65A Industrial Way, Wilmington, MA 01887-3499, USA, Toll Free: 800-987-1050, Voice: 978-658-6717, Fax: 978-658-8638, www.alarmsaf.com
Beacon Power Management System Installation Manual
This Installation manual is made up of the following separate Installation Instructions for the Power Supply
and Advanced Power Distribution Module.
52-296 - Installation Instructions for Beacon Power Supply - pp. 2-28
52-325 - Installation Instructions for Beacon Power Supply - Addendum A - p. 29
52-254 - Installation Instructions for APD Module - pp. 30-53
The Beacon Line of power supplies (BNx000) is an of off-line switching power supply product
line designed for use in the access control and fire industries by the Systems Integrator. They
accept several accessory boards designed to increase the functionality of the basic power
supply.
Field selectable output voltage of 12V or 24VDC
Units provide twice the current capability when set to 12VDC as at 24VDC. This is to
compensate for the typically double current draw of 12V devices such as mag locks.
Expandable with accessory boards via the ABC connector
All units can charge up to 38AH of battery while supplying full rated load
Full fault detection, including battery presence detection, and reporting via two form-C
relay contacts; AC fault and System Fault
Flexible FAI input for egress control or other functions. Accepts contact closure (NO or
NC), voltage input, reverse polarity voltage, or open collector input
FAI activation is transmitted to ABC connector for activation of FAI on compatible
accessory boards
Fault conditions monitored include:
Low or missing AC
High or low output / battery
Blown fuse
Missing battery
Reversed Battery
Internal Power Supply failure
Visual indicators include:
AC Presence (Green)
DC Output Presence (Green)
FAI Activated (Red)
Reversed Battery Fault (Yellow)
AC Fault (Yellow)
System Trouble (Yellow)
NFPA 72 National Fire Alarm Code
NFPA 70 National Electrical Code
NFPA 731 Standard for the Installation of Electronic Premises Security Systems
US Standards
UL 294 Access Control System Units
UL 1481 Power Supplies for Fire Protective Signaling System
Other Standards
MEA Listed
California State Fire Marshal (CSFM) Listed
Applicable Local and State Building Codes
Requirements of the Local Authority Having Jurisdiction (LAHJ)
This product carries an ETL Listing from Intertek for one or more of the standards listed above.
Intertek is recognized by the Occupational Safety and Health Administration (OSHA) as a
Nationally Recognized Testing Laboratory (NRTL) and accredited by the Standards Council of
Canada as a Testing Organization and Certifying Body. The ETL Listed Mark is recognized,
acknowledge and accepted by local inspectors and Authorities Having Jurisdiction (AHJs)
throughout North America as an accepted alternative to UL and as proof of product compliance.
For more information about the NRTL program, we encourage you to visit the OSHA Web site at
www.osha.gov.
When installed in accordance with all standards listed in Section 2 of this document, the Beacon
Line provides power for use with (but not limited to) fire or access control equipment such as
mag locks, door strikes, door holders, smoke dampers, four wire smoke detectors, card readers,
keypads, etc.
The AC input for the BNx000 is made through a fully shrouded pluggable cable which plugs into
the AC PWR CONNECT plug (P1). The cable allows connection to either 120 VAC or 240 VAC
nominal input. The BNx000 power supply must be configured for proper VAC input prior to
connection or damage to the system will occur (see section 3.3.3, AC Input Safety Precautions).
AC
PWR
1
ACF
P1
AC PWR CONNECT
Figure 3.3.1
U2
3.3.1 Configuring VAC Input
All BNx000 power supplies are factory set for 120 VAC input (102-138VAC at 50 or 60Hz). To
verify 120 VAC input setting:
Locate the VAC SELECT jumper (J5)
Verify that J5 is in the UP position for 120 VAC input
The BNx000 will also operate with a 240 VAC (195-264VAC at 50 or 60Hz) input. For 240 VAC
input:
Reposition the VAC SELECT jumper (J5) in the DOWN position or remove it before
energizing the power supply.
3.3.2 Wiring the AC Input Power Cable:
The AC Input Power Cable (part #00518) is included. Connection to the harness should be
made via wire nut to an appropriate power source. AC mains wiring should be no smaller than
14 AWG. Wire the cable as follows:
WIREFOR 120 VACFOR 240 VAC
BlackLineLine 1
WhiteNeutralLine 2
Green or Green/YellowEarth GroundEarth Ground
1. CAUTION: Verify that the main AC power is not energized prior to connecting the BNx000.
2. CAUTION: Verify VAC Select jumper (J5) is set properly on the power supply for either 120
VAC or 240 VAC input prior to connecting the cable and energizing the power supply or
damage to the system or personal property and/or injury will occur.
3. CAUTION: The Green or Green/Yellow earth ground wire should always be connected first
or disconnected last for safety.
4. The AC input connector is a convenient and safe means for AC disconnect as the connector
is fully shrouded when disconnected.
5. All wiring should be installed in accordance with NEC760, NFPA70, NFPA72, and all local
code requirements. See section 4.2 for more information.
3.4 Accessory Board Connector (P2)
3.4.1 General Information
The Accessory Board Connector (ABC) supplies the output voltage and FAI control to compatible
accessory boards for increased functionality including additional voltage(s), power distribution
and/or power management and control for access control and fire applications. See page 26 for
a list of available accessory modules. For more detailed information on the ABC expansion port,
see Appendix B, “About the Accessory Board Connector”.
3.4.2 ABC Cable Types
Order #Model #DescriptionUsed With/Notes
1. Used with BNx000 Power Supply, REV AO2 or earlier
00519ABC-016 PIN – 6 PIN, 8”
00520ABC-026 PIN – 6 PIN, 18”
00521ABC-038 PIN – 8 PIN, 8”
00522ABC-048 PIN – 8 PIN, 18”
00523ABC-058 PIN – 6 PIN, 8”
00524ABC-068 PIN – 6 PIN, 18”
2. Used to interconnect EDB-10 & LDB-8 accessory boards in
certain proprietary systems
1. Used with BNx000 Power Supply, REV AO2 or earlier
2. Used to interconnect EDB-10 & LDB-8 accessory boards
3. Increased length for connection over longer distance
1. Used with BNx000 Power Supply, REV A03A or later for
connection to PD8(F), MB8(F) & CMB8(F) accessory modules
1. Used with BNx000 Power Supply, REV A03A or later for
connection to PD8(F), MB8(F) & CMB8(F) accessory modules
2. Increased length for connection over longer distance
1. Used with Bx000 Power Supply, REV A03A or later for
connection to SPS4, EDB-10 & LDB-8 accessory modules
1. Used with Bx000 Power Supply, REV A03A or later for
connection to SPS4, EDB-10 & LDB-8 accessory modules
2. Increased length for connection over longer distance
CAUTION: The ABC-01 and ABC-02 cables are used on older BNx000 boards (PCB#: 38-118 REV
A02 or earlier) that have a 6-pin ABC connector.
DO NOT USE
these cables on newer BNx000
boards (PCB # 38-118 REV A03A or later) that have an 8-pin ABC connector or damage to the
system could occur.
Makes the power supply voltage available on the Accessory Board Connector (P2).
2.8.2012
3.5 ABC Voltage Selection
The output voltage of the BNx000 must be carried through the Accessory Board Connector (P2)
when using the BN x000 power supply with Beacon Accessory Modules that connect to P2 using
ABC cables. The Buss Select Fuse (See Figure 3.5.1.1) determines if the voltage is available on
the Accessory Board Connector (P2).
Figure 3.5.1.1
3.5.1 Adjusting the Buss Select Fuse
The Buss Select Fuse is factory set for proper operation. The Fuse setting options are:
SETTING/POSITIONDESCRIPTION
B1 – DOWN
This is the required setting when connecting a Beacon Accessory Module.
B2 - UPRemoves voltage from the Accessory Board Connector (P2).
Because older BNx000 boards (PCB#: 38-118 REV A02 or earlier) do not have a Buss Select
Fuse, always check the position of this fuse setting when installing a new BNx000 Board (PCB #
38-118 REV A03A or later) into an existing system.
3.6 Output Terminals
The BNx000 has three sets of output terminals:
The DC1 output provides constant power, regardless of the state of the FAI input
The DC2 output provides power which DROPS upon activation of the FAI input
The DC3 output provides power ONLY upon activation of the FAI input
All three sets of output terminals on the BNx000 provide the same output voltage, 12VDC or
24VDC, as selected by the voltage select switch (S1). See Section 5.1 for more information.
DC2
DC3
DC1
F4
D13
TB2TB1
-BAT+ -DC3+-DC2+ -DC1+
Figure 3.6.1
CAUTION: Observe polarity of the BNx000 output terminals as indicated on the board with
respect to the load or damage to the load may occur.
The FAI input connection for the BNx000 is made through TB3. The FAI input allows complete
flexibility in connection options:
Normally Open Contact (switching positive voltage)
Normally Open Contact (switching DC common)
Normally Closed Contact (Fail-Safe)
Open collector
Isolated or non-isolated voltage input
Reverse Polarity voltage input
Latching Input
There are six terminals on the BNx000 FAI input:
TerminalDescriptionUse
V+Auxiliary Voltage Output
contacts or open collectors
These terminals are the positive input/return for
L+
Positive FAI Activation Terminals
L+
the FAI loop. Only one is required for activation of
the BNx000. The second is for continuing the loop
for activating other devices or BNx000 supplies.
Polarity is shown for activation of the FAI input
L-
Common FAI Activation Terminals
L-
These terminals are the common input/return for
the FAI loop
V-Auxiliary Voltage CommonCommon or return for the internal voltage source
The Fault Reporting relay connection is made through TB4. Separate Form C relays are
provided for AC Faults and System Faults. Connections are marked on the PCB. Six Fault
terminals are available:
Normal Condition - No FaultsNo FaultNo Fault
Loss of / Low AC - Battery ChargedNo FaultFault
Loss of / Low AC - Battery LowFaultFault
Missing Battery (Battery Presence Enabled)FaultNo Fault
High or Low BatteryFaultNo Fault
High or Low Output VoltageFaultNo Fault
Blown AC Fuse - Battery ChargedNo FaultFault
Blown AC Fuse - Battery LowFaultFault
Blown DC1, DC2/DC3, or Battery FuseFaultNo Fault
Blown Buss Select FuseFaultNo Fault
Reversed Battery ConnectionFaultNo Fault
Internal FaultFaultNo Fault / Fault
Wiring must be installed in accordance with NFPA70, NFPA72, and all local code requirements.
Power Limited wiring requires that power limited and non-power limited wiring remain physically
separated. Any power limited circuit entering the enclosure must remain at least one quarter
inch (¼”) away from any non-power limited circuit wiring. Any power limited circuit wiring
must enter and exit the enclosure through different knockouts than non-power limited circuit
wiring.
Wiring within the enclosure should be routed around the perimeter of the cabinet. It should not
be routed across the circuit boards.
4.2.2 AC Input
Connection should be made via wire nut. AC mains wiring should be no smaller than 14 AWG.
See Section 3.3 for details.
4.2.3 ABC Connector
See section 3.4
4.2.4 Output Wiring
Locate the output terminals to be used (DC1, DC2, or DC3). These terminals are nonremovable and accept wire sizes between #12 and #22 AWG. Polarity is indicated on the PCB.
4.2.5 Battery Wiring
Locate the battery terminals. These terminals are non-removable and accept wire sizes
between #12 and #22 AWG. Polarity is indicated on the PCB.
For 12VDC connect one battery to the terminals
For 24VDC connect two batteries in series to the terminals
Note: Connecting batteries in parallel does not allow the BNx000 to supervise the entire battery
set for presence.
CAUTION: A lead-acid battery has the capability of producing extremely high
current. Personal or property damage can occur if the batteries are shorted or
improperly connected.
Locate the FAI Input terminal block (TB3) and remove the terminal block from the header.
Connect the wiring for the FAI input to the terminal block. The PC board is labeled with the
connections and polarity (See also section 3.2). Replace the terminal block on the header.
4.2.7 Fault Relay Wiring
Locate the Fault Relay Output terminal block (TB4) and remove the terminal block from the
header. Connect the wiring for the fault outputs to the terminal block. The PC board is labeled
with the connections for each relay (See also section 3.2). Replace the terminal block on the
header.
Note: The relay is labeled in the non-powered (fault) state. Under a no-fault condition, the
relay is powered (i.e. Common to Normally Open connected).
Before powering a system containing a BNx000, the output voltage switch (S1 - Voltage Select)
must be set for the proper output voltage or damage to the system could occur. Do not change
the switch setting while the unit is powered or damage to the system may occur. Set the
switch UP for 24V, DOWN for 12V (the PC board is labeled with the voltage settings).
4000
6000
24
8000
12
10000
VOLTAGE
SELECT
Figure 5.1.1
5.2 Jumper Settings
For proper operation, the jumpers on the BNx000 should be set appropriately. All jumpers
should be verified or set before powering the unit.
JumperDescriptionSettingsDefault
JP1 (BPD)Battery Presence
JP2 (SPV)N/AUpUp
JP3 (D/E)FAI Filtering
J5 (VAC SELECT)Input Voltage Configuration
Up (D) - Disable
Down - Enable
Left (D) - Disable
Right (E) - Enable
Up (120) - 120VAC Input
Down (240) or Removed- 240 Input
Down - Enable
Left (D) - Disable
Up (120) - 120VAC
Note: Jumper positions are referenced with the output wiring terminal blocks (TB1&2) on the bottom
5.2.1 JP1 (BPD) - Battery Presence
Allows disabling of the battery presence detection for applications where no backup battery set
is used.
5.2.2 JP2 (SPV)
This jumper serves no user function and, if present, should be left in the up position.
This jumper enables or disables FAI input filtering. FAI input filtering is used if the FAI input is
connected to a coded source (i.e. pulsing input).
5.2.4 J5 (VAC SELECT)
This jumper selects the AC input voltage to be used to power the BNx000. The power supply is
factory set for 120 VAC input (J5 in the UPposition). Move the jumper to the
DOWN
position
or remove it to operate the power supply with 240 VAC input.
CAUTION: J5 MUST be set properly before powering the unit or damage to the
system will occur.
5.3 Visual Indicators
The BNx000 contains seven visual status indicators:
LEDDescriptionColorConditions
AC PWR (D20)AC PowerGreenLights when AC Power Present
ACF (D50)AC FaultYellowLights on low / missing AC Power
SYS TBL (D33)System TroubleYellowLights when a system trouble present
REV BAT (D27)Reverse BatteryYellowLights when battery connection reversed
DC1 (D13)DC1 AvailableGreenLights when DC1 output is available
DC2 / DC3 (D24)DC2 & DC3 AvailableGreenLights when DC2 & DC3 output is available
FAI (D4)FAI ActiveRedLights when a valid FAI input signal is received
5.3.1 AC PWR (D20)
For safety reasons, this LED lights any time there is AC voltage present at the AC input,
regardless of the AC fault status, battery state of charge, or power supply condition.
CAUTION: Always check for AC presence with a volt meter before servicing
5.3.2 ACF (D50)
This LED lights when AC power is low or missing. It does not necessarily indicate that the
power supply is not operating. See the chart in Section 5.3.
This LED lights whenever a fault condition (except AC Faults) occurs. See the chart in Section
5.3. Fault conditions detected include:
High or Low battery voltage
High or Low output voltage
Internal Power Supply Fault
Blown Fuse (F2, F3, F4)
Missing battery (If Battery Presence is enabled)
5.3.4 REV BAT (D27)
This LED lights when a battery set is connected to the BNx000 in a reverse polarity. This LED
will be accompanied by the SYS TBL LED and a blown battery fuse (F4 - BAT)
5.3.5 DC1 (D13)
This LED lights when there is DC power available at the DC1 output.
5.3.6 DC2 / DC3 (D24)
This LED lights when there is DC power available to the DC2 and DC3 outputs.
5.3.7 FAI (D4)
This LED lights when a valid FAI activation signal is received at the FAI input. When lit, the DC2
output switches OFF, the DC3 output switches ON, and the FAI buss on the ABC connector is
activated for activation of compatible accessory boards.
The Beacon FAI input is the most flexible we have yet seen in the industry. It may be activated
by any common means found in the access and fire industry.
When activated, this input will disable the Beacon DC2 output and enable the DC3 output.
The MB8 and CMB8 accessory boards will follow the Beacon FAI input.
Methods of activation include:
source:
a. Normally closed.
b. Normally open.
2. Power from external voltage source:
a. Switched positive.
b. Switched negative.
Relay contact using internal voltage source
FAI
FAI
INPUT
JP3
JUMPER
V-
V-
L-
L-
L+
L+
ED
V+
V+
JUMPER
TB3
REV
BAT
FAI ACTIVATES ON OPEN
a. Internal voltage source
b. External voltage.
4. Direct to NAC loop:
a. DC polarity reversal
b. DC polarity reversal with horn/strobe
The AlarmSaf Accessory Board Connector (ABC) allows plug-in system expansion using
compatible AlarmSaf accessory boards. The ABC is capable of carrying both primary and
secondary voltages (if applicable), DC common, fault status, and fire alarm interface status.
Products can be daisy-chained together, maintaining voltage, fault, FAI, and DC common
continuity throughout the chain.
NOTE: There are 6-pin and 8-pin versions of the ABC. The 6-pin version carries ONLY a single
voltage while the 8-pin version can carry two independent voltages for dual voltage systems.
CAUTION: The ABC-01 and ABC-02 cables are used on the older Beacon Power supply boards
(PCB#: 38-118 REV A02 or earlier) that have a 6-pin ABC connector.
cables on newer Beacon Power supply boards (PCB # 38-118 REV A03A or later) that have an
8-pin ABC connector or damage to the system could occur.
The voltage busses (B1 and B2) are carried on pins 5-8 of the ABC. B1 is the primary voltage,
and should typically be the higher of the two voltages in a dual voltage system. The B1 and B2
(if used) voltages are distributed through the accessory boards connected to the ABC. See the
documentation for the particular accessory boards being used for details on how to utilize the
B1 and/or B2 voltages. Note that 6-pin ABC connectors can carry only the B1 voltage, while 8pin ABC connectors can carry both B1 and B2. In order for the B2 voltage to be present, a
second power supply must be included in the system (AC to DC or DC to DC).
CAUTION: If more than one power supply is connected to any of the voltage busses, the
system will not operate properly and damage to the system could occur. Verify that only one
power supply is connected to each voltage buss before powering the system.
Fault Status Buss
The fault status buss carries the DC Fault status between accessory boards and power supplies.
Any product with fault detection and/or reporting capability can report a fault to or from the
ABC chain. Unless otherwise noted in a product’s documentation, AC faults are not transmitted
through the fault status buss.
Some accessory boards have a jumper to split the fault buss. This allows the separation of
faults between two power supplies in some dual voltage systems. If the buss is not split, any
fault on either power supply or any accessory board will show on both power supplies. If the
buss is split, faults on each side of the jumper will go to their respective power supply only,
allowing easier troubleshooting fault conditions, but requiring monitoring of the fault outputs of
both power supplies. Note that only one split should be used in the fault status buss. See the
documentation for the accessory boards in the system to determine which, if any, have a fault
buss split jumper.
NOTE: Not all accessory boards have fault detection or reporting capability; however the fault
status is still carried through these accessory boards to maintain continuity through the chain.
The FAI status buss carries FAI activation signals on systems utilizing a Fire Alarm Interface.
This buss is used to control outputs on compatible accessory boards. See the documentation
for the accessory boards in the system to determine FAI capability.
Some accessory boards have a jumper to split the FAI buss, allowing independent control of
groups of accessory boards and power supplies with multiple FAI input sources. If the buss is
not split, all power supplies and accessory boards with FAI capability will change state upon
activation of
input source will only activate accessory boards or power supplies up to the split. Products
after the split require their own FAI input source.
Note: Not all accessory boards have FAI capability; however the FAI status is still carried
through these accessory boards to maintain continuity through the chain.
any
FAI input source in the chain. If the buss is split, FAI activation of any FAI
DC Common
The DC Common (ground) for the system is maintained through the entire ABC chain. Any
power supplies or accessory boards connected to the chain are common grounded through the
ABC.
ABCSee “Accessory Board Connector”
Accessory Board ConnectorConnector present on some AlarmSaf power supplies and accessory boards, allowing
plug-in expansion of the system
Accessory BoardAn AlarmSaf product for use with AlarmSaf power supplies containing an ABC connector.
These boards allow plug-in expansion of the functionality of the system. Examples of
accessory boards include, but are not limited to, voltage distribution (simple and
controlled), secondary DC-DC power supplies, and NAC Circuit expanders.
AC-DC ConverterA DC power supply whose voltage input is either direct from the AC line or though a
step-down AC transformer
Buss 1 (B1)The primary DC voltage in a system. Typically the higher of the two voltages in dual
voltage systems
Buss 2 (B2)The secondary DC voltage in a system. Only dual voltage systems use this voltage.
Class 2 Power LimitedA voltage output or wiring which conforms to NEC Article 725.
Controlled DistributionVoltage distribution providing on/off control for the outputs. Control can be from FAI, an
access control panel, card reader, or other device. The MB8(F) and CMB8(F) accessory
boards, and the APD8(F) are examples of controlled distribution.
DC-DC ConverterA DC power supply whose voltage input comes from another DC source. DC-DC
converters allow multi-voltage system backup with a single battery set.
FAISee “Fire Alarm Interface”
Fire Alarm InterfaceInput present on some AlarmSaf products allowing control of output(s) in the system.
Typically used for dropping power to mag locks on egress doors during a fire alarm
condition, but can also be used for other control functions, such as resetting smoke
detectors
Negative TripAn input which is activated upon the switching of a DC Common to its terminals. The DC
Common may either be from an external (common grounded) source, or may be
provided as one of the terminals of the input, depending on the product. This input type
is used with a dry contact or open collector input.
Positive TripAn input which is activated upon the switching of a positive DC voltage to its terminals.
The positive voltage may either be from an external (common grounded) source, or may
be provided as one of the terminals of the input, depending on the product. This input
type is used with a dry contact or voltage input.
Power LimitedA voltage output or wiring which conforms to NEC Article 725.
PTCA resettable overcurrent protection device, similar to a fuse or circuit breaker.
Rack MountA product which has an enclosure that allows mounting in a standard 19 inch equipment
rack
Simple DistributionVoltage distribution without any control function for the distributed outputs. Power is
always available to the outputs. The PD8(F) accessory board is an example of simple
distribution.
Voltage DistributionSplitting a bulk power supply output into multiple, current limited outputs to prevent a
single circuit failure from talking down an entire system. The multiple terminal outputs
also simplify wiring by providing a pair of terminals for each circuit, rather than wiring
The following Fire devices have been determined to be compatible with the AlarmSaf Beacon Line of power
supplies. Access Control devices used must be verified for a compatible voltage range.
Page 1 of 1 Document 52-325 Rev A.01 9/27/05
Beacon Power Supply Installation Instructions - Addendum A
17-3124Door HolderSDH-8DSiemens
17-3124Door HolderSDH-7DSiemens
17-3124Door HolderSDH-6DSiemens
17-3124Door HolderSDH-5DSiemens
17-3124Door HolderSDH-4DSiemens
17-3124Door HolderSDH-3DSiemens
17-3124Door HolderSDH-2DSiemens
20-29244-Wire Duct SmokeDH100ACDCFire-Lite
20-29244-Wire Smoke2424THFire-Lite
20-29244-Wire Smoke2424ATFire-Lite
20-29244-Wire Smoke2424AITFire-Lite
20-29244-Wire Smoke2424Fire-Lite
Voltage Range
(VDC)
Nominal Voltage
(VDC)Device TypeModelManufacturer
AlarmSaf
65A Industrial Way, Wilmington, MA 01887-3499, USA, Voice 978-658-6717, Fax:978-658-8638, www.alarmsaf.com
The APD8(F) is an access control power distribution system providing eight relay controlled,
individually protected outputs. The ADP8 provides Class-2 power limited outputs via PTC protection,
while the APD8F uses fuse protected outputs. Either system can be operated from 12V or 24V AC or
DC and features independently programmable outputs, a variety of input option modes, Fire Alarm
Interface and visual status indication.
Systems Integrator applications include mag lock and door strike control, reader power, request to
exit device power, and system power. The diversity, flexibility and level of system isolation provided by
the APD8(F) make this unit a universal toolbox for access control applications.
y Eight outputs - each individually programmable for fail-safe, fail-secure, form-C dry contact,
continuous output voltage, and FAI controlled
y Eight inputs - each individually programmable for negative trip, positive trip, open collector / dry
contact trip, or isolated trip
y Fire Alarm Interface - latching or non-latching
y Available with Class-2 Power Limited outputs
y Output voltage can be isolated from control voltage
y Visual status indication
y Input Activation (Red)
y Control Voltage Present (Green)
y FAI Status (Red)
3.1 Electrical Ratings and Specifications
Manufactured By
AlarmSaf
65A Industrial Way
Wilmington, MA 01887
Model Numbers (Board-Level)
APD8, APD8F
Electrical Ratings
10 - 30V AC or DCInput Voltage
0.4A@12VDC/0.2A@24VDC maximum control current + 8A maximum output currentInput Power
8A maximum output current or rating of power source - whichever is lessTotal Output Current
APD8 - 1.6A maximum ; APD8F - 3.0A maximumZone Output Current
Dependant on input voltageZone Output Voltage
When installed in accordance with all standards listed in Section 2 of this document, the APD8(F)
provides power distribution for use with typical 12 or 24VDC devices used in the access control or
security industries such as, but not limited to, mag locks, door strikes, door holders, card readers,
keypads, etc.
3.3 Control Power and Lock Power Input Connections
The APD8(F) has two separate power inputs - a control power input, and a lock power input. Using
two separate power inputs allows total separation of lock and control power sources. Typically, this is
not required, and jumpers J1 and J2 should remain in. See Section 5.1 for more information on
configuring the APD8(F) for using separate power inputs.
Note - If J1 and J2 are out, BOTH power inputs must be wired to a power source. If J1 and J2 are in
place, either the control input or the power input may be used.
Note - If J1 and/or J2 are missing, the control power and lock power inputs can be connected
together with wire jumpers if isolated power sources are not required.
3.3.1 Control Power Input
If J1 and J2 are removed, this input provides power to the internal relays and related circuitry of
the APD8(F). The Control Power common is tied to the zone input common connections (unless
the zone input is set as an insolated input). If J1 and J2 are removed, the Control Power input or
Zone Inputs have NO connection to the Lock Power input or the Zone Outputs.
3.3.2 Lock Power Input
If J1 and J2 are removed, this input provides power to the zone outputs of the APD8(F). The Lock
Power common is tied to the zone output common connections. If J1 and J2 are removed, the
Lock Power input or Zone Outputs have NO connection to the Control Power input or Zone
Inputs.
Note - All wiring should be installed in accordance with (NEC760) NFPA70, NFPA72, and all local
code requirements. Power limited wiring requires that power limited and non-power limited wiring
remain physically separated. All power limited circuits must remain at least one quarter inch (¼”)
away from any non-power limited circuit wiring. All power limited circuit wiring must enter and exit
the cabinet through different knockouts than non-power limited wiring.
Each Zone Output has a corresponding Zone Input. Each Zone Input provides on/off control for its
associated output. Inputs are programmable for a variety of input types, including:
See Appendix A for specific information and example wiring diagrams for connecting the Zone
Inputs.
3.5 Zone Outputs
Each Zone Output of the APD8(F) can be used as a dry contact output, or as either a fail-safe or
fail-secure voltage output. Jumpers JP1 through JP8 select the type of output for each zone (see
Section 5.1 for jumper information). See Appendix B for more information on the Zone Outputs.
3.5.1 If the Zone Output is configured as a dry contact output, the following connections apply:
y NONormally Open relay contact
y CRelay Common
y NCNormally Closed relay contact
3.5.2 If the Zone Output is configured as a voltage output, the following connections apply:
y NOOutputs voltage when the zone relay is active
y CAlways outputs voltage, regardless of relay condition
y NCOutputs voltage when the zone relay is incative
y COMThis terminal is the DC common associated with the output
The APD8(F) has two FAI inputs, one which accepts a voltage input, and one that accepts a dry
contact input. Consult the appropriate section below for Terminal Connections for the type of
connection being used. See Appendix C for more information and specific wiring diagrams for the
FACP Input.
3.6.1 Voltage FACP Input
y FACP +FACP Input Positive
y FACP -FACP Input Common
3.6.2 Dry Contact FACP Input
y FACP T+One leg of the FACP Dry Contact Input (This terminal is positive with respect
to DC Common)
y FACP T-The other leg of the FACP Dry Contact Input
NOTE - If the APD8(F) is being used with a power supply which has its own FAI Input, the supply’s
FAI input may be used to control the APD8(F) board. See Appendix D for more information.
3.7 FACP AUX Output
The FACP AUX output is a relay output which follows the FACP Input state. Typically, this output is
used to activate the FACP Input on additional APD8(F) boards. See Appendix C and Appendix D for
wiring details.
The APD8F contains eight replacable fuses - one for each output zone. When replacing these fuses,
only the equivalent type and rating are to be used. The APD8F utilizes commonly available
automotive blade-type fuses (Type ATC). All fuses are rated at 3A (ATC-3).
Only the APD8F contains fuses. The APD8 uses output PTCs.
The APD8(F) line is available in either board-level or cabinet level versions.
NOTE - For UL compliance, if the APD8(F) is mounted in an unprotected area, a Tamper Switch must
be used.
4.1.1 Mounting a Cabinet-Level Version
If the APD8(F) is provided in a wall mount enclosure, use #8 hardware minimum in four locations.
Use an appropriate fastening system for the mounting surface.
Cabinet Mounting:
1. Mark and predrill two holes for the top keyhole mounting screws
2. Install two fasteners in the mounting wall leaving screwheads protruding approximately ¼
inch
3. Using the two upper keyholes, mount the cabinet over the two screws
4. Mark the two lower holes, remove the cabinet and drill the lower mounting holes
5. Mount the cabinet, install the remaining fasteners, and tighten all fasteners
BN
ABC
Figure 4.1.1
4.1.2 Mounting a Board-Level Version
Board-level units can be mounted either with the provided double-sided tape or by using nylon
standoffs and hardware (not included). Replacement boards for a listed unit must reuse the
existing hardware to maintain the listing.
4.2.1 Wire Routing
All wiring must be installed in accordance with NFPA70, NFPA72, and all local code requirements.
Power Limited wiring requires that power limited and non-power limited wiring remain physically
separated. Any power limited circuit entering the enclosure must remain at least one quarter inch
(¼”) away from any non-power limited circuit wiring. Any power limited circuit wiring must enter
and exit the enclosure through different knockouts than non-power limited circuit wiring. Wiring
within the enclosure should be routed around the perimeter of the cabinet. It should not be
routed across the circuit boards.
4.2.2 Control and Lock Power Inputs
Locate the power input terminal block (TB7) and remove the terminal block from the header.
Connect one or both power inputs as appropriate for the settings of J1 and J2 (See Sections 3.3
and 5.1). Power input wiring should be sized appropriately for the total current draw from the
outputs of the APD8(F). See Section 3.3 for details. Replace the terminal block on the header.
4.2.3 Zone Input Wiring
Locate the terminal block for the zone input to be wired and remove the terminal block from the
header. Connect the input in the manner appropriate for the type of input signal being applied.
See section 3.4 and Appendix A for more information. Replace the terminal block on the header.
4.2.4 Zone Output Wiring
Locate the terminal block for the zone output to be wired and remove the terminal block from the
header. Connect the output in the manner appropriate for the application. See section 3.5 and
Appendix B for more information. Zone Output wiring should be sized appropriately for the total
current draw from the output. Replace the terminal block on the header.
4.2.5 FACP Input
Locate the FACP Input terminal block (TB8) and remove the terminal block from the header.
Connect the proper input in the manner appropriate for the type of input signal being applied.
See Section 3.6 and Appendix C for more information. Replace the terminal block on the header.
4.2.6 FACP AUX Output
Locate the FACP AUX Output terminal block (TB7) and remove the terminal block from the
header. Connect the FACP AUX Output as needed. See Section 3.7, Appendix C, and Appendix
D for more information. Replace the terminal block on the header.
The APD8(F) gives the installer the ability to electrically isolate the Control power from the Zone
Output power. This can be helpful in installations where noise-sensitive devices would be affected by
lock noise.
To isolate the LOCK power input from the CTRL power input, jumpers J1 and J2 must BOTH be
removed.
Note - If J1 and J2 are out, BOTH power inputs must be wired to a power source. If J1 and J2 are in
place, either the control input or the power input may be used.
Note - If J1 and/or J2 are missing, the control power and lock power inputs can be connected
together with wire jumpers if power isolation is not required.
5.2 Zone Input Configuration Switch Settings
Each zone of the APD8(F) has a set of DIP switches associated with its input. These switches
configure the input for use with a variety of signal types, however three basic configurations will
cover a majority of applications. See Appendix A for information on configuring additional input
types.
Note - Only switches 1 through 6 are used for each input - switches 7 & 8 are unused.
Note - The factory configuration of these switches (Negative Trip Mode) should work for most
applications.
5.2.1 Negative Trip Mode
Negative Trip Mode will cover applications including Dry Contact (NO or NC) and Open Collector
(including Casi-Rusco). To set the APD8(F) for Negative Trip Mode, Switches 1, 2, and 3 should be
ON (Closed), and all other switches should be OFF (Open).
5.2.2 Positive Trip Mode
Positive Trip Mode covers applications where a positive voltage is applied to the input for
activation. To set the APD8(F) for Positive Trip Mode, Switches 4, 5, and 6 should be ON (Closed),
and all other switches should be OFF (Open).
5.2.3 External 12VDC Trip (Isolated)
External Trip Mode covers applications with a completely isolated 12V source as an activation
source. The source may or may not be common-grounded with the rest of the system. To set the
APD8(F) for External Trip Mode, Switches 2 and 5 should be ON (Closed), and all other switches
should be OFF (Open).
OFF (Open)OFF (Open)ON (Closed)3 (N)
OFF (Open)ON (Closed)OFF (Open)4 (P)
ON (Closed)ON (Closed)OFF (Open)5 (PI)
+IN 1-
N
NI
N
P
PI
P
OFF (Open)ON (Closed)OFF (Open)6 (P)
Table 5.2
5.3 Output Configuration Jumper Settings
Each Zone Output has a configuration jumper which must be set for one of three modes for proper
operation.
y ‘C’ Position - The output is ‘C’onstant, regardless of the FACP input. Only the Zone Input can
change the state of the output.
y ‘D’ Position - The output will ‘D’rop power when a valid FACP input is received, regardless of the
state of the Zone Input.
y ‘X’ Position - The output is set as a dry contact output.
OUTPUT ZONE
CONFIGURATION
S1
XDC
JP1
Figure 5.3
5.4 Visual Indicators
The APD8(F) contains ten visual status indicators as described below.
ConditionsColorDescriptionLED
Lights when the internal power source is presentGreenControl VoltageCV (D33)
Lights when there is no FACP input presentGreenFire OverrideFO (D1)
Each LED lights when its associated Zone Output relay is powered.RedZone Relay(D10-D17)
5.4.1 CV (D33)
This LED lights when the APD8(F)’s internal power source is operating properly.
5.3.2 FO (D1)
This LED illuminates there is not a valid FACP signal being received. This LED extinguishes when
an FACP signal is received and output power is dropped to zones set for ‘D’.
5.3.3 Zone Output Relay LEDs (D10-D17)
Each Zone Output relay has an associated LED which lights when the relay is activated.
Appendix A
Configuring The Zone Inputs For Any Application
Each zone of the APD8(F) has a set of DIP switches associated with its input. These switches configure the input for use
with a variety of signal types, including:
Note - Only switches one through 6 are used for each input - switches 7 & 8 are unused.
NO Dry
Contact
Positive
NO Dry
Contact
Negative
NC Dry
Contact
Positive
NC Dry
Contact
Negative
Non Isolated
Negative Trip
Non Isolated
Positive Trip
Isolated
Voltage Trip
Open
Collector
Input
On (Closed)Off (Open)Off (Open)On (Closed)On (Closed)Off (Open)On (Closed)Off (Open)Switch 1
On (Closed)On (Closed)Off (Open)On (Closed)On (Closed)Off (Open)On (Closed)Off (Open)Switch 2
On (Closed)Off (Open)Off (Open)On (Closed)On (Closed)Off (Open)On (Closed)Off (Open)Switch 3
Off (Open)Off (Open)On (Closed)Off (Open)Off (Open)On (Closed)Off (Open)On (Closed)Switch 4
Off (Open)On (Closed)On (Closed)Off (OpenOff (Open)On (Closed)Off (Open)On (Closed)Switch 5
Off (Open)Off (Open)On (Closed)Off (Open)Off (Open)On (Closed)Off (Open)On (Closed)Switch 6
y NO Dry Contact Positive - This configuration will activate the zone’s output relay when the normally open contact
connected to the input closes. The NO contact is in series with the positive leg of the internal zone output relay coil.
y NO Dry Contact Negative - This configuration operates the same as the NO Dry Contact Positive configuration,
except that the NO contact is in series with the ground side of the internal zone output relay coil. This is the most
common configuration.
y NC Dry Contact Positive - This configuration holds the zone output relay active. The zone output relay deactivates
when the NC contact opens. The NC contact is in series with the positive leg of the internal zone output relay coil.
y NC Dry Contact Negative - This configuration operates the same as the NC Dry Contact Positive configuration,
except that the NC contact is in series with the ground side of the internal zone output relay coil.
y Non-Isolated Negative Trip - The positive source for the zone output relay coil is provided internally. A DC
common connected to the input’s ‘-’ terminal will activate the zone output relay. No connection is required to the
input’s ‘+’ terminal. The DC common used to activate the zone must be common grounded with the control power
input’s DC common.
y Non-Isolated Positive Trip - The DC common for the zone output relay coil is provided internally. A positive 12VDC
voltage connected to the input’s ‘+’ terminal will activate the zone output relay. No connection is required to the
input’s ‘-’ terminal. The positive voltage used to activate the zone must be common grounded with the control
power input’s DC common. Do not use a 24V source to activate the input or damage to the zone output relay will
occur.
y Isolated Voltage Trip - Connection of a 12VDC source across the input’s ‘+’ and ‘-’ terminals will activate the zone
output relay. When used in this mode, the zone input is completely isolated from the control power input and the
lock power input. Do not use a 24V source to activate the input or damage to the zone output relay will occur.
y Open Collector Input - This configuration is identical to the “NO Dry Contact Negative configuration, except that
the dry contact is replaced with the open collector output.
The APD8(F)’s outputs can be used in a variety of configurations, allowing flexibility and compatability
with virtually any application. Each output can individually be set up for disconnect on FAI, no action
on FAI, or Dry Contact Output (no action on FAI) by setting the Zone Output Configuration jumpers
for each zone (See Section 5.3). In addition to the jumper settings, each output may be wired in a
variety of configurations to suit the required application.
y Dry Contact Output - ‘X’ - When the zone output configuration jumper is set in the ‘X’ position,
the zone output is disconnected from all voltage sources and acts as a dry contact output. The C,
NC, and NO terminals act as a normal relay which is controlled by the zone’s input terminals. The
terminal labelled ‘COM’ is connected internally to the DC common of the Lock Power Input.
When used as a dry contact output, the rating of the output is 3A.
Note - When configured as a dry contact output, the zone output protection (fuse / PTC) is not in
the output circuit.
Note - The FACP input has no effect on a dry contact output.
y Voltage Output - Constant - ‘C’ - When the zone output configuration jumper is set in the ‘C’
position, the zone output will supply the voltage applied to the Lock Power Input. Internally, the
Lock Input voltage is connected to the zone output relay’s C terminal. Depending on the state of
the zone output relay, the voltage is output via the NC or NO terminal as follows:
y NO - Voltage is output on this terminal when the zone output relay is activated
y C - Voltage is always present on this terminal, regardless of the state of the zone output
relay
y NC - Voltage is output on this terminal when the zone output relay is NOT active
y COM - This terminal is the DC common (‘-’)for the zone output. It is connected internally
to the Lock Input ‘-’ terminal.
Note - The FACP input has no effect on an output whose zone output configuration jumper is set
for ‘C’.
y Voltage Output - Disconnect - ‘D’ - When the zone output configuration jumper is set in the ‘D’
position, the zone output will function exactly the same as when it is set for ‘C’, with the
exception that power will be removed from the NO, C, and NC terminals when a valid input is
received at the FACP input.
Appendix C
Using The FACP Input and FACP AUX Output Terminals
The APD8(F) has two FACP inputs which can be used to drop power to selected outputs when activated. One of the
FACP inputs is for connection to a voltage source trip, while the other is for connection to a NO contact trip or open
collector trip. See Section 3.6 for more information. The FACP voltage input incorporates an on-board blocking diode for
connection to a polarity-reversing source.
The FACP AUX relay output follows the FACP input and can be used to activate additional APD8(F) FACP inputs, to latch
the FACP input on, or for other functions. See Section 3.7 and Appendix D for more information.
Isolated VoltageOpen CollectorNO Contact
T+ T-
-
+
T+ T-
-
+
T+T-
-
+
FACP
+VDC
T+ T-
-
+
FACP
SWITCHED +VDC
+VDC COM
-
+
-
+
FACP
T+ T-
T+ T-
Closure of the NO contact will activate
the FACP input.
Activation of the open collector output
will activate the FACP input.
Applying voltage in the polarity shown
will activate the FACP input.
Latching the FACP for Canadian Applications
FO
NO
NO
C
C
NC
FACP AUX
NC
FACP
+VDC
+VDC COM
T+ T-
-
+
NO C NC COM
T+ T-
-
+
FACP
COMNCCNONO C NC COM
OUT 5OUT 6OU T 7OUT 8
NO C NC COMCOMNCCNO
COMNCCNO
RESET
NO C NC COMCOMNCCNO
Activation of the FACP’s output causes the APD8(F)’s FACP voltage input to be activated. This causes the APD8(F)’s FACP
AUX relay to activate, which provides a closure across the APD8(F)’s FACP dry contact input, holding the APD8(F) in FACP
mode. Opening the reset contact will unlatch the FACP mode as long as the FACP’s output is deactivated.
Using a Beacon Power Supply’s FAI Input to activate the APD8(F)’s FACP Input
Beacon
24V
AC Power
12V
Accessory Board
Mounting Position
SysFlt Com
SysFlt NC
SysFlt NO
ACFlt NO
ACFlt NC
ACFlt Com
IN1A
IN1B
IN2A
IN2B
IN3A
IN3B
IN4A
IN4B
IN5A
IN5B
IN6A
IN6B
IN7A
IN7B
IN8A
IN8B
OUT1
OUT2OUT3 OUT4OUT5 OUT6 OUT7 OUT8
NO1C1NC1
COM1C2NC2
COM2
NO2
NO3C3NC3
COM3
NO4C4NC4
FACP
COM41+2-3+4-
NO5C5NC5
COM5
NO6C6NC6
ABC Connector (P2)
APD8(F)
COM6
NO7C7NC7
COM7
NO8C8NC8
FACP
AUX
CTRL+
CTRL-
LOCK+
LOCK-
COM8
Using a NO or NC contact to control a Maglock
Access Control Panel Outputs
NO
C
NC
NO
C
NC
IN1A
IN1B
IN2A
IN2B
IN3A
IN3B
IN4A
IN4B
OUT2OUT3 OUT4OUT5 OUT6 OUT7 OUT8
OUT1
NO1C1NC1
COM1C2NC2
COM2
NO2
-
+
-
+
NO3C3NC3
COM3
NO4C4NC4
IN5A
IN5B
IN6A
IN6B
COM41+2-3+4-
IN7A
FACP
IN7B
IN8A
IN8B
NO5C5NC5
N/A
NO
NC
Batt-
C
COM5
DC3-
Batt+
NO6C6NC6
DC3+
COM6
FAI V-
FAI L- In
FAI L- Out
FAI L+ Out
FAI L+ In
FAI V+
DC2-
DC2+
APD8(F)
NO7C7NC7
To provide greater flexibility of options for
NO Contact
FAI trip options, the APD8(F) can be slaved
to a Beacon Power Supply’s FAI action.
Any acceptable method of FAI connection
can be used on the Beacon power supply.
Consult the Beacon Power Supply’s
installation manual for acceptable
DC1-
DC1+
connection methods.
Activating the FAI terminals of the Beacon
power supply causes the Beacon’s DC3
output to activate, which in turn activates
the APD8(F)’s FACP voltage input.
The APD8(F)’s FACP AUX terminals may be
used to daisychain to the next APD8(F), if
used.
Zone 1 is configured to maintain power to a
maglock. Release is by closure of the access
control panel’s NO relay contact, activating
CTRL+
LOCK+
FACP
AUX
CTRL-
LOCK-
N/A
NO
NC
the Zone Output relay.
Zone 2 is also configured to maintain power
to a maglock. Release is by the opening of
C
the access control panel’s NC relay contact,
deactivating the Zone Output relay.
COM7
NO8C8NC8
COM8
Setting the Zone Output Configuration
jumper to the ‘D’ position will also allow the
FACP input to release the outputs when
used for egress.
Zone 2 is connected to release a doorstrike
when an egress PIR sees a valid target.
Zone 1 provides constant power to the
egress PIR through the ‘C’ terminal. The
Zone Input is set for NC Dry Contact
Negative (See Appendix A) and the Zone
Output Configuration jumper is set for ‘C’,
NO
C
NC
since fire override is not required for a
failsafe doorstrike.
Output 7 is used to control a doorstrike
powered from an external power source on
command by the keypad connected to Zone
Input 7 and powered by Zone Output 8.
The Zone Output Configuration jumper is
set for ‘X’, for a dry contact output.
In this application, FAI latch release is
provided via Zone Input 8. Configuring the
Fire Override in this manner is preferred in
installations where the reset switch is
located far away from the APD8(F) board.
This configuration also allows any type of
input source to reset the FAI latch,
including, NC contact, NO contact, open
collector, and voltage source.
The zone input should be configured along
with the zone output for the type of input
being used (See Appendix A).
“Daisy-Chaining” FACP Inputs Between Multiple APD8(F) boards
U1APD8(F)
IN1A
IN1B
IN2A
IN2B
IN3A
IN3B
IN4A
IN4B
OUT1
OUT2OUT3 OUT4OUT5 OUT6OUT7 OUT8
NO1C1NC1
COM1C2NC2
COM2
NO2
NO3C3NC3
COM3
NO4C4NC4
IN5A
IN5B
IN6A
IN6B
IN7A
IN7B
FACP
COM4
1+2-3+4-NO5C5NC5
FAI
Activation
IN8A
IN8B
COM5
NO6C6NC6
COM6
NO7C7NC7
COM7
NO8C8NC8
CTRL+
LOCK+
LOCK-
FACP
AUX
COM8
CTRL-
N/A
NO
NC
C
Activating the FACP input of the top
APD8(F) transfers its FACP AUX output.
These contacts then activate the FACP dry
contact input of the bottom APD8(F).
Any valid FACP Input activation method can
be used on the top APD8(F). See Appendix
C for more information.
IN1A
IN1B
IN2A
IN2B
IN3A
IN3B
IN4A
IN4B
OUT1
OUT2OUT3 OUT4OUT5 OUT6OUT7 OUT8
NO1C1NC1
COM1C2NC2
COM2
NO2
NO3C3NC3
COM3
NO4C4NC4
IN5A
IN5B
IN6A
IN6B
IN7A
IN7B
FACP
COM4
1+2-3+4-NO5C5NC5
IN8A
IN8B
Powering and Controlling AC Devices
Access Control Panel Outputs
NO
C
NC
NO
C
NC
IN1A
IN1B
IN2A
IN2B
IN3A
IN3B
IN4A
OUT1
NO1C1NC1
~
AC Strike
IN4B
OUT2OUT3 OUT4OUT5 OUT6OUT7 OUT8
COM1C2NC2
COM2
NO2
~
AC Strike
NO3C3NC3
~
~
COM3
NO4C4NC4
IN5A
IN5B
IN6A
IN6B
COM41+2-3+4-
IN7A
IN7B
FACP
IN8A
IN8B
U2APD8(F)
COM5
U1APD8(F)
NO5C5NC5
COM5
NO6C6NC6
NO6C6NC6
COM6
NO7C7NC7
COM7
NO8C8NC8
COM6
NO7C7NC7
COM7
NO8C8NC8
120VAC12VAC
CTRL+
CTRL-
LOCK+
LOCK-
N/A
NO
FACP
C
AUX
NC
COM8
CTRL+
CTRL-
LOCK+
LOCK-
N/A
NO
FACP
C
AUX
NC
COM8
48
15
TRANSFORMER
If there are more than two APD8(F) boards
which need to activate on FAI, the FACP
AUX output of the second APD8(F) board
would be connected to the next APD8(F)’s
FACP dry contact input. This can be
repeated for as many APD8(F) boards as
necessary.
A little known application for the APD8(F) is
for powering and controlling AC devices.
This application shows an APD8(F)
controlling two AC strikes in an apartment
complex. Zone 1’s input is configured to
accept a NC contact, while Zone 2’s input is
configured for a NO contact. Note the
different output wiring for each application.
If the strikes are not failsafe, the FACP input
may be used with a zone output
configuration jumper setting of ‘D’.
Also note that the APD8(F) has an internal
rectifier and regulator for it’s own relay
power, eliminating the need for a separate
DC power source for powering the APD8(F).