors for Duct Application”
•UL Standard 1481, “Power Supplies for Fire Protection Signaling Systems”
•Underwriter Laboratories of Canada (cUL) ULC-S527-99, “Standard of Control Units for Fire
Alarm Systems”
•FM Standards 1011 and 1012, “Approval Standard for Deluge Systems and Preaction
Systems”
•FM Standard 3011, “Central Station Service for Fire Alarms and Protective Equipment
Supervision”
•Any others mandated by the building owner and/or the local Authority Having Jurisdiction
(AHJ)
®
2002 Edition”
®
2002 Edition”
®
2003 Edition”
August 20071-2P/N 06-236716-001
Page 15
1-4CONTROL UNIT DESCRIPTION
The Kidde AEGIS consists of the following: Enclosure with Door, Power Supply Unit, Printed
Circuit Board (PCB), and Secondary Standby Batteries (ordered separately).
ENCLOSURE
PRINTED CIRCUIT BOARD
5 in.
(127 mm)
General Information
14-1/4 in.
(362 mm)
ENCLOSURE
DOOR
SECONDARY
STANDBY
BATTERIES
Figure 1-1. Control Unit Components and Dimensions
1-4.1Enclosure with Door
The enclosure meets the requirements for NEMA Type 1 and is intended to be used indoors in
a relatively dust-free environment. The enclosure has a hinged door that swings open 180° for
accessibility. The enclosure can be surface or recessed mounted. A trim ring is available for
recessed mounting. The enclosure is constructed of 18 gauge sheet steel. A steel door is held
closed by a key lock. All operator interface switches and indicators are located behind the
locked cover. The enclosure is large enough to house two 12 Vdc, 12 AH batteries required for
standby operation.
1-4.1.1ENCLOSURE DOOR OPTIONS
POWER SUPPLY UNIT
(BEHIND PRINTED CIRCUIT BOARD)
19 in.
(483 mm)
The standard enclosure door allows the operator to view the operator interface display
mounted on the PCB behind a plexiglass window. The AEGIS is also available with an alternate
door that allows an abort and manual release switch to be mounted. The manual release switch
incorporates a lift type guard and the abort switch incorporates a safety guard to prevent
inadvertent activation.
1-4.1.2OPTIONAL DEAD-FRONT PANEL
The control unit is also suitable for mounting a dead-front panel (P/N 06-220175-001) that is
mandatory for use in Canada. The dead-front is intended to protect the user from inadvertent
access to any exposed potentially hazardous/high voltage components.
P/N 06-236716-0011-3August 2007
Page 16
General Information
1-4.2Power Supply Unit
The power supply unit mounts behind the circuit board and operates from either 120 Vac 50/60
Hz or 240 Vac 50/60 Hz. It powers the system and also charges a standby battery set which
provides backup in case of loss of power from the AC source.
The battery charger is capable of charging sealed lead-acid 24 Vdc batteries of capacity up to
68 AH. The charge voltage is 27.4 Vdc nominal.
The actual battery capacity used for an application is a function of the units components,
devices and configuration. Refer to Appendix A for battery capacity calculations.
The power supply monitoring circuit provides a trouble signal if any of the following occur:
•Loss of AC input or if AC power falls below 85% of nominal. This causes an immediate
change-over to battery operation and a trouble signal after 30 seconds.
•Detection of a ground fault.
•Low charging current.
•High output voltage
The battery monitoring circuit provides a trouble signal if any of the following occur:
•The battery is installed backwards.
•The battery is disconnected.
•Battery voltage falls below 19.5 V (this condition causes the battery to disconnec t and can
only be cleared when primary AC main power is restored).
1-4.3Printed Circuit Board
The printed circuit board provides an interface or terminals for the following:
•Power Supply Unit
•Battery
•Initiating Device Circuits (System Inputs)
•System Outputs
•Operator Interface
•Auxiliary Power Output
August 20071-4P/N 06-236716-001
Page 17
General Information
TROUBLE
RELAY 3
RELAY 2
RELAY 1
BATT OUT
SUPERVISORY
TB7
TB8
TB9
TB10
TB11
TB12
2
SUPERVISORY
1
TB6
ABORT
TB5
MANUAL
RELEASE
WATERFLOW/
DETECTOR 3
TB3TB4
DETECTOR 2
TB2
TB1
DETECTOR 1
AC SUPPLY SELECT SWITCH (S6)
AC IN
TB13
1-4.3.1OPERATOR INTERFACE
All alarms, troubles and supervisory signals are received at the control unit and displayed for
the operator. The Operator Interface consists of four main components and are visible and/or
audible through a transparent window:
•LED Indicators
•Control Switches
•Digital Display
•Buzzer
TB14
RELEASE 1
ARC 1
Figure 1-2. Printed Circuit Board (PCB)
RELEASE 2
ARC 2
TB16TB15
AUX
24 VDC
TB17
NAC 3
TB19
TB18
NAC 1
NAC 2
P/N 06-236716-0011-5August 2007
Page 18
General Information
1-4.3.1.1LED Indicators
The following is a list of control unit indicators and their LED display color.
AC Power OnGreen
System AlarmRed
System SupervisoryYellow
System TroubleYellow
Signal SilencedYellow
Agent Pre-ReleaseRed
Agent ReleasingRed
Agent Post-ReleaseRed
Input ActivatedAlarm, Manual Release, and Abort — Red
Table 1-3. LED Indicator and Display Color
IndicatorDisplay Color
Other — Yellow
Input TroubleYellow
Release Output TroubleYellow
NAC Output TroubleYellow
Ground FaultYellow
Power Supply FaultYellow
1-4.3.1.2Control Switches
There are four Control Switches on the Operator Interface. They are:
•Acknowledge — Silences the buzzer which sounds when a new supervisory, alarm, or
trouble is detected. Holding this control switch for five seconds, activates the control unit
Lamp Test. This control switch is also used in conjunction with the System Reset control
switch to enter the configuration mode.
Note: Microprocessor and PCB troubles are latching and cannot be silenced or reset. Refer to
Chapter 6, Troubleshooting.
•Signal Silence — Silences the NAC circuits.
•System Reset — Disconnects power from all input and output circuits and the auxiliary
output for a period of five (5) seconds. This control switch is also used in conjunction with
the Acknowledge control switch to enter the configuration mode.
•Output Disable — Disables the release of agent, and as selected in the system
configuration, the activation of NAC outputs and/or Programmable Relays. This is used
when performing maintenance on the system.
August 20071-6P/N 06-236716-001
Page 19
1-4.3.1.3Digital Display
The three digit display is used for the following:
•View and enter field configuration settings
•Display troubleshooting/diagnostic codes
•Display battery voltage and charging current
•Count-down timer for agent release
1-4.3.1.4Buzzer
The buzzer will sound when an alarm, trouble or supervisory condition is present.
1-4.3.2INITIATING DEVICE CIRCUITS (SYSTEM INPUTS)
The Kidde AEGIS has the following system inputs:
•Three (3) Detection Inputs
•One (1) Manual Release
•One (1) Abort
•Two (2) Supervisory Inputs
General Information
1-4.3.2.1Detection Inputs
The control unit provides two dedicated initiating/detector input circuits, plus a third that can
be used as a Waterflow alarm or an independent initiating/detector input. Inputs from these
circuits are latching. Refer to Chapter 3, Configuration for configuration settings.
Certain jurisdictions require NAC outputs due to Waterflow input to be non-silenceable. The
configuration settings in Chapter 3, Configuration allows the user to select the specific mode
needed for a given application.
Each detector circuit is suitable for Class A or Class B wiring and is capable of operating with
up to 25 smoke/electronic heat detectors and a quanti ty of contact-closure type devices (up to
the limitation imposed by wiring resistance). For a list of compatible devices, refer to
Appendix B.
1-4.3.2.2Manual Release
Operation of a manual release pull station activates the NACs and initiates the release
sequence. The configured time delay and agent release output is activated after the site
configured time delay. Manual release overrides any other time delay. The circuit is suitable
for either Class A or Class B wiring and any quantity of contact closure type manual release
stations subject to the limitations imposed by the wiring resistance. The manual release will
also override any activated abort switch.
1-4.3.2.3Abort
Activation of the abort station temporarily delays the impending agent release. Operation of
the abort switch during non-alarm conditions will cause a trouble signal. However, if the Abort
switch is pressed and held during either a non-alarm condition or during a first alarm condition,
and remains held until an alarm pre-release condition exists occurs, the Abort function will
execute as normal, per the configuration setting. The following abort modes are configurable.
Abort Mode 1(ANSI/UL 864) - When the abort input is received, the release timeout
continues and stops at ten (10) seconds. If the timeout was less than ten (10) seconds when
the abort signal is received, timeout is reset to ten (10) seconds. When th e abort is released,
the timeout resumes. Successive aborts are permitted.
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General Information
Abort Mode 2 (Reset) - When abort is activated, the timer is stopped and the full delay is
loaded into it. The timeout begins when the Abort control switch is released. Successive abort s
are permitted. If Mode 2 is selected with a zero (0) abort delay, the abort is disabled. Mode 2
does not comply with ANSI/UL 864s.
Abort Mode 3 (IRI) - This mode is only valid for cross-zoned release when both initiating
inputs are needed to cause the agent release activation (if selected for single zone, the abort
will be disabled). This mode is similar to Mode 1 with the exception that the abort will function
only if held after the receipt of the first alarm, but prior to the receipt of the second alarm.
Abort activation at any other time is ignored.
Abort Mode 4 (New York City) – When the abort is activated, the timer is stopped and reset
to 120 seconds. The timer will not start as long as the Abort switch is held. The timeout restarts
when the Abort switch is released. Successive Abort switch operations resets the timer back to
the full 120 second delay. Selection of this mode does not have an over-ruling effect on any
programmed manual or auto-release delays, regardless of whether an abort has actually
occurred. In this mode, the delay from a manual release is forced to zero (0), and the autorelease delay is restricted to a maximum of 30 seconds. NYC Mode does not comply with
ANSI/UL 864.
The setting of non-compliant delays with New York City Abort is not error-
WARNING
trapped or over-ruled by the control unit.
Abort Mode 5 - Disables the abort.
The circuit is suitable for either Class A or Class B wiring and any quantity of contact closure
type abort stations subject to the limitations imposed by the wiring resistance.
1-4.3.3SUPERVISORY INPUTS
The Supervisory Circuits accept inputs from monitoring devices such as pressure switches on
agent cylinders or sprinkler systems.
1-4.4System Outputs
The Kidde AEGIS has the following system outputs:
•Three (3) Notification Appliance Circuits (NACs)
•Two (2) Agent Release Circuits (ARC)
•Three (3) Programmable Relays
•One (1) Dedicated Trouble Relay
•One (1) Auxiliary Power Output
1-4.4.1NOTIFICATION APPLIANCE CIRCUITS (NACs)
The AEGIS has three dedicated notification appliance circuits (NAC). Any NAC can be
configured in system configuration to operate on or more on First Alarm, Pre-Release, and
Releasing conditions. In the case that the control unit is being used in a non-suppression
application, the three NACs may be configured to operate on Alarm from DET 1, DET 2, and
DET 3. Each circuit is driven independently and is user configurable for either Class A (Style Z)
or Class B (Style Y) operation with the following coded patterns:
•60 beats per minute (BPM)
•120 beats per minute (BPM)
•Temporal
August 20071-8P/N 06-236716-001
Page 21
General Information
•Continuous
The three circuits are supervised, power-limited, and are compatible with conventional UL
listed, 24 Vdc notification appliances. They can also be used with the following synchronizable
horns and strobes:
•MT series multi-tone horns and horn/strobes
•NS series horn/strobes
•NH series horns
•RSS(P) series strobes
The MT and NS series network appliances provide the option to use silencable horns and non-
silenceable strobes on the same NAC.
Multiple NAC circuits (connected to audible devices only) programmed with the same master
code pattern are synchronized, regardless of any differing starting times that preceded their
concurrent operation.
The control unit is designed for user selection of an intelligent synchronization feature. This
feature allows the silenceable horn to be shut off while the strobe continues to flash in
synchronized fashion. Each NAC is rated 1.5A at 24 Vdc and is suitable for polarized 24 Vdc
appliances only.
The maximum number of synchronized devices is 35.
1-4.4.2AGENT RELEASE CIRCUITS (ARC)
The AEGIS has two (2) dedicated, independently controlled Class B ARCs compatible with
devices listed in Appendix B.
The release circuit may be programmed for an ON time of 90 seconds for Control Heads and
either 10 minutes, 15 minutes or On-until-reset for Deluge/Pre-Action Solenoids. When
programmed for initiators, the ARC remains ON for 200 milliseconds.
The ARCs can be configured to activate on a variety of conditions based on inputs from manual
release, detection circuits and supervisory circuits. Activation of the ARCs can be delayed from
0 to 60 seconds (in 10 second increments) in automatic release mode. Manual Release can be
delayed from 0 to 30 seconds (in 10 second increments).
The ARCs are suitable to operate different release device types on both circui ts. In other words,
ARC1 may activate solenoids and ARC2 may activate an initiator. See Chapter 2, Installation.
ARCs are not inherently power-limited. For the circuits to be power-limited, the ARC should be field
terminated with an in-line supervisory device P/N 06-220023-001. ARCs activati ng initiators cannot
be made power-limited.
1-4.4.3PROGRAMMABLE/DEDICATED RELAYS
The Kidde AEGIS has three independently programmable relays and one dedicated Trouble
relay. The relays are Form-C type with contacts rated 3A @ 30 VDC / 120 VAC (resistive).
P/N 06-236716-0011-9August 2007
Page 22
General Information
1-4.4.3.1Programmable Relays
The three programmable relays are normally in the de-energized condition and will energize
upon receipt of one of the following listed conditions. These relays will latch on change of state
and shall remain latched until manually reset by the System Reset control switch.
•1st Alarm: (DET 1, DET 2, DET 3/WF, or Manual Release)
Note: DET 3/WF will only be active if it’s part of the activation condition.
•1st Alarm: (DET 1, DET 2, DET 3/WF, SUPV 1, or Manual Release)
Note: SUPV 1 will only be active if it’s part of the activation condition.
•Agent Pre-Release Condition
•Agent Release Condition
•Manual Release Input
•Waterflow Input
•Abort Input
•Supervisory Input
•Any Alarm: (DET 1, DET 2, DET 3/WF, or Manual Release)
1-4.4.3.2Trouble Relay
The trouble relay is "normally energized” with AC Power ON and will de-energize upon receipt
of a trouble condition. This change is non-latching and the relay will revert to its normal state
upon removal of the trouble state. For Central Station operation, especially with an intermittent
AC power supply, it may be desirable to delay the change of state of the trouble relay in case
of AC power failure. See Chapter 3, Configuration to enable this configuration.
1-4.4.4Auxiliary Power Output
The AEGIS provides one auxiliary power output rated 1 Amp at 24 Vdc (Nominal) and is
intended to be used with 4-wire devices such as Flame Detectors, Smoke Detectors, etc. All
applicable compatible devices contained in this manual may be used. For FM installations, use
FM Approved Flame Detectors.
Note: Operation of the System Reset control switch will interrupt the Auxiliary Power Output
for a period of time not exceeding five (5) seconds.
August 20071-10P/N 06-236716-001
Page 23
Installation
INSTALLATION
2-1INSTALLATION MATERIALS
2-1.1Materials Provided
Check and ensure that the received shipment of the Kidde AEGIS™ unit consists of:
Table 2-1. Kidde AEGIS Control Unit Contents
DescriptionPart NumberQuantity
Enclosure Assembly (with door)06-220132-0011
Power Supply Unit 06-118394-0011
Printed Circuit Board (PCB)06-220113-0011
Bezel Assembly06-220114-0011
Hardware Kit06-220147-0011
Installation/Configuration Kit06-220148-0021
CHAPTER 2
Operating Instructions06-236719-0021
Keys (in poly bag)06-250319-0131
Ground Wire Assembly (Power Supply Unit Enclosure)1
Power Supply Unit Wiring Harness1
Battery Harness (2 long jumpers, 1 in-line fuse holder)1
AC Safety Cover/Warning Label1
3/4-inch Nylon Spacer1
Nylon Pan Head Screw (8-32 x 1-1/4)1
Threaded Aluminum Standoff (8-32 x 2-3/8)8
INT Sems Screw (8-32 x 5/16)8
Power Supply Unit Rentention Screw (M3 x 5)1
End of Line Resistor Assembly (5.1K)10
1/4-inch x 1-1/4-inch 10A Time Delay Fuse
Cooper Bussman MDA-10-R
2-1.2Materials Required
The materials listed below are not supplied with the system, but are required for installation.
•No. 10 or 3/16-inch mounting hardware
P/N 06-236716-0012-1August 2007
1
Page 24
Installation
•Electrical wiring and conduit
•4-inch electrical junction boxes (as required)
•Wire-nuts and crimp-on terminals (as required)
•Ground strap (for use when handling printed circuit boards)
2-2INSTALLATION GUIDELINES
2-2.1Electrical Connections
Take special care when installing the system and follow the guidelines given in the following
paragraphs.
Install electrical conduit and wiring in accordance with applicable National Electrical Code,
NFPA Standard and state and local building code requirements.
The incoming AC voltage must be stable and within the permissible voltage range. This is
especially important in new construction where incoming power may be high or unstable, and
temporary connections may cause large inductive voltage spikes.
Most supervised circuits use voltage or current sensing circuits that are sensitive to induced
voltages on the sensor wiring.
Do not under any circumstances run AC power, speaker, PA, intercom or switch
CAUTION
2-2.2Grounding and Lightning Protection
CAUTION
control wiring with inductive loads in the same conduit or in the immediate vicinity
of sensor wiring. Control unit damage or malfunction may result.
The system should never be connected to a conduit or green wire circuit that is also
used to power resistance heating, motors, fans, air-conditioning equipment or
fluorescent lighting circuits. Leakage currents from these types of circuits into the
ground return could damage sensitive system components.
A separate earth ground or cold water pipe with properly bypassed water meter
should be used. All external devices such as horns or alarm bells should have their
housings grounded. All low-level signal cables should have foil shielding and a
drain wire to be installed in their own grounded metallic conduit.
Ground only one end of the drain wire or shield, since a ground on both ends will
provide a current path and thus subject the circuit to induced RF currents and
noise. A minimum alternative would be to use shielded #16 AWG twisted pair wire.
Adequate lightning protection must be provided for the incoming power at the
building entry. Arrestor circuitry and earth grounding should be in accordance with
article 250 of the National Electric Code.
There is no known protective device available that is capable of protecting
equipment from damage caused by a direct lightning hit due to the extremely high
energy released (10 million to 100 million volts at 10,000 to 30,000 or more
amperes). However, line surges from indirect strikes and voltage spikes induced
through power line load switching can be minimized by the addition of transient
suppressors.
Although the Kidde AEGIS circuits have transient protection devices, additional
protection is required in areas subject to above average lightning activity or
induced voltage spikes and fluctuations due to power line load switching.
August 20072-2P/N 06-236716-001
Page 25
2-2.3Terminating Wiring Conductors
For all subassemblies, strip 1/2-inch (13 mm) and leave straight for insertion beneath head of
screw on one side only (do not loop conductor around screw). If using stranded conductor,
twist and tin or use terminal lug.
2-2.4Maxim um Wiring Length
Table 2-3 lists wiring gauge recommendations, resistance, and maximum length.
Refer to Appendix C for maximum allowable wire resistance for alarm signaling and initiating
circuits.
Table 2-3. Wiring Gauge Recommendation, Resistance, and Maximum Lengths
Operating power for all initiating and indicating circuits is provided by the power supply. 4-wire
24 Vdc smoke detectors and other listed, compatible external 24 Vdc loads may be powered
from the power auxiliary output. DC load calculations must be performed to determine if the
power supply is capable of providing the total system current demand. The calculations will
also determine the minimum standby battery capacity in accordance with applicable NFPA
codes. Refer to Appendix A for Battery Capacity Calculations.
2-2.6Enclosure Location
Care should be taken in planning the enclosure location. The enclosure is intended only for
indoor use in a location free from rain, condensation, excessive dust, moisture or other
airborne contamination. The enclosure must not be exposed to ambient conditions outside
those specified in Appendix C.
Installation on firewalls is generally not recommended. However, in situations
with no suitable alternative locations, ensure acceptance by the local AHJ before
CAUTION
installation.
Position the enclosure in a readily accessible and easily visible location. Ensure there is
1-1/2 ft. (457 mm) clearance or more in front and to the door hinge side of the enclosure for
the door to swing open completely.
The type of hardware is at the discretion of the installer, but must be in accordance with good
electrical and safety practices.
P/N 06-236716-0012-3August 2007
Page 26
Installation
2-3INSTALLATION PROCEDURE
2-3.1Mounting the Enclosure Assembly, P/N 06-220132-001
The control unit is designed to be surface or semi-flush mounted. Use screws or bolts no
smaller than No. 10 (3/16-inch or 5 mm) in diameter to secure the enclosure to wall studs or
masonry walls. Never mount the enclosure to drywall or plaster walls without securing to studs.
Locate the middle of the enclosure approximately 66-inches (1676 mm) above the floor so the
control unit display is positioned at a convenient height for the operator. Refer to Figure 2-1.
Figure 2-2 shows the control unit enclosure dimensions.
19 in.
(483 mm)
66 in.
(1676 mm)
MAX.
FLOOR
Figure 2-1. Installation Height Above Floor
Perform the following steps prior to installing the enclosure:
1. Disconnect the ground wire that connects the enclosure door to the back box.
2. Remove the control unit front door by rotating the door approximately 90° from its closed
position. Lift up the door to allow the door’s hinge pins to clear the mating-hinge sockets
on the back box.
3. Remove the separately packaged power supply, printed-circuit board, and installation kit,
and set them and the front door aside in a safe location to prevent damage.
August 20072-4P/N 06-236716-001
Page 27
7/16 in.
(11 mm)
TYP 2 PLACES
GROUND
9/32 in.
(7 mm)
1/2 in.
(13 mm)
1 in.
(25 mm)
STUD
17 in.
(432 mm)
1-1/8 in.
(29 mm)
(127 mm)
5 in.
12-1/4 in.
(311 mm)
5-1/8 in.
(130 mm)
9-1/8 in.
(232 mm)
14-1/4 in.
(362 mm)
13-1/8 in.
(333 mm)
TOP VIEW
1 in.
(25 mm)
18-13/16 in.
(978 mm)
1-1/2 in.
(38 mm)
Installation
1-1/2 in. (38 mm) KNOCKOUTS
4ONTOP
3 ON EACH SIDE
1 ON BOTTOM
2-1/2 in.
(64 mm)
2 in.
(57 mm)
5 in.
(127 mm)
8 in.
(203 mm)
GROUND
STUD
Figure 2-2. Control Unit and Surface Mounting Dimensions
2-3.1.1SURFACE MOUNTING
1. Mark and pre-drill holes for four mounting bolts using the dimensions shown in Fig ure 2-2.
The installer must supply the mounting bolts (No. 10 or 3/16-inch (5mm)). There are two
holes and two keyhole slots in the backbox that serve as a template for surface mounting.
The type of hardware to be used is at the discretion of the installer, but must be installed
in accordance with NFPA 70 (NEC).
2. Insert the upper two fasteners in the wall. Leave approximately 1/4-inch (6 mm)
protruding for both screws.
3. Slip upper keyholes of the back box over the two protruding screws. Tighten the screws.
4. Insert and tighten the two lower screws.
5. Attach wiring conduit to the enclosure via the enclosure knockouts, and pull the required
number of wires through the conduit to the enclosure. Leave approximately 2 to 3 feet (600
to 900 mm) of wire length in the enclosure for future internal connections.
14-3/16 in.
(360 mm)
FRONT VIEW
9/32 in. DIAMETER
HOLES TYP (2)
PLACES
5 in.
(127 mm)
SIDE VIEW
19 in.
(483 mm)
P/N 06-236716-0012-5August 2007
Page 28
Installation
2-3.1.2SEMI-FLUSH MOUNTING
1. Cut and plumb an opening of dimensions as shown in Figure 2-3 in the wall on which the
control unit will be semi-flush mounted.
5 in.
(127 mm)
14-1/4 in.
(362 mm)
TOP VIEW
WALL CUTOUT
14-3/8 in.
(365 mm)
FRONT VIEW
18-13/16 in.
(978 mm)
19-1/8 in.
(486 mm)
5 in.
(127 mm)
SIDE VIEW
Figure 2-3. Semi-Flush Mounting Dimensions
2. Position and plumb the back box in the opening made in Step 1. Ensure that the front edge
of the back box is at least 3/4-inch (19 mm) from the surface of the wall. Secure the back
box to the wall with appropriate mounting bolts (up to 1/4-20).
3. Attach wiring conduit to the enclosure through the enclosure knockouts, and pull the
required number of wires through the conduit to the enclosure. Leave approximately 2 to
3 feet (600 to 900 mm) of wire length in the enclosure for future internal connections.
2-3.1.3SEMI-FLUSH MOUNTING WITH TRIM RING, P/N 76-600000-007
A Trim Ring (P/N 76-600000-007) can be used to enhance the final installed appearance of a
semi-flush mounted AEGIS unit.
1-1/2 in.
(38 mm) TYP.
ALL AROUND
14-9/16 in.
(370 mm)
INSIDE
23-13/16 in.
(605 mm)
20-13/16 in.
(529 mm)
INSIDE
17-9/16 in.
(446 mm)
Figure 2-4. Trim Ring Dimensions
August 20072-6P/N 06-236716-001
Page 29
Installation
1. Ensure that the enclosure is semi-flush mounted as directed in Paragraph 2-3.1.2.
2. Prepare the surface of the wall for trim-ring installation by clearing all dirt and debris within
1-1/2 inches (38 mm) of the back-box perimeter. Ensure that this perimeter area is clean
and dry.
3. Install the trim ring by first removing the protective strips that cover the adhesive tap e on
its back surface. Slip the trim ring over the back box with the adhesive-tape side toward
the wall. The trim ring has tabs on both sides that aid in aligning it with the back box. Pres s
all sides of the trim ring to the wall when it is correctly aligned and plumb with the back
box.
1-3/4 in.
(44 mm)
MIN.
WALL
TRIM RING
BACK BOX
COVER
Figure 2-5. Trim Ring Installed
2-3.2Installing the Power Supply Unit, P/N 06-118394-001
Use a ground strap to prevent static discharge that could damage the power
CAUTION
supply.
1. Make sure the control unit location is dry and that the enclosure is free of construction dust
and metal shavings prior to installing the power supply.
2. Remove the power supply unit from its shipping carton.
3. The AEGIS unit is supplied with one of two equivalent power supplies. Compare the
terminal block wiring legend on the provided power supply with the diagrams in Figure 2-6
and connect the wiring harness as shown.
4. Connect the Power Supply Wiring Harness (P/N 06-220025-001) to the power supply unit.
Next connect the fork end of the green ground wire (P/N 06-129928-002) to the
earth-ground terminal of the power supply unit. Refer to Figure 2-6 and Figure 2-7 for wire
harness and earth-ground connections.
P/N 06-236716-0012-7August 2007
Page 30
Installation
TO PSU J2
CONNECTOR ON
PCB
TO PSU J2
CONNECTOR ON
PCB
GND
NEUTRAL
WHT/BLK
WHT
BLK
RED
GRN
LINE
-24V
+24V
GROUND WIRE FROM INSTALLATION KIT
CONNECT TO LOWER EARTH-GROUND STUD
ON LEFT-HAND SIDE OF ENCLOSURE
OR
GND
NEUTRAL
LINE
WHT/BLK
WHT
BLK
RED
GRN
-V
-V
+V
+V
GROUND WIRE FROM INSTALLATION KIT
CONNECT TO LOWER EARTH-GROUND STUD
ON LEFT-HAND SIDE OF ENCLOSURE
ATTENTION!
THE CONTROL UNIT IS SUPPLIED WITH ONE OF TWO EQUIVALENT
POWER SUPPLIES. COMPARE THE TERMINAL BLOCK WIRING LEGEND
ON THE PROVIDED POWER SUPPLY WITH THE DIAGRAMS AND
CONNECT THE WIRING HARNESS AS SHOWN IN THE APPLICABLE DIAGRAM.
Figure 2-6. Power Supply Unit Wiring
August 20072-8P/N 06-236716-001
Page 31
230 V
115 V
THREADED HOLE FOR
3 x 10 mm MOUNTING
SCREW
FASTENING TAB
FOR SCREW
RETENTION
TABS
TYP (2)
GROUND WIRE ATTACHED
TO GROUND STUD
Installation
Figure 2-7. Power Supply Unit Installation
5. Thread the supplied 3 x 10 mounting screw part way into the lower of the two threaded
holes of the power supply unit. See Figure 2-7.
6. Set the power supply unit AC-input-voltage selector switch to either 115 Vac or 230 Vac.
Use the 115 Vac position for 110-120 Vac supplies and 230 V position for 230-240 Vac
supplies. See Figure 2-7.
7. Locate the two power supply unit retention tabs and the fastening tab in the
enclosure’s back panel.
8. Position the power supply unit with the wire harness down, and then slide it onto the retention
tabs. The 3 x 10 mm mounting screw should slide into the slot of the fastening tab at the same
time.
9. Tighten the screw onto the fastening tab.
10.Connect the ring end of the power supply’s green ground wire (P/N 06-129928-002) to the
earth-ground stud on the lower left side of the backbox wall. See Figure 2-6 and
Figure 2-7.
2-3.3Installing the Printed Circuit Board (PCB), P/N 06-220113-001
Use a ground strap to prevent static discharge that could damage sensitive
CAUTION
components on the Printed Control Board.
1. Make sure the control unit location is dry and that the enclosure is free of construction dust
and metal shavings prior to installing the PCB.
P/N 06-236716-0012-9August 2007
Page 32
Installation
AC PROTECTIVE COVER
(WITH STANDOFF)
Figure 2-8. PCB Installation
2. Securely screw one each of the eight (8) 2-3/8 inch (60 mm) aluminum standoffs
(P/N 06-118533-001) onto each of the eight (8) threaded PEMs on enclosure backbox (top
three rows) as shown in Figure 2-8.
Note: Do not use the bottom row of threaded PEMs.
3. Slip on a wrist ground strap and clip the ground strap to the earth ground in the enclosure.
Do not remove the PCB from its shipping carton unless you have established a common
earth-ground potential among yourself, the enclosure, and the PCB shipping carton.
4. Remove the PCB from its shipping carton and position each of its eight (8) mounting holes
over one of the aluminum standoffs so that the AC-input terminal block is in the lower-left
corner.
5. Secure the PCB to the standoffs using the seven (7) 8-32 x 5/16 (8 mm) (P/N 06-250354 -
082). Do not tighten the screws at this time.
The PCB mounting hole in the lower left corner utilizes a longer nylon screw that also holds
the AC Safety Cover in place. See Paragraph 2-3.4.1.
6. Place the free end of the longer of the two factory-installed Earth-Ground wires under the
screw assembly of the PCB (marked detail A in Figure 2-9). Tighten the remaining eight
screws. Be careful not to over-tighten.
7. Plug the harness from the power-supply unit into Connector J2 in the lower-left-hand
corner of the PCB.
August 20072-10P/N 06-236716-001
Page 33
Installation
Figure 2-9. PCB-to-Cabinet Grounding Diagram
2-3.4AC Input and Battery Backup Connections
TB6
TB7
TB8
TB9
TB10
TB11
TB12
TB5
A
AC SUPPLY SELECT SWITCH (S6)
TB13
TB14
EARTH-GROUND TERMINAL FOR
POWER SUPPLY AND GREEN
WIRE OF AC SUPPLY
TB16TB15
TB2
TB3TB4
TB1
TB19
TB17
TB18
The control unit uses AC power (by others) as the primary power source, together with a 24 Vdc
standby battery.
Use caution when connecting AC power to the control unit. High-voltage and
AC-powered circuits are present in the control unit. Be sure to take suitable
WARNING
precautions and to adequately ground the control unit to reduce the risk of
electrical shock.
2-3.4.1CONNECTING AC POWER
AC power must be provided to the control unit using a 3-conductor 14 AWG cable. The AC
power cable shall be run through a one-inch conduit from a dedicated, 15-ampere circuit
breaker. The conduit must be attached to the left side of the enclosure through one of the
upper left corner knockouts.
Perform the following steps to connect AC power to the control unit.
1. Ensure the circuit breaker at the dedicated AC power source is in the OFF position.
2. To ensure correct AC supply supervision, for 110-120 Vac operation, move the AC Supply
Select Switch (S6) on the PCB to the 120 position. For 220-240 Vac operation, move it to
the 240 position.
3. Attach the 3-conductor AC power cable to TB13 on the PCB.
P/N 06-236716-0012-11August 2007
Page 34
Installation
C
POWER CONNECTIONS
FROM AC SUPPLY
PROTECTIVE COVER
FOR AC POWER INPUT
ENCLOSURE WALL
WHITE (NEUTRAL)
BLACK (LINE/HOT)
GREEN (GREEN)
SUPERVISED
4. To install the Protective Cover for AC Power input, fold along scored lines as shown in
Figure 2-10.
5. Insert spacer and align thru holes and spacer with PCB standoff in lower left corner.
6. Attach to PCB with nylon screw.
TB13
TO PSU
EARTH GND
AC POWER SELECTION SLIDE SWIT
DOWN FOR 120 Vac / UP FOR 220-240
STANDOFF FOR AC PROTECTIVE COVER
Figure 2-10. Primary Power Connections
LOWER LEFT CORNER OF
PRINTED CONTROL BOARD
August 20072-12P/N 06-236716-001
Page 35
2-3.5Installing Backup Batteries
Perform the following steps to install the backup batteries
1. Using Appendix A, Battery Capacity Calculations, calculate the size of the battery required
for the application.
2. Ensure that the batteries are being placed into service within three (3) months of the ship
date if stored at about 75°F (24°C) or within one (1) month if stored at 100°F (38°C). For
longer storage time, they require charging per manufacturer’s specification to prevent
permanent loss of capacity.
3. Observing polarity, connect the two (2) or four (4) 12-volt series-wired batteries of the
required ampere hour (AH) capacity to TB12 (Batt Out) using battery cable
(P/N 06-129925-002). Refer to Figure 2-11.
BATTERY HARNESS (P/N 06-129925-002)
Installation
TB12
BATT OUT
12 V
BATTERY
BATTERY HARNESS (P/N 06-129925-002)
BATTERY
12 V
BATTERY
BATTERY HARNESS (P/N 06-129925-002)
12 V
BATTERY
BATTERY
12 V
BATTERY
12 V
TB12
BATT OUT
12 V
ADDITIONAL BATTERY
CABLES TYP (BY INSTALLER)
NOTE:
LOCATE ALL BATTERIES IN A COMMON BATTERY
CABINET, OR IN CLOSE-COUPLED BATTERY CABINETS
WITH ALL BATTERY CABLES IN A CONDUIT.
P/N 06-236716-0012-13August 2007
Figure 2-11. Backup Battery Connections
Page 36
Installation
2-4TERMINATIONS AND WIRING DIAGRAMS
2-4.1Terminal Blocks
The PCB provides the following input and output terminations as shown in Figure 2-12.
Note: 1. Polarities must be observed for solenoids P/N 890181 and 48650001.
2. The inline releasing device P/N 06-220023-001 must be close nippled
to Solenoid enclosures.
3. The ARC is Non-Power-Limited when in-line device is not used.
4. Route Non-Powered-Limited wiring at least 1/4-inch away from all Power-Limited
wiring. See Appendix F. Do not attach Power-Limited wiring to the same
terminal block.
5. When firing initiators, the limiting resistor must have a rating of 1 watt minimum.
6. Control Head P/N 90-487100-001 when used with the control unit must
include Solenoid P/N 83-100034-001 and Microswitch P/N 87-120039-001.
Figure 2-15. Agent Release Circuit Wiring
August 20072-20P/N 06-236716-001
Page 43
2-5INSTALLING THE BEZEL, P/N 06-220114-001
1. Align bezel cutouts to the timer and control switches on the PCB.
2. Gently press the bezel onto PCB so snap-on clips click into the PCB fitted holes.
Certain applications such as those in Canada require a dead-front panel as described in
Paragraph 1-4.1.2. Install as follows:
1. The tab on the dead-front panel goes over the bottom enclosure lip (Figure 2-16).
2. Attach to control unit with supplied screws.
MOUNTING SCREWS
DEAD-FRONT
PANEL (SIDE VIEW)
THIS SIDE AGAINST
BEZEL ASSEMBLY
Installation
DEAD-FRONT
PANEL
Figure 2-16. Dead-Front Panel Installation
2-7INSTALLING THE ENCLOSURE DOOR (STANDARD DOOR)
1. Slide the door to allow the door’s hinge pins to align with the mating-hin ge sockets in the
back box.
2. Connect the ground wire that connects the enclosure door to the back box.
2-8INSTALLING THE ENCLOSURE DOOR (DOOR WITH SWITCHES)
1. Slide the door to allow the door’s hinge pins to align with the mating-hin ge sockets in the
back box.
2. Connect the ground wire that connects the enclosure door to the back box.
TAB GOES OVER
ENCLOSURE BOTTOM
LIP
2-8.1Installing Manual Release and Abort Switches, P/N 06-220169-001
1. Install locking nut on the toggle switch.
2. Install toggle switch from back of enclosure door. Make sure the ON position of the toggle
switch is facing the front of the the enclosure door and is in the up position.
3. Attach switch guard, lock washer, and locking ring and tighten.
P/N 06-236716-0012-21August 2007
Page 44
Installation
Note: Switch guard is keyed and can only be installed one way.
4. Install locking nut on the abort switch.
5. Install abort switch from back of enclosure door. Attach pushbutton switch guard and
tighten.
SWITCH
GUARD
INTERNAL
TOOTH
LOCKWASHER
PUSHBUTTON
SWITCH
GUARD
LOCKING
NUT
LOCKING
NUT
SIDE VIEW
MANUAL RELEASE
ABORT
FRONT VIEW
MANUAL
RELEASE
SWITCH
ABORT
SWITCH
AND LOCKING RING
Figure 2-17. Installation of Manual Release and Abort Switches
6. Attach black wires from switch wire harness to the right side of the toggle switch as shown
in Figure 2-18.
7. Route switch wire harness as shown in Figure 2-18.
8. Install cable clamps and 8-32 kep nuts to secure switch wire harness to enclosure door.
9. Run the black wires from the Manual Release switch to TB4 on the PCB. Refer to
Figure 2-13 through Figure 2-15 for wiring configurations.
10. Run the white wires from the Abort switch to TB5 on the PCB. Refer to Figure 2-13 through
Figure 2-15 for wiring configurations.
Power-limited wiring from the front cover Manual Release and Abort switches
to their respective terminal blocks on the PCB must be routed to maintain a
CAUTION
1/4-inch distance from non-power-limited wiring. Refer to Appendix F for more
details.
August 20072-22P/N 06-236716-001
Page 45
BLACK WIRES
FROM SWITCH
WIRE HARNESS
Installation
- WHITE WIRES
TO TB5
- BLACK WIRES
TO TB4
MANUAL
RELEASE
SWITCH
ABORT
SWITCH
REAR VIEW
Figure 2-18. Installing Switch Harness Assembly
2-9COMPLETING THE INSTALLATION
1. Power-up the system AC first and then DC.
2. Configure as described in Chapter 3.
3. Once configured, test the complete system for operation. Once operation is verified, the
installation is complete.
CABLE CLAMP
AND 8-32 KEP NUT
(SUPPLIED)
(TYP 3 PLACES)
SWITCH WIRE
HARNESS
P/N 06-236716-0012-23August 2007
Page 46
Installation
THIS PAGE INTENTIONALLY LEFT BLANK.
August 20072-24P/N 06-236716-001
Page 47
Configuration
CHAPTER 3
CONFIGURATION
3-1ENTERING SITE - SPECIFIC CONFIGURATION
The Kidde AEGIS™ is suitable for a wide variety of applications by means of configuring its
inputs and outputs. Inputs and outputs are configured via the operator interface. The following
sections details on how to enter or change configuration settings.
POSITION
23
1
COUNTDOWN TIMER (SECS)
Figure 3-1. Digital Display
3-1.1Entering the Password
To enter the configuration setting mode, you must enter the factory default password (186)
via the operator interface. Ensure that no alarms or supervisories are present and perform the
following.
StepDescriptionDisplay
1Press and hold the Acknowledge control switch and within five (5) seconds,
press the System Reset control switch.
2Press Output Disable to advance (each press advances one digit).
3When correct, press the Acknowledge control switch. Position 1 is accepted
and cursor moves to position 2.
4Press Output Disable to advance (each press advances one digit).
5When correct, press the Acknowledge control switch. Position 2 is accepted
and cursor moves to position 3.
6Press Output Disable to advance (each press advances one digit).
7When correct, press the Acknowledge control switch. Position 3 is accepted
and if the password is is correct, the display shows ‘00’ and the AEGIS enters
the configuration mode.
The control unit exits the configuration mode upon status change, or if more than five (5)
minutes have expired since the last control switch press. Only saved changes are retained by
the control unit.
P/N 06-236716-0013-1August 2007
Page 48
Configuration
3-1.2Lost, Forgotten or Incorrect Passwords
In the event that the entered password is incorrect, the display reads "Err" for three (3)
seconds and then prompts for entering the password again b y displaying "0" as the first digit.
When at the "Err" display, press the Signal Silence control switch to display a random 3 digit
code. Make a note of the code and call Technical Support. The control unit does not timeout
(exit out of the configuration mode) when the display reads the random 3-digit code.
Note: Do not press any buttons while this 3 digit code is being displayed.
Technical Support will translate this 3 digit code to a new password that will work only on a
control unit displaying the original random code for one time only. When given the Temporary
Password (the 3 digit code should still be displayed), press the Signal-Silence control switch.
The display is now exactly as it would be to enter a password:
Enter the Temporary Password in the same manner as entering a regular Password.
When the password has been accepted (and the first configuration item is being displayed
"00x", where x is the left most digit of the Temporary Password), you should:
1. either press the Signal Silence control switch in order to accept and save the current
Temporary Password as a Permanent Password; OR
2. enter the desired Password in configuration items 0, 1, and 2, and then press the Signal
Silence control switch in order to accept and save it.
August 20073-2P/N 06-236716-001
Page 49
3-2CONFIGURATION SETTINGS
This section describes the configuration settings for the AEGIS unit. Use Table 3-1 to set the
configuration settings.
•To advance to the next selection for an item, press the Output Disable control switch.
•To advance to the next item, press the Acknowledge control switch.
•To accept a configuration setting change and exit the Configuration menu at any step in
the process, press the Signal Silence control switch. Check the configuration by starting
the configuration process again, checking all items, and exiting by pressing System Reset
after inspecting the last item.
•To exit the configuration menu at any time, press the System Reset control switch. This
reverts the control unit to its previous state.
Note: The control unit takes about five (5) seconds to boot up after exiting the configuration
1 — Release Circuit 1 not in use
2 — Manual Release or Single Zone input from DET 1
3 — Manual Release or Single Zone input from DET 2
4 — Manual Release or Single Zone input from any one of
DET 1 or DET 2
5 — Manual Release or Cross Zone input from DET 1 and
DET 2
6 — Manual Release or Cross Zone input from any two of
the following: DET 1, DET 2, and DET 3/WF
7 — Manual Release or Cross Zone input from any two of
the following: DET 1, DET 2, and SUPV 1
8 — Manual Release or Cross Zone input from any two of
the following: DET 1, DET 2, DET 3/WF, and SUPV 1 (except
DET 3/WF and SUP 1)
1
Default
Mode
6
P/N 06-236716-0013-3August 2007
9 — Manual Release or Cross Zone input from SUPV 1 and
either DET 1 or DET2
2 — Manual Release or Single Zone input from DET 1
3 — Manual Release or Single Zone input from DET 2
4 — Manual Release or Single Zone input from any one of
DET 1 or DET 2
5 — Manual Release or Cross Zone input from DET 1 and
DET 2
6 — Manual Release or Cross Zone input from any two of
the following: DET 1, DET 2 and DET 3/WF
7 — Manual Release or Cross Zone input from any two of
the following: DET 1, DET 2, and SUPV 1
8 — Manual Release or Cross Zone input from any two of
the following: DET 1, DET 2, DET 3/WF, and SUPV 1 (except
DET 3/WF and SUP 1)
9 — Manual Release or Cross Zone input from SUPV 1 and
either DET 1 or DET2
Strobe)
A — Intelligent Synchronization - Silenceable (Horn Off)
C — NAC 3 Off (see note 7)
NOTES:
1.If "circuit not used" is selected, do NOT install an EOL as the control unit needs to see open
circuit. Using an EOL will cause trouble.
2.DET 1, DET 2, and DET 3/WF will activate first alarm ONLY IF it is part of the ARC activation
condition.
3.SUPV 1 will activate first alarm ONLY IF it is part of the ARC activation condition.
4.If Initiator is selected for any Release circuit output, the respective Power-Limited switch setting
is ignored.
5.The NAC will be driven by both ARC 1 and ARC 2. However the first ARC to reach each state is
given precedence. Once its cycle is complete, the other ARC, if active, will gain control.
6.The NAC may be related to neither ARC if the control unit is used for non-suppression
applications. Also see notes 8 to 10.
7.An OFF condition is different from NOT USED and will require that an EOL be installed.
8.In addition to being selectable for NACx First Alarm, the various tones are also selectable in the
condition that both ARCs are not used and one of DET 1, DET 2 or DET 3/WF is in alarm.
9.In addition to being selectable for NACx Pre-Release, the various tones are also selectable in the
condition that both ARCs are not used and two of DET 1, DET 2 or DET 3/WF are in alarm.
10. In addition to being selectable for NACx Releasing, the various tones are also selectable in the
condition that both ARCs are not used and all of DET 1, DET 2 and DET 3/WF are in alarm.
Default
Mode
7
P/N 06-236716-0013-13August 2007
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Configuration
August 20073-14P/N 06-236716-001
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Operation
4-1INTRODUCTION
This chapter explains how to read the control unit display, interpret the LEDs, and how to reset
the unit. The following are the operational modes of the control unit:
•Normal Mode
•Alarm Signal
•Supervisory Signal
•Trouble Signal State
4-1.1Normal Mode
In the normal mode, the control unit continuously monitors all inputs and outputs for any
change of state. In the normal mode the Green AC ON LED is the only illuminated LED. The
buzzer and NACs are silent, The Programmable Relays are de-energized, and the Trouble relay
is energized.
4-1.2Alarm Signal State
CHAPTER 4
OPERATION
In the Alarm state, the control unit has detected one or more active inputs on its input circuits.
The states of Alarm are:
1. First Alarm — caused when input is received from:
•DET 1, or
•DET 2, or
•DET 3 (Detector or Waterflow), or
•Manual Release
2. Pre-Release — caused when input is received from:
•DET 1 in Single-Zone release mode, or
•DET 2 in Single-Zone release mode, or
•DET 1 and DET 2 in Cross-Zone Mode, or
•DET 1 and DET 3 (Waterflow) in Cross-Zone mode, or
•DET 2 and DET 3 (Waterflow) in Cross-Zone mode, or
•DET 1 and Supv 1 in Cross-Zone mode, or
•DET 2 and Supv 1 in Cross-Zone mode, or
•Manual Release
3. Releasing — caused when the pre-release countdown timer has counted down to zero. In
this state, the control unit is actively in the process of activating its Agent Release
Circuit(s).
4. Post-Release — condition when the control unit has released Agent.
P/N 06-236716-0014-1August 2007
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Operation
4-1.3Supervisory Signal
In the supervisory state, the control unit has detected a change in state of one or both of its
supervisory input circuits, or its PCB mounted Output Disable switch. A flashing LED indicates
one or more unacknowledged supervisory events. A steady LED indicates all supervisory
events have been acknowlwdged. The LED turns off when the AEGIS receives supervisory-off
messages from all initiating devices that reported supervisory conditions.
4-1.4Trouble Signal State
In the trouble state, the control unit has detected one or more active troubles such as AC
failure, open circuits, short circuits, ground faults, activation of abort during non-alarm
condition, and so on. In the trouble mode, the Trouble LED and circuit-specific LED will flash,
the internal buzzer will sound, and the trouble relay will de-energize.
With the exception of microprocessor or PCB troubles, all other troubles may be acknowledged
either automatically (i.e., the trouble event reverts to normal condition) or manually by the
operator by pressing the Acknowledge or System Reset control switches.
4-2CONTROL SWITCH FUNCTIONALITY
Illegal button presses, or illegal combinations of button presses, shall result in a momentary
display of "Err".
4-2.1Acknowledge
Pressing the Acknowledge control switch during an active trouble, supervisory, or alarm allows
the operator to signal the AEGIS that a new event currently being displayed is understood. The
AEGIS control unit’s buzzer will silence and all flashing Alarm, Trouble, or Supervisory LEDs
will light steady.
Table 4-1. Acknowledge
EventCircuit Specific LEDSystem Event LEDBuzzer
AlarmSteadySteadyOff
TroubleSteadySteadyOff
SupervisorySteadySteadyOff
Event ClearOffOffOff
Event RecurrenceFlashFlashOn Steady - Alarm
On Pulsed - Trouble/Supervisory
4-2.2Signal Silence
Pressing the Signal Silence control switch at any alarm state will turn on the Signal Silenced
LED and silence all NACs unless configured otherwise (non-silenceable).
4-2.3System Reset
Resets the system including turning off outputs and interrupting power to all input and output
circuits for a period of five (5) seconds.
August 20074-2P/N 06-236716-001
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4-2.4Output Disable
Disables the release of agent, and as selected in the system configuration, the activation of
NAC outputs and/or Programmable Relays. This is used when performing maintenance on the
system. When the control switch is engaged, it creates a System Supervisory condition.
Pressing the control switch momentarily toggles in and out of the disable mode.
Operation
P/N 06-236716-0014-3August 2007
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Operation
August 20074-4P/N 06-236716-001
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Testing and Maintenance
CHAPTER 5
TESTING AND MAINTENANCE
5-1MAINTENANCE REQUIREMENTS
The Kidde AEGIS™ must be inspected, tested and maintained in accordance with the
requirements of NFPA 72 (latest edition), and/or the local Authority Having Jurisdiction (AHJ).
Two different sources of power can be connected to the control unit. Disconnect
both sources of power and critical components such as special extinguishing
WARNING
systems and relays controlling facility-power shutoff before servicing the
control unit. The control unit and associated equipment may be damaged by
connecting or disconnecting wiring while the control unit is energized.
For inspection, testing and maintenance of the associated extinguishing system, refer to the
manufacturers instructions and the standards and codes that apply to that systems.
Prior to any testing or maintenance on the AEGIS, perform the following:
1. Disable ARCs and NACs via the Output Disable control switch.
2. Physically disconnect the wiring to initiator assemblies (if used) from the release-circuit
terminals, short the leads together, and wrap the leads in insulating tape
3. Physically disconnect all control heads (if used) from their associated agent-storagecontainer discharge valves
4. Physically disconnect the wiring to solenoid valves (if used) for pre-acti on/deluge sprinkler
systems
5. Ensure that emergency operations controlled by this system such as facility power shutoff
are bypassed
6. Notify personnel in the facility and at off-premises monitoring locations that you are
working on the system and that you will inform them when servicing has ended.
5-2TESTING FREQUENCY
The frequency shall be per NFPA 72 (latest edition) stated below, or as required by the local
Authority Having Jurisdiction (AHJ), whichever is more stringent.
P/N 06-236716-0015-1August 2007
Page 66
Testing and Maintenance
5-3TESTING
5-3.1Battery Status Check
1. Disconnect AC power.
2. Allow control unit to operate on the batteries for about one hour.
3. Measure the individual battery voltages. If any battery reads 1.5 V or more below its rated
voltage, that battery should be replaced.
Generally, if one of the batteries is low, the other(s) will soon fail. It is advis able to replace all
the batteries in a set when one requires replacement. Any battery that has been in service for
36 months or more must be replaced.
5-3.2Battery Test
The following sequence will display the battery open circuit voltage and charge current:
1. Press and hold Acknowledge and Signal Silence control switches simultaneously for fi ve
(5) seconds. As long as both keys are pressed, the battery voltage is displayed for three
(3) seconds, and then the battery current. These alternate every three (3) seconds.
2. The battery test will exit if either control switch is released, or if a control unit status
change occurs.
5-3.2.1BATTERY VOLTAGE DISPLAY
Battery voltage will be as shown in Figure 5-1. The units are in Volts.
Figure 5-1. Battery Voltage Display
5-3.2.2BATTERY CHARGE CURRENT DISPLAY
Battery charge current will be as shown in Figure 5-2. The units are in Amps.
Figure 5-2. Battery Charge Current Display
5-3.3Replacing the Batteries
Before replacing batteries, disconnect AC power. Batteries should be replaced at least once
every 36 months, or as directed by the local Authority Having Jurisdiction. Do not install a
battery set whose open circuit voltage is less than 22 volts.
August 20075-2P/N 06-236716-001
Page 67
5-3.4Lamp Test
Use the following procedures to perform the lamp/buzzer test.
1. Verify that the control unit is in normal standby mode with no alarms, troubles or
supervisory conditions.
2. Press and hold the Acknowledge control switch for a period of five (5) seconds. The LEDs
and the digital display characters will illuminate, and the buzzer will sound. This will
continue until the Acknowledge control switch is released, or there is a status change to
the control unit. This will enable malfunctioning LEDs/segments to be visually sighted.
Testing and Maintenance
P/N 06-236716-0015-3August 2007
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Testing and Maintenance
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Troubleshooting
CHAPTER 6
TROUBLESHOOTING
6-1PURPOSE
This chapter provides diagnostic information, probable causes, and the method(s) to return the
Kidde AEGIS to proper operating conditions.
Prior to taking corrective action or performing any maintenance functions, you must refer to
Paragraph 5-1 and follow the instructions specified there.
6-2TROUBLE DIAGNOSTICS
Diagnostics allow the operator to determine the cause of trouble. To access the diagnostic
function, the control unit needs to have at least one active trouble condition. Perform the
following:
StepDescriptionDisplay Examples
1Press and hold the Signal Silence control switch for five (5) seconds. A 3-digit
Trouble code will be displayed until the Signal Silence control switch is
released (sample on right).
2If multiple troubles exist, the display will blink one second on, one second off,
and the trouble codes will sequence to the next code every time the display
illuminates. When all codes have been displayed, the sequence will repeat until
the Signal Silence control switch is released (sample on right).
6-3TROUBLE CODES AND CORRECTIVE ACTION
CodeTroubleCorrective Action
000Microprocessor or PCBReplace the PCB.
001GroundCheck for connections to earth ground on field wiring whose removal
restores proper earth-ground offset voltage of 6.60 Vdc nominal.
002AC Voltage below 85%Check incoming AC power.
003Primary PSU Output VoltageCheck power supply connector, from the power supply to main PCB
(PSU J2).
Replace the power supply assembly.
004No Secondary Power ConnectedV erify battery connections to PCB (TB12). In the presence of primary
power, no chargeable batteries can be detected. Either they are too
discharged (<17V), or not connected at all. In either case there will
be no battery charging.
005Battery Charger FaultMeasure Power Supply voltage (27.6 Vdc) (PSU J2). If correct,
replace PCB. If not correct, replace power supply.
P/N 06-236716-0016-1August 2007
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Troubleshooting
CodeTroubleCorrective Action
006Low BatteryCheck battery voltage, must be greater than 20.5 Vdc in the absence
of primary power. When voltage drops as low as 19.5 Vdc, the
charger will disconnect and the outputs will be isolated.
007Reversed BatteryVerify Battery polarity.
008Detector #1 Open CircuitLook for discontinuity in detector #1 wiring.
Check for missing/incorrect value 5.1K resistor.
009Detector #2 Open CircuitLook for discontinuity in Detector #2 wiring.
Check for missing/incorrect value 5.1K resistor.
010Detector #3/Waterflow Open
Circuit
Look for discontinuity in Detector #3/Waterflow wiring.
Check for missing/incorrect value 5.1K resistor.
011Manual Release Open CircuitLook for discontinuity in manual release circuit wiring.
Check for missing/incorrect value 5.1K resistor.
012Supervisory #1 Open CircuitLook for discontinuity in Supervisory #1 wiring.
Check for missing/incorrect value 5.1K resistor.
013Supervisory #2 Open CircuitLook for discontinuity in Supervisory #2 wiring.
Check for missing/incorrect value 5.1K resistor.
014Invalid AbortAbort station activated in non-alarm condition.
015Abort Open CircuitLook for discontinuity in circuit wiring.
016ARC #1 Short CircuitTroubleshoot ARC #1 wiring by breaking-up circuit to isolate the
short.
017ARC #1 Open CircuitLook for discontinuity in ARC #1 wiring.
Check ARC #1 configuration.
018ARC #2 Short CircuitTroubleshoot ARC #2 wiring by breaking-up circuit to isolate the
short.
019ARC #2 Open CircuitLook for discontinuity in ARC #2 wiring.
Check ARC #2 configuration.
020NAC #1 Short CircuitTroubleshoot NAC #1 wiring by breaking-up circuit to isolate the
short.
021NAC #1 Open CircuitLook for discontinuity in NAC #1 wiring.
Check for missing/incorrect value 5.1K resistor.
022NAC #2 Short CircuitTroubleshoot NAC #1 wiring by breaking-up circuit to isolate the
short.
023NAC #2 Open CircuitLook for discontinuity in NAC #1 wiring.
Check for missing/incorrect value 5.1K resistor.
024NAC #3 Short CircuitTroubleshoot NAC #1 wiring by breaking-up circuit to isolate the
short.
025NAC #3 Open CircuitLook for discontinuity in NAC #1 wiring.
Check for missing/incorrect value 5.1K resistor.
026ARC #1 Not Open CircuitCheck configuration to make sure ARC #1 is enabled.
027ARC #2 Not Open CircuitCheck configuration to make sure ARC #2 is enabled.
028Serial Cable ConnectedRemove serial cable.
August 20076-2P/N 06-236716-001
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Parts List
CHAPTER 7
PARTS LIST
DescriptionPart Number
Kidde AEGIS Control Unit84-732001-001
Kidde AEGIS Control Unit with Switches84-732001-201
Installation/Configuration Kit06-220148-002
Operating Instructions06-236719-002
Replacement Hardware Installation Kit 06-220149-001
Replacement Enclosure Assembly06-220172-002
Replacement Enclosure Assembly (with Switches)06-220174-002
Replacement Switch Kit06-220176-001
Replacement PCB Assembly06-220150-001
Replacement Power Supply06-118394-002
Trim Ring76-600000-007
In-Line Releasing Diode (10K) Kit06-220023-001
Battery Enclosure76-100010-001
Dead-Front Panel06-220175-001
Replacement Bezel Assembly06-220151-001
Spare Key06-118013-001
Spare Keylock with Keys06-129924-001
EOL Backbox (Canadian applications only)06-129963-002
Battery Harness06-129925-002
P/N 06-236716-0017-1August 2007
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Parts List
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August 20077-2P/N 06-236716-001
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Battery Capacity Calculations
APPENDIX A
BATTERY CAPACITY CALCULATIONS
A-1STANDBY TIME DURATION
To calculate battery capacity for a specific application, first select the duration for which
standby and alarm power is required using Table A-1.
Table A-1. Duration Time for Standby and Alarm
Type of SystemStandbyAlarm
Local or Central Station (Protected Premises) Fire Alarm Systems per NFPA 7224 hours5 minutes
Clean Agent Suppression Systems per NFPA 12, 12A, 12B, and 200124 hours5 minutes
Deluge or Pre-Action Water Spray Systems per Factory Mutual90 hours10 minutes
A-2POWER CONSUMPTION DATA
Table A-2 lists the power consumption of the various system components.
Table A-2. Power Consumptions for System Components
The standby and alarm values for the AEGIS include the Trouble Relay.
2
The Auxiliary Power Output current value stated is the maximum allowed.
3
The Standby current stated for Ionization, Photoelectric, Electronic Heat, Duct and Contact Heat Detectors is
for each detector. The Alarm current is for the Detection Circuit.
4
The current value stated for the Notification Appliance Circuits is the maximum each.
5
For the Alarm current values of Steady Release Solenoids, refer to Appendix B.
6
Momentary Agent Release Solenoids and Initiators are negligible in their current requirements and do not
need to be included in the calculation.
Use Table A-3 to calculate the Standby and Alarm Power requirement of the Kidde AEGIS.
A-3.1Procedure
1. Insert the actual count of components and devices into the Standby Quantity column.
2. Insert the quantity of these components devices which can be in alarm into the AlarmQuantity column.
3. Multiply the quantity count by the Each — Standby and Alarm Power and insert these
values into the Total column.
4. Calculate the sum of the values in the Total Standby and Total Alarm columns to arrive
at the Total Standby Power and Total Alarm Power in milliamperes.
5. Divide the mA values for Total Power in Amperes.
Table A-3. Standby and Alarm Calculation Guide
Standby Power (mA)Alarm Power (mA)
NumberComponent
QtyEachTotalQtyEachTotal
1AEGIS Control Unit1100.00100.001240.00240.00
2
3
4
Auxiliary Power Output
Programmable Relays
Detection Circuits 1, 2, and 3
5Ionization Detectors0.070.00
6Photoelectric Detectors0.070.00
The Auxiliary Power Output current value stated is the maximum allowed. See Note 6 below.
2
The value stated for the Programmable Relays is for each individual relay when energized.
3
Standby currents should be considered for all Ionization, Photoelectric, Duct and Heat Detectors in the three
Detection Circuits. However, since only one detector can be in Alarm, the Alarm current should only be considered for the entire Detection Circuit.
4
The value stated for the NACs is the maximum for each. See Note 6 below.
5
For the Alarm current values of Steady Release Solenoids, refer to Appendix B.
6
Since the Power Supply of the Kidde AEGIS unit is rated at 5.4 Amps, the system designer should ensure
that the system circuits are loaded so as to keep the calculated alarm current equal to or less than 5.4
Amps.
August 2007A-2P/N 06-236716-001
Page 75
A-4BATTERY CAPACITY CALCULATIONS
Based on the “Duration” for which battery backup is required (refer to Paragraph A-1) and the
Total Standby Power and Total Alarm Power values (refer to Paragraph A-3), the next step
is to calculate the battery capacity in Ampere-Hours (AH) using Table A-4.
Table A-4. Battery Capacity Calculations
Battery Capacity Calculations
Total Power Required (Amps)
Total Standby Current (Amps)=x=
Total Alarm Current (Amps)=x=
Total Calculated AH (column sum)=
Required Battery AH using 110% Deration Factor
(multiply Total Calculated AH by 1.1)
Selected Battery Capacity
(must be greater than or equal to required battery AH and lower than 68 AH)
Multiply ByDuration
(Hours)
EqualsAmpere-Hour (AH)
=
=
Note: 1. The above battery capacity calculation and subsequent selection assumes that the
battery is installed in ambient room temperatures. If installed in below ambient, consult
the battery manufacturer for requirement of additional deration factors not considered
above.
2-Wire Detector Base 2WRLT70-501000-002
2-Wire Detector Base2WRB70-501000-005
2-Wire Relay Module2WRM70-500000-004
2-Wire Duct HousingDH-60-2W70-600000-200
2-Wire Duct Housing with CPD-7051DDH-60-2CPD70-600000-251
2-Wire Duct Housing with CPD-7054DDH-60-2ACD70-600000-254
2-Wire Duct Housing with PSD-7155DDH-60-2PSD70-600000-255
2-Wire Duct Housing with PSD-7157DDH-60-2APD70-600000-257
4-Wire Detector Base4WRB70-501000-101
4-Wire Duct Housing less Detector with Integral Exhaust
Tube & 24/120/240 VAC Transformer
4-Wire Duct Housing with Original Ionization Detector
CPD-7051D
4-Wire Duct Housing with Advanced Ionization Detector
CPD-7054D
4-Wire Duct Housing with Original Photoelectric Detector
PSD-7155D
4-Wire Duct Housing with Advanced Photoelectric Detector
PSD-7157D
°F Fixed Temp Heat Detector
THD-705370-530000-001
DH-6070-600000-000
DH-60-CPD70-600000-051
DH-60-ACD70-600000-054
DH-60-PSD70-600000-155
DH-60-APD70-600000-157
P/N 06-236716-001B-1August 2007
Page 78
List of Agency Listed Compatible Devices
Ta b l e B -2. Releasin g S o lenoid
Wire Length (ft.)
I
Device
(Min.)
Amps
Resistance
(Max.)
Ohms
On Time
12
AWG
14
AWG
16
AWG
18
AWG
8901812.410Momentary300200120—1 or 2UL, FM
8956302.012Momentary300200120—1 or 2UL, FM
8991752.2010.8Momentary300200120—1 or 2UL, FM
486500010.24103Steady3000200012008001 or 2UL, FM
06-118329-0010.225108Steady3000200012008001 or 2FM
06-118384-0010.5246Steady14407604803401 or 2UL
38-509834-0010.63238Steady10505503302401 or 2UL, FM
38-509837-0010.460Steady230014609155701 or 2UL, FM
81-100000-0010.4459Steady230014609155701 or 2UL, FM
87-120099-001*212Momentary360240140—1 or 2UL, FM
60-120099-001*212Momentary360240140—1 or 2UL, FM
Max.
Number per
Circuits
Agency
87-120099-600*212Momentary360240140—1 or 2UL, FM
897494-0001.514.2Steady380240150—1UL, FM
897494-5301.514.2Steady380240150—1UL, FM
90-487100-001*212Momentary360240140——1 or 2UL, FM
FM Group A0.45852Steady14407604803401FM
FM Group B, D0.734Steady9405003002201FM
FM Group E, G0.4257Steady15707605253701FM
FM Group FSkinner 24 Vdc, 22 Watt Solenoid 7312BN4TNLVNOC322C21FM
FM Group IVictaulic 24 Vdc, 8.7 Watts, 364 mA series 753-E Solenoid1FM
FM Group JViking Model No. 11591, 11592, 11595, and 11596, 24 Vdc, 10 Watts1FM
FM Group KViking Model No. 11601, 11602, and 13215, 24 Vdc, 9 Watts1FM
* Must be used in conjunction with Microswitch P/N 87-120039-001 for momentary operation.
Table B-3. Initiator-Based Releasing Devices
Device
I (Min.)
Amps
83-131025-001*3Momentary1
Resistance
(Max.) Ohms
On Time
Max. Number
per Circuits
Agency
* The maximum circuit resistance for this device must be 10 ohms, regardless of the number used. The firing current will be
2.5 Amps.
Table B-4. Miscellaneous Devices
DeviceModel NumberSupplier/Mfg.
Receiving Units for Central Station5104BSilent Knight
August 2007B-2P/N 06-236716-001
Page 79
Technical Specifications
APPENDIX C
TECHNICAL SPECIFICATIONS
ItemDescription
ANUMBER OF HAZARDSOne (1)
BPOWER
AC Main Input120 Vac/240 Vac 50/60 Hz (90 to 264 Vrms, 47 to 63 Hz)
Current Consumption
120 Vac:
240 Vac:
Required Breaker15 Amps
Power Supply Output5.4 Amps @ 27 Vdc
Battery Charger Output6 Amps @ 27 Vdc
Battery CapacityUp to 68 AH @ 24 Vdc
Battery Cutout Voltage18.6 Vdc
3.2 Amps
1.6 Amps
Auxiliary Power Output1 Amp maximum @ 24 Vdc Nominal
Battery Transfer85% of 120 Vac
85% of 240 Vac
CInput Circuits
C.1Detection CircuitsThree (3)
- Two (2) for Suppression Input
- Third configurable as either independent Detection Circuit or
for Waterflow
Compatible Devices- 25 conventional electronic Smoke/Heat detectors listed in
Appendix B.
- A quantity of Normally-Open contact-closure devices subject
to maximum allowable wiring resistance.
Circuit Type- Class A (Style D) or Class B (Style B) supervised
- Detects Opens and Ground Faults
- Power Limited
Circuit VoltageNominal 24 Vdc, 28 Vdc maximum
Maximum Line Resistance100 ohms per loop
Maximum Alarm Current 70 mA
End-of-Line Resistor5.1K, 5%, 1/2 W
P/N 06-236716-001C-1August 2007
Page 80
Technical Specifications
ItemDescription
C.2 Manual ReleaseOne (1)
Compatible DevicesA quantity of Normally-Open contact-closure devices subject to maximum
allowable wiring resistance.
Circuit Type- Class A (Style D) or Class B (Style B) supervised
- Detects Opens and Ground Faults
- Power Limited
Circuit VoltageNominal 24 Vdc, 28 Vdc maximum
Maximum Line Resistance100 ohms per loop
Maximum Current 10 mA
End-of-Line Resistor5.1K, 5%, 1/2 W
C.3Abort InputOne (1)
Compatible DevicesA quantity of Normally-Open contact-closure devices subject to maximum
allowable wiring resistance.
Circuit Type- Class A (Style D) or Class B (Style B) supervised
- Detects Opens and Ground Faults
- Power Limited
Circuit VoltageNominal 24 Vdc, 28 Vdc maximum
Maximum Line Resistance100 ohms per loop
Maximum Current 10 mA
End-of-Line Resistor5.1K, 5%, 1/2 W
C.4Supervisory InputTwo (2)
Compatible DevicesA quantity of Normally-Open contact-closure devices subject to maximum
allowable wiring resistance.
Circuit Type- Class A (Style D) or Class B (Style B) supervised
- Detects Opens and Ground Faults
- Power Limited
Circuit VoltageNominal 24 Vdc, 28 Vdc maximum
Maximum Line Resistance100 ohms per loop
Maximum Current 10 mA
End-of-Line Resistor5.1K, 5%, 1/2 W
August 2007C-2P/N 06-236716-001
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ItemDescription
DOUTPUT CIRCUITS
D.1Notification ApplianceThree (3)
- NAC 1: First Alarm Condition
- NAC 2: Pre-Release Condition
- NAC 3: Release Condition
Compatible DevicesA quantity of Polarized 24 Vdc Notification Appliances subject to the
maximum current and maximum allowable voltage drop per circuit.
Circuit type- Class A (Style Y) or Class B (Style Z) supervised
- Detects Opens and Ground Faults
- Power Limited
Circuit VoltageNominal 24 Vdc, 28 Vdc maximum
Technical Specifications
Total Voltage Drop at End-of-
2 V
Line
End-of-Line Resistor5.1K, 5%, 1/2 W
D.2Output RelaysFour (4)
- Programmable: Three (3), normally de-energized with power on
- Trouble: One (1), normally energized with power on
Relay TypeVoltage free, Form-C (1 N.O. and 1 N.C.)
Contact Rating3 Amps @ 30 Vdc (resistive)
D.3Releasing CircuitsTwo (2)
- ARC 1
- ARC 2
Compatible DevicesOn each circuit the following devices listed in Appendix B
- 1 or 2 Control Head Solenoids
- 1 Initiator
- 1 or 2 FM Pre-Action/Deluge/Sprinkler Solenoids
Releasing Configurations- Solenoids on both ARC 1 and ARC 2
- Solenoids on ARC 1 and one Initiator on ARC 2 or vice-versa
- One Initiator on both ARC 1 and ARC 2
Circuit Type- Class B (Style Z) supervised
- Detects Opens and Ground Faults
Operating VoltageNominal 24 Vdc, 28 Vdc maximum
End-of-Line ResistorNot required
P/N 06-236716-001C-3August 2007
- Normally no Short detection and non-Power Limited
- Except with Initiators, power limiting and short circuit detection options
enabled with In-line Diode-Resistor device
Page 82
Technical Specifications
ItemDescription
EENCLOSURE
Degree of ProtectionNEMA 1
Material of Construction18 Gauge (0.053 inches or 1.35 mm) sheet steel
ColorRed
Assembled Dimensions
- With Standard Door
14-1/4 in. Width x 5 in. Depth x 19 in. Height
(362 mm x 127 mm x 483 mm)
- With Switch-Door
Approximate Weight (without
batteries)
- Standard Assembled
- Standard Shipping
- Canadian Assembled with
Dead-Front Panel
- Dead Front Panel Shipping
- Switch Panel Assembled
- Switch Panel Shipping
FOPERATING ENVIRONMENT
Temperature32°F to 120°F (0°C to 49°C)
Relative Humidity
14-1/4 in. Width x 6 in. Depth x 19 in. Height
(362 mm x 152 mm x 483 mm)
18 lbs. (8 kg)
21 lbs. (9 kg)
22 lbs. (10 kg)
4 lbs. (2 kg)
19 lbs. (8 kg)
21 lbs. (10 kg)
93% RH @ 90
°F
August 2007C-4P/N 06-236716-001
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FM Rules for PreAction/Deluge Systems
APPENDIX D
FM RULES FOR PREACTION/DELUGE SYSTEMS
Kidde AEGIS™ applications which require Factory Mutual (FM) approved Pre-Action and/or
Deluge Systems must conform to the following guidelines:
•Detection Zone 1 (Det1), Detection Zone 2 (Det2) and Waterflow (W'Flow) Initiating
Circuits must be configured for Class A, Style D wiring.
•The Battery backup system must provide for 90 hours of Standby operation followed by 10
minutes of Alarm operation. Refer Appendix A for calculations.
•The Agent Release Output must be configured for Deluge Solenoid activation. The Solenoid
Activation Time must be set either for:
–10 minutes, or
–15 minutes, or
–On-until-reset.
The wiring connection of the Control Unit to the Deluge Solenoids must be as detailed in the
Installation section of this Manual.
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FM Rules for PreAction/Deluge Systems
THIS PAGE INTENTIONALLY LEFT BLANK.
August 2007D-2P/N 06-236716-001
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Central Station Operation
APPENDIX E
CENTRAL STATION OPERATION
The Kidde AEGIS™ should be configured for Central Station operation as follows:
•One of the three (3) Programmable Relays should be configured for any alarm. For
example:
2,
1
3, OR
4
•The Trouble Relay should be set to delay AC Failure Response by a period acceptable to
the local AHJ. For example:
1
Refer to Chapter 3 for details on how to enter or change configuration settings.
15
1
X
A Silent Knight DACT Model 5104B must be wired to the control unit, as shown in Figure E-1.
Refer to the Model 5104B Installation Manual for information regarding connection of the DACT
to telephone lines for Alarm and Trouble transmission(s).
Note 1: Wiring must be installed in conduit within 20 feet.
Note 2: Central Station is not suitable for use with Canadian applications.
Routings for Power-Limited and Non-Power-Limited Wiring
APPENDIX F
ROUTINGS FOR POWER-LIMITED AND
NON-POWER-LIMITED WIRING
This appendix provides guidelines for power-li mited and non-power-limited wiring requirements.
The following wiring requirements shall be observed:
•Power-limited and non-power-limited wiring must be physically separated within the
control-unit enclosure
•All power-limited wiring must be separated by at least 1/4-inch (6 mm) from any
non-power-limited wiring
•Power-limited and non-power-limited wiring cannot enter and exit the control-unit
enclosure through the same knockout or conduit.
Figure F-1 shows typical wiring for power-limited and non-power-limited circuits.
TB8
TB9
TB10
TB11
TB6
TB7
TB5
TB2
TB3TB4
TB1
USE LEFT-SIDE GUTTER FOR
NON-POWER-LIMITED WIRING
RELEASE CIRCUITS
(TB14 AND TB15) CAN BE
WIRED AS POWER-LIMITED
OR NON-POWER-LIMITED
BATTERY WIRING
TB12
TB19
TB13
TB14
TB16TB15
TB17
TB18
MAINTAIN 1/4-INCH SEPARATION BETWEEN
POWER-LIMITED AND NON-POWER-LIMITED WIRING
Figure F-1. Power-Limited and Non-Power-Limited Wiring
USE RIGHT-SIDE GUTTER FOR
POWER-LIMITED WIRING
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Routings for Power-Limited and Non-Power-Limited Wiring
THIS PAGE INTENTIONALLY LEFT BLANK.
August 2007F-2P/N 06-236716-001
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Page 90
Kidde, Fenwal and HSSD are registered trademarks of Kidde-Fenwal, Inc.
All other trademarks are property of their respective owners.
A UTC Fire & Security Company
400 Main Street
Ashland, MA 01721
Ph: 508.881.2000
Fax: 508.881.8920
www.kiddefiresystems.com
These instructions do not purport t o cover all the detai ls or variations in the e quipment
described, nor do they provide for every possible contingency to be met in connection with
installation, operation and maintenance. All specificat ions subject to change without notice. Should further information be desired or should particular problems arise which are
not covered sufficiently for the purchaser’s purposes, the matter should be referred to
KIDDE-FENWAL INC., Ashland, Massachusetts