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Trademarks and patentsTrade names used in this document may be trademarks or registered trademarks of the
Intended useUse this product only for the purpose it was designed for; refer to the data sheet and user
FCC complianceThis equipment has been tested and found to comply with the limits for a Class A digital
manufacturers or vendors of the respective products.
documentation. For the latest product information, contact your local supplier or visit us
online at www.UTCFireandSecurity.com.
device, pursuant to part 15 of the FCC Rules. These limits are designed to provide
reasonable protection against harmful interference when the equipment is operated in a
commercial environment. This equipment generates, uses, and can radiate radio frequency
energy and, if not installed and used in accordance with the instruction manual, may cause
harmful interference to radio communications.
You are cautioned that any changes or modifications not expressly approved by the party
responsible for compliance could void the user's authority to operate the equipment.
2002/96/EC (WEEE directive): Products marked with this symbol cannot be disposed of as
unsorted municipal waste in the European Union. For proper recycling, return this product
to your local supplier upon the purchase of equivalent new equipment, or dispose of it at
designated collection points. For more information see: www.recyclethis.info.
2006/66/EC (battery directive): This product contains a battery that cannot be disposed of
as unsorted municipal waste in the European Union. See the product documentation for
specific battery information. The battery is marked with this symbol, which may include
lettering to indicate cadmium (Cd), lead (Pb), or mercury (Hg). For proper recycling, return
the battery to your supplier or to a designated collection point. For more information see:
www.recyclethis.info.
Figure 6.Wiring AC power through the terminal block ......................................................................................................................20
Figure 7.Fuse location on the Power/Communications board .....................................................................................................21
Figure 8.Wiring diagram for the battery backup, AC power fail, and low battery................................................................23
Figure 9.Wiring host computer to first M3000.......................................................................................................................................27
Figure 10. Wiring host computer to modem or serial printer.............................................................................................................28
Figure 11. Wiring modem to M3000, M/5 or serial printer...................................................................................................................29
Figure 12. Wiring upstream (toward the host) using RS-232 .............................................................................................................30
Figure 13. Wiring downstream (away from the host) using RS-232 ..............................................................................................31
Figure 14. Wiring upstream (toward the host) using RS-422..............................................................................................................32
Figure 15. Wiring downstream (away from the host) using RS-422................................................................................................33
Figure 16. PXNplus CPU board layout............................................................................................................................................................37
Figure 21. Wiring 2RP to Wiegand, Strobed, F/2F, and supervised F/2F readers......................................................................55
Figure 22. Wiring 2RP exit request and door alarm contact...............................................................................................................56
Figure 23. Wiring 2RP door strike - internal relay.....................................................................................................................................57
Figure 24. Wiring 2RP door strike - external relay...................................................................................................................................58
Figure 25. Wiring 2RP auxiliary DO relay......................................................................................................................................................59
Figure 18. Wiring 2SRP to single color LED reader..................................................................................................................................70
Figure 19. Wiring 2SRP door alarm contact and exit request ............................................................................................................72
Figure 20. Wiring 2SRP door strike - internal relay..................................................................................................................................73
Figure 21. Wiring 2SRP door strike - external relay.................................................................................................................................74
Figure 22. Wiring 2SRP auxiliary DO relay...................................................................................................................................................75
Figure 32. Wiring DI point....................................................................................................................................................................................89
Figure 36. Wiring output device to 16DOR board....................................................................................................................................94
Figure 37. Connecting directly using crossover cable ...........................................................................................................................98
Figure 38. Connecting through network hub.............................................................................................................................................99
Figure 39. Saving changes in the Integrated Configuration Tool ..................................................................................................103
Figure 40. Host/Connection type form.......................................................................................................................................................104
Figure 41. Controller Information form......................................................................................................................................................105
vii
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Installation Manual
Figure 42. Controller Parameters/Network Configuration form ....................................................................................................107
Figure 43. Network Configuration form — Dual NIC detected. .......................................................................................................109
Figure 72. Credential Format tab..................................................................................................................................................................141
Figure 73. Typical installation using shielded cable/drain wire - outside and inside the enclosure.............................144
The M3000 is a user-configurable controller enclosure for use with the Picture Perfect, Secure Perfect, and
Facility Commander Wnx (FCWnx) access control and alarm management software platforms. The M3000
provides distributed processing for the interface of access control readers, keypads, alarm inputs and outputs
back to a host system computer. Distributed processing from the PXNplus CPU board within the M3000
enclosure allows the controller to operate independent of the host system computer with the majority of access
control and alarm monitoring decisions made locally at the controller.
The PXNplus CPU employs an embedded Linux operating system, with a full TCP/IP stack. This operating
system permits the PXNplus to be network configured for DHCP/DNS or fixed (static) IP addressing. The
PXNplus configuration is set by configuring web pages that are served by the PXNplus internal web server.
Diagnostics and log files are also served up using web pages from the PXNplus CPU. The PXNplus CPU
supports persistent database storage. When the PXNplus is connected to a host, information about readers,
alarms, outputs, schedules, and badges are automatically downloaded to the CPU. The PXNplus stores this
information in nonvolatile memory so, in case of a power failure and a loss of communications to the host, the
PXNplus CPU will return to operation as previously configured when the power is restored to the CPU. When
the host becomes available, the PXNplus will automatically upload stored transactions and refresh its database.
The M3000 enclosure has five slots for controller boards. All boards plug into the controller backplane making
field configuration and maintenance easy and economical. Screw terminal connector plugs for all wire
connections eliminate field maintenance wiring errors. The M3000 enclosure can be wall mounted or rack
mounted. The optional M3000 rack mounting kit allows the M3000 to mount directly to a standard 19” EIA
rack. The M3000 will occupy 9U within a rack.
The M3000 consists of the following components:
•Enclosure (all steel cabinet with key lock and tamper-switch-protected door)
•PXNplus CPU board for Picture Perfect (part number 521216001)
•PXNplus CPU board for Facility Commander Wnx (part number 5521216002)
Note: Part numbers for M3000 assemblies that include a PXNplus CPU Board are M3PPMPP (for Picture Perfect)
and M3PPMSP (for Secure Perfect and FCWnx).
Options for the M3000 include:
•Reader Processing board: 2RP, 2SRP, or 8RP
•Digital Input (DI) board: 20DI
•Digital Output (DO) board: 16DO or 16DOR
The items received in your shipment depend on the items ordered. Inspect the package and contents for visible
damage. If any components are damaged or missing, do not use the unit; contact the supplier immediately. If
you need to return the unit, you must ship it in the original box.
Page 13
Chapter 1
Introduction
Specifications
For UL-compliant installations, refer to UL compliance on page 147.
Enclosure specifications
Table 1. Enclosure specifications
Enclosure specifications
Physical dimensions17 inches high x 15.6 inches wide x 6.2 inches deep
431 mm high x 396 mm wide x 158 mm deep
Operating environment+35F to +122F (+2C to +50C)
Humidity range5% to 95% non-condensing
Thermal air coolingAt least 6 inches (15.2cm) of clearance is required on all four sides of the controller.
Power (Door strikes powered separately)
Controller powered by110/230 VAC to 12 VDC 6 Amp power supply is included. 12 AH gel-cell battery for battery
backup is included.
3
Controller power
requirements
Cabling
Host to controllerNetwork: Category (Cat) 5 cable
Controller to readersRefer to specific reader manual for more details.
Controller to DIs or DOsUse any cable with the desired number of individually shielded pairs.
Provided power supply meets all power requirements for this device.
Facility Commander Wnx 7.x or later/Secure Perfect 6.x or later
Badge capacity100,000
Offline badge history capacity8,192
Offline alarm history capacity8,192
Picture Perfect 2.x
Badge capacity200,000
Offline badge history capacity5,000
*
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M3000
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Installation Manual
PXNplus CPU board
Offline alarm history capacity2,000
1
Picture Perfect 3.x, 2.x
Badge capacity145,000
Offline badge history capacity5,000
1.This is a default allocation. The capacity can be re-allocated using the Integrated Configuration Tool.
1
Minimum supported board levels for the PXNplus CPU board
If the controller board contains a 4 or 5 digit numeric date code, it can be used with the PXNplus CPU board. If
the controller board shows a 2-digit alpha date code, refer to the table below for the minimum level required.
Table 3. Minimum board level required for use with the PXNplus CPU board
BoardPart numberDate code
1
Power/Communications110064001IZ September 1999
2RP110063001DYApril 1998
2SRP110101501No minimum level required
8RP110100501FYJune 1998
20DI110072003IXSeptember 1997
16DO110071001GZJuly 1999
16DOR110078001No minimum level required
Backplane110061001Revision C
1.The first letter identifies the month where A=January, B=February, and so on. The second letter identifies the year where Z=1999,
Y=1998, and the sequence continues with each previous letter representing the previous year.
Page 17
Chapter 2 Installation planning and
mounting
This chapter provides instructions for planning your installation and mounting
your M3000.
The following is a basic outline for installing and setting up your M3000 system. Some steps may have been
done for you depending on what you ordered. Some steps are optional, depending on the additional equipment
you plan to use. These steps are noted.
CAUTION: Do not apply power to any component until the installation is complete. Damage to components may
occur if power is incorrectly applied.
1. Determine the cable clamps needed and obtain them prior to starting the installation.
During the installation, remember to:
•Label all connections/cables for ease of maintenance.
•Leave enough slack in the wiring so the cables can be “dressed.” This minimizes interference
during board removal or replacement.
2. Unpack your system. See Product overview on page 2.
3. Mount the enclosure. See Mounting on page 11.
4. Connect AC power to the power supply. See Connecting the AC input power to the M3000 on page 19.
5. Mount and install the battery backup. See Installing the battery backup, AC fail, and low battery on
page 22.
6. Wire up the Power/Communications board. Be sure to configure and verify the switch settings. Refer
to Chapter 3, Power/Communications board on page 17.
7. If using networked controllers, verify that your network is up and running.
8. Install and wire up the PXNplus CPU board. Be sure to configure and verify the jumpers. If this is a
network controller, plug in the network cable. Refer to Chapter 4, PXNplus CPU board on page 35.
9. Install the reader board(s) into the enclosure and wire up the readers to the controller. Be sure to
configure and verify the switch settings, jumpers, and/or resistor packs. Refer to Chapter 5, Reader
processing boards on page 45.
10. If using digital inputs (DIs), insert the DI board into the enclosure and wire the DIs to the board. Be
sure to configure and verify the switch settings. See 20DI board on page 86.
11. If using digital outputs (DOs), insert the DO board into the enclosure and wire the DOs to the board.
Be sure to configure and verify the switch settings. See 16DO and 16DOR boards on page 90.
12. Test the wiring before you apply power. Refer to Testing on page 96.
13. Configure your controller using the Integrated Configuration Tool. Refer to Chapter 8, Controller
firmware tools on page 97.
Page 19
Installation planning and mounting
Chapter 2
Safety
Radio interference
Note: This is an FCC Class A product. In a domestic environment, this product may cause radio interference, in which
case the user may be required to take adequate measures.
Electrostatic Discharge (ESD) precaution
WARNING: Circuit board components are vulnerable to damage by electrostatic discharge (ESD). ESD can
cause immediate or subtle damage to sensitive electronic parts. An electrostatic charge can
build up on the human body and then discharge when you touch a board. A discharge can be
produced when walking across a carpet and touching a board, for example. Before handling
any board, make sure you dissipate your body’s charge by touching ground. This discharges
any static electricity build-up.
9
General installation rules
CAUTION: This equipment is to be installed, maintained and serviced by “authorized service persons only.”
The authorized installation contractor should comply with the following rules:
•Neatly label cables at both ends.
(For example, the label should include: Controller Address Number/Device or Reader Number
•Use individually shielded pairs of cables only. All wiring must comply with local, state, and federal
electrical codes and fire codes.
•Obey all national, state, and local electrical and safety codes.
•Obtain any required permits and/or inspections. Contact the local fire marshal for assistance if
necessary.
•Safety of customer personnel is the primary consideration of the installation.
•Neatly dress and tie or lace all wiring in a professional manner.
•Gather together and tape all unused conductors in multiple conductor cables.
•Shield all cables and terminate properly.
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M3000
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Installation Manual
Observing noise prevention procedures
Signal transmission
•Where practical, keep cables well separated from each other. Separate power cables from signal cables.
•Keep the break-out at the ends of signal cables as short as possible.
•Ground all shield drain wire(s) at the M3000 controller using the grounding studs provided inside the
cabinet enclosure.
•For communication cables between controllers, ground shield to the upstream controller only.
CAUTION: Do not ground both cable ends.
Cable routing
Keep all cabling at least one foot (30.5 cm) away from any power line or other AC voltage source.
Exercise caution when locating cables and M3000 components near any other equipment that may cause
electrical interference (noise). Examples of electrical and electro-magnetic noise sources are:
•Fluorescent lighting and neon fixtures.
•Power distribution panels, including wiring, transformers, generators, and alternators.
•Motors that drive machinery, such as air conditioners, elevators, escalators, large blowers, and
machine tools. Electromagnetic equipment such as degaussers, magnetic chucks, etc. Control
equipment (relays) for machinery and other switching devices that carry or switch large currents.
•Radio and television receivers and transmitters, signal generators and intercom systems, radar
transmitting equipment.
•Arc welders, electrodischarge machiner,y and related equipment.
•RF induction heaters.
Cable length
•Minimize long parallel cable runs since they increase the likelihood of interference between signal
cables and electrical interference sources.
•Avoid excess cable length between the M3000 and optional equipment, such as readers and digital
outputs, to reduce signal degradation due to external effects.
Page 21
Installation planning and mounting
Mounting
Be sure to read the mounting and handling guidelines below before beginning to mount the controller.
Mounting and handling guidelines
Comply with the following guidelines:
•Locate the host computer and the M3000 controller in areas secure from any disruption to data
communications or tampering.
•Clean and clear all mounting areas of corrosive gases and airborne metallic particles. Avoid installing
near photocopiers due to contamination from toner particles.
•Protect the M3000 from hazardous (high) voltages.
•Mount the M3000 on a vertical surface with at least six inches (15.2 centimeters) clearance on all four
sides to support thermal air cooling.
•Locate the M3000 in a place that provides a dedicated AC earth ground. The M3000 must be earth
grounded.
•Keep interior and exterior housing of all M3000 enclosures and other components free of wire
remnants.
•Avoid temperatures outside the range specified for the M3000 operating environment. Do not leave
boards or other components in direct sunlight.
•To avoid mechanical damage, do not drop or stack boards.
•Do not subject printed circuit boards to electrostatic discharge.
Chapter 2
11
Mounting instructions
The enclosure can be mounted in one of two ways
•Directly to the wall, or
•Into a standard Electronics Industries Alliance (EIA), 19-inch open frame IT Rack.
Wall mounting
Mount the controller enclosure using the following steps and referring to Figure 1.
CAUTION: Do not apply power to any component during installation. Damage to components may occur if power
is incorrectly applied.
1. Remove the packing material from the enclosure.
2. Using the template provided, mark and drill four mounting holes.
3. Using customer furnished 1/4-in. (6 mm) threaded lag bolts or equivalent and washers, secure the
enclosure to the wall.
4. If required, install cable conduit to the M3000 enclosure knockout holes.
5. The enclosure has knockout holes on the sides, bottom, and back; the cable is pulled through these
holes. To open the holes, strike the knockouts from the outside of the enclosure.
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M3000
12
Installation Manual
6. Fit and tighten a strain relief clamp in each knockout hole to be used.
CAUTION: The M3000 must be earth grounded.
7. Find the nearest earth ground (such as an electrical box or ground bus). Run wire from the M3000
enclosure ground terminal (top left of enclosure) to the earth ground point. Use wire size in accordance
with local and national electrical codes.
All cables connected to the M3000 must be shielded with the shield terminated as shown here.
Outside the enclosure
Inside the enclosure
Figure 2. Typical installation using shielded cable/drain wire - outside and inside the enclosure
Installation planning and mounting
Chapter 2
13
Page 24
M3000
14
Installation Manual
8. Use the #8-32 SEMS screw and #8 flat washer provided to secure the ground lug.
Figure 3. Earth Ground Connection
Note: The Power/Communications board must be in the far right slot and the CPU board must be in the second right
slot next to the Power/Communications board. See Figure 75 on page 145 for details.
Page 25
Installation planning and mounting
Rack mounting
The rack mount enclosure is 19-inch, EIA compatible with the optional rack mount kit.
CAUTION: Do not apply power to any component during installation. Damage to components may occur.
Mount the controller enclosure using the following steps and Figure 4 on page 16 for reference.
1. Remove the packing material from the enclosure.
2. Use the six #12-24 screws provided to secure the brackets to the enclosure.
3. Secure the enclosure to the rack. This hardware is not supplied; select hardware sized to suit your rack
requirements. Sizes #10-32, #12-24, M5 or M6 screws are common rack mount hardware.
4. Install cable conduit to the M3000 enclosure knockout holes, if required.
The enclosure has knockout holes on the sides, bottom, and back; pull cable through these holes.
To open the holes, strike the knockouts from outside of the enclosure.
5. Fit and tighten approved strain relief clamp in each knockout hole to be used.
Chapter 2
15
6. Find the nearest earth ground (such as, electrical box or ground bus). Run wire from the M3000
enclosure ground terminal (enclosure bottom left) to earth ground point. Use wire size in accordance
with local and national electrical codes. All cables connected to the M3000 must be shielded with the
shield terminated. (See Figure 2 on page 13.)
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M3000
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Installation Manual
Figure 4. M3000 controller - rack mounting
CAUTION: The M3000 must be earth grounded.
Note: When installing boards, the Power/Communications board must be in the far right slot and the CPU board must
be in the second right slot next to the Power/Communications board. See Figure 75 on page 145.
Page 27
Chapter 3 Power/Communications board
This chapter provides information about and instructions for using the Power/
Communications controller board.
The Power/Communications board manages the power and controls the communications for the controller. The
recommended communication method is by Ethernet.
Figure 5. Power/Communications board layout
Page 29
Power/Communications board
Chapter 3
Power setup
This section describes how to connect AC power to the M3000
Connecting the AC input power to the M3000
Note: 1. A readily accessible disconnect device shall be incorporated in the building installation wiring.
2. The maximum rated overcurrent protection for this device is 20 A in North America, and 16 A in Europe,
Australia, and New Zealand.
The power supply included is a 12 VDC power supply with a 6 amp current rating. This power supply is
installed in the enclosure and wired to the Power/Communications board for you.
WARNING: Make sure electrical power is removed prior to making connections to the controller. Personal
injury or death can occur if electrical power is not removed.
To apply AC power to the power supply:
19
1. Follow all state, local, and national electrical codes.
2. Using the knockouts provided in the sides and back of the enclosure, connect AC power and earth
ground to the terminals provided inside the enclosure. See Figure 6, Wiring AC power through the
terminal block on page 20.
Controller earth grounding (AC grounding) is a critical element for proper operation.
To test the AC power ground:
1. Using an ohmmeter, measure the resistance between the M3000 ground stud and a known good earth
ground (metal water pipe or building structural steel frame).
2. A resistance value greater than 50 ohms indicates poor AC ground.
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M3000
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Installation Manual
Figure 6. Wiring AC power through the terminal block
CAUTION: •Failure to connect the AC power and earth ground to the terminal blocks provided will result in
damage to the controller.
•Use a properly sized disconnect device.
•Replace fuse with the same type and rating as shown in Figure 7 on page 21.
Page 31
Figure 7. Fuse location on the Power/Communications board
Power/Communications board
Chapter 3
21
CAUTION: Good earth ground must be made before completing installation.
Page 32
M3000
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Installation Manual
Installing the battery backup, AC fail, and low battery
The battery backup acts as a temporary power supply to the M3000 when AC power is lost. The battery
included with the enclosure is 12 VDC with a 12 AH current rating. It will need to be wired to the power
supply. Refer to Chapter 10, Troubleshooting, maintenance & support on page 151 for battery removal and
installation procedures.
CAUTION: Make sure AC input and battery backup power is disconnected prior to installing CPU, reader, DI, and
DO boards.
To install the battery
1. Unpack the battery from the shipping box.
2. Place the battery inside the enclosure below the power supply as shown in Figure 6 on page 20.
3. Remove the protective cover from the positive terminal of the battery.
4. Connect the battery leads from the power supply: Black to negative terminal and Red to positive
terminal of the battery. Figure 8 shows the wiring between the battery and the power supply.
CAUTION: Replace battery with lead acid sealed 12 AH only.
Wiring AC power fail
The power supply includes a relay that monitors and signals the loss of AC power. The power fail line is low
during normal operation, and goes high when AC input power is lost.
If this option is used, connect the power supply AC power fail NC and COM terminals to the Power/
Communications Board connector J6, pin 6 (ground) and pin 8 (AC power fail input). See Figure 8 on page 23.
Wiring low battery detect
The power supply includes a low battery relay to detect and signal a low battery condition (11 VDC or less).
If this option is used, connect the power supply low battery NC and NO terminals to the 20DI Board connector
J2, pins 1 and 2. Install 2K resistors at power supply terminals. See Figure 8 on page 23.
Page 33
Figure 8. Wiring diagram for the battery backup, AC power fail, and low battery
Power/Communications board
Chapter 3
23
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M3000
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Installation Manual
Serial communications setup
DIP switch settings
The recommended communication method is by Ethernet. If using Ethernet and not using a downstream
controller, this section does not apply and you can skip to the next chapter.
Note: Set both SW1-1 and SW1-2 to ON.
Table 4. Power/Communications board - controller port baud rate
Controller port
Baud rate
2400ON
4800ONON
9600ONONONON
19200
= OFF
SW1-3SW1-4SW1-5SW1-6
ON
Connector pinouts
The Power/Communications board contains five connectors which are detailed in the following tables.
Table 5. J2 - Controller port (RS-422)
Connector J2
PinSignal name
1RX+Receive data from upstream device (controller, host, or modem)
2RX-
3RX2+Receive secondary data from downstream controller
4RX2-
5RX+Receive data from downstream controller
6RX-
7TX+Transmit data to upstream device (controller, host, or modem)
8TX-
9TX+Transmit data to downstream controller
10TX-
Page 35
Table 6. J3 - Primary port (RS-232)
Connector J3
PinSignal name
1CTS (jumped to pin 9)
2(jumped to pin 7)
3Ground
4+5 VDC
5Not used
6Transmit (TX) data
7(jumped to pin 2)
8Receive (RX) data
9RTS (jumped to pin 1)
Table 7. J4 - Secondary port (RS-232)
Power/Communications board
Chapter 3
25
Connector J4
PinSignal name
1CTS (jumped to pin 9)
2(jumped to pin 7)
3Ground
4+5 VDC
5Not used
6Transmit (TX) data
7(jumped to pin 2)
8Receive (RX) data
9RTS (jumped to pin 1)
Table 8. J5 - Auxiliary port (RS-232)
Connector J5
PinSignal name
1CTS (jumped to pin 9)
2(jumped to pin 7)
3Ground
4+5 VDC
5Not used
6Transmit (TX) data
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M3000
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Installation Manual
Table 8. J5 - Auxiliary port (RS-232)
Connector J5
PinSignal name
7(jumped to pin 2)
8Receive (RX) data
9RTS (jumped to pin 1)
Table 9. J6 - Power input port
Connector J6
PinSignal name
1+12 VDC
2Ground
3+12 VDC
4Ground
5+12 VDC
6Ground
7Controller cabinet tamper input
8AC power fail input
Page 37
Host computer wiring
Figure 9. Wiring host computer to first M3000
Power/Communications board
Chapter 3
27
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M3000
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Installation Manual
Note: We recommend that you use a DB9F PC to DB9F M3000 or M/5 serial cable (P/N 320038001, not included) to
connect the host or modem to Primary port J8.
Figure 10.Wiring host computer to modem or serial printer
Note: If using a Digi board, use the same pinouts listed in the DB25F column.
Page 39
Figure 11.Wiring modem to M3000, M/5 or serial printer
Power/Communications board
Chapter 3
29
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M3000
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Installation Manual
Controller wiring
After you connect the first controller to the host, you can continue to connect (daisy chain) additional
controllers together using the RS-232 or RS-422 port. Maximum cabling distance is 100 feet (30.48 m) for RS232 and 2,000 feet (609.6 m) for RS-422. Detailed instructions on connecting controllers follow.
RS-232 connection
The Power/Communications board RS-232 ports J3 and J4 can be used to connect controllers together.
Connect the host, modem, or upstream controller to port J3. Connect downstream controller to port J4.
Figure 12.Wiring upstream (toward the host) using RS-232
Page 41
Figure 13.Wiring downstream (away from the host) using RS-232
Power/Communications board
Chapter 3
31
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M3000
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Installation Manual
RS-422 connection
The Power/Communications board RS-422 port J2 can be used to connect controllers together.
Figure 14.Wiring upstream (toward the host) using RS-422
Page 43
Figure 15.Wiring downstream (away from the host) using RS-422
Power/Communications board
Chapter 3
33
Shield wire grounding
To ground the shield wire:
1. Connect the communications cable shield to the ground nut adjacent to the cable entrance knockout of
the cabinet enclosure. For more details, see Figure 73, Typical installation using shielded cable/drain
wire - outside and inside the enclosure on page 144.
2. For host-to-controller connection, ground shield wire at controller.
For controller-to-controller connection, ground shield wire at upstream controller.
CAUTION: Do not ground both cable ends.
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M3000
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Installation Manual
Wiring the auxilliary port
The auxilliary (Aux) port J5 is used to connect the PXNplus console or Model 351 Time Display. Refer to the
appropriate section in this manual or device manual for connection information.
LED indicators on the Power/Communications board
The Power/Communications board has eight LEDs.
Table 10. LEDs function
LED numberStateDescription
DS1FlashingData received from upstream host/controller connected to
primary/controller port (Receive RX).
DS2FlashingData transmitted to upstream host/controller connected to
primary/controller port (Transmit TX).
DS3FlashingData received from downstream controller connected to
secondary/controller port.
DS4FlashingData transmitted to downstream controller connected to
secondary/controller port.
DS5FlashingData received from device connected to auxiliary port.
DS6FlashingData transmitted to device connected to auxiliary port.
DS7OnIndicates +5 VDC is present.
DS8OnIndicates +12 VDC is present.
Page 45
Chapter 4 PXNplus CPU board
This chapter provides information about and instructions for using the PXNplus
CPU controller board.
The PXNplus CPU board provides direct-connect, dial-up, and network capabilities in one board.
The following are some product highlights:
•Supports Ethernet networks.
•Supports the following network protocols: DHCP, TCP/IP, UDP, DNS, and DDNS.
•Supports an optional, integrated modem board for dial-up connection or fallback dial-up.
•Provides nonvolatile storage referred to as “persistence mode of operation”. This means a faster reset
recovery and allows for host-less operations.
•Utilizes a 32-bit platform which provides better response times and higher capacity.
•Allows for remote diagnostics.
•Supports up to seven downstream controllers using RS-232 or RS-422 serial connection and up to 64
readers.
•Provides a browser-based configuration tool. Refer to Chapter 8, Controller firmware tools on
page 97.
•Works with either:
•Picture Perfect 2.0 or later,
•Secure Perfect 6.1.1 Revision E or later, or
•FCWnx 7.0 or later.
Refer to the appropriate User Manual for configuration of this board within the software.
•Provides a tunable offline history buffer.
A layout of the PXNplus CPU board is shown on the following page.
Page 47
Board layout
Figure 16.PXNplus CPU board layout
PXNplus CPU board
Chapter 4
37
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M3000
38
Installation Manual
Pins and jumpers
General purpose pins
Table 11. General purpose pins
PinsShorting these pins...
JP2
Boot Mode
JP3
Shutdown Request
JP4
Restore Defaults
JP6
Hardware Reset
This function is for manufacturing and catastrophic failure recovery only! Returns the
board to boot maintenance mode which allows for burning in of a new boot image.
Stops the application and puts the board into maintenance mode which allows the board to
be removed. Since the PXNplus board runs an operating system just like a computer, it
must be shut down correctly. Shorting JP3 shuts down the operating system/application of
the board. JP3 is like using the “Shut down” feature on your computer.
To properly restart the board use both JP3 and JP6. First, short JP3 to stop the
application, then short JP6 to restart (reset) the board.
Returns the configuration to the factory defaults:
• Primary Connection Type: Ethernet
• IP Address: 192.168.6.6
• Mask: 255.255.255.0
• Gateway: 192.168.6.1
Short JP4 for a minimum of five seconds.
Reboots the CPU board without properly shutting down the application. The PXNplus board
runs an operating system just like a computer. Shorting JP6 is like pressing the Off button
on your computer without using the “Shut down” feature. The controller shuts down but not
in a clean way.
To properly restart the board use both JP3 and JP6. First, short JP3 to stop the
application, then short JP6 to restart (reset) the board.
CAUTION: Earlier lines of controllers sometimes required the “wrap plug” to force the CPU into maintenance
mode. DO NOT use the wrap plug on the PXNplus CPU board. To properly set the controller into
maintenance mode, short JP3 (Shutdown Request) for about 5 seconds until DS7 turns on. DS2 and
DS3 will then alternate ON and OFF.
Modem control jumper - J10
Table 12. Modem control jumper
J10
PinsFunction
1
1 and 2
2 and 3On-board modem on the CPU board
1.This is the default setting. If the jumper is missing, the default setting is used.
Upstream direct using J3 on the Power/Communications board
Page 49
Downstream configuration jumper - J9
Table 13. Downstream configuration jumper
J9
PinsFunction
PXNplus CPU board
Chapter 4
39
1
1 and 2
2 and 3Reserved - Do not use.
3 and 4Reserved - Do not use.
1.This is the default setting. If the jumper is missing, the default setting is used.
RS-232 using J4 on Power/Communications board
RS-422 using J2 on the Power/Communications board
Inserting and removing the PXNplus board
CAUTION: Earlier lines of controllers sometimes required the “wrap plug” to force the controller into maintenance
mode. DO NOT use the wrap plug on the PXNplus CPU board. To properly set the controller into
maintenance mode, short JP3 (Shutdown Request) for about 5 seconds until DS8 turns on. DS2 and
DS3 will then alternate ON and OFF.
Inserting the PXNplus board
CAUTION: Follow standard static prevention procedures. See Electrostatic Discharge (ESD) precaution on page 9
1. Disconnect power and battery backup power.
Note: When re-inserting the CPU board, the RS-485 J8 connector MUST be connected at all times to comply
with CE requirements for use in the European Union. See Figure 75 on page 145.
2. Insert the CPU board into the controller.
3. Attach any necessary cables.
Removing the PXNplus board
CAUTION: Follow standard static prevention procedures. See Electrostatic Discharge (ESD) precaution on
page 9.
1. To safely shut down the controller operating system, short JP3 for approximately 5 seconds until DS7
turns on. DS2 and DS3 then alternate On.
2. Disconnect power and battery backup power.
3. Remove any connected cables.
4. Carefully remove the CPU board from the controller.
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M3000
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Installation Manual
LED indicators
LEDs on the PXNplus CPU board
The LED state depends on which state the controller is in. There are two main modes with several substates:
•Maintenance mode: indicates the state of the controller before any application is running. There are
two maintenance mode states:
•Boot mode - indicates the bootloader is running and loading, verifying and invoking the run-time
images. This is a status LED only.
•OS (operating system) maintenance mode - the controller enters this mode after boot mode
when it first comes up and when it is never configured before. Holding JP3 will force the
controller into this mode.
•Normal operation mode: indicates the state of the controller after the application is downloaded. Use
the Integrated Configuration Tool to select the application. During this mode, the following additional
states can occur:
•Controller offline: indicates the controller has lost communication with the host.
•Address received: indicates the controller received a message from the host.
•Badge read OK: indicates the controller decoded a badge read and determined that it was a valid
badge.
•Waiting for database
•Restore defaults requested: indicates Jumper J3 was shorted. This requests that the defaults be
restored. The defaults are listed on page 119.
•Shutdown requested: indicates Jumper J6 was shorted. This requests that the application shut
down so that a hard reset can be done.
•eFlash image save: indicates that the newly loaded image from the eFlash transfer is being saved
into the FLASH. This is an activity indicator only.
•Persistence: indicates that the controller is operating without a host. In this mode, the controller is
operating standalone until communication is re-established with the host.
Items to note:
•Upon restoration of communications with the host, the host automatically sets badge status for
Anti-passback and Time and Attendance to neutral for all badges on the controller.
•Unknown badges cannot be learned because the controller is not online with the host. The
Unknown badge transactions are mislabeled in the history upload as transaction type Learn Timeout instead of Unknown Badge.
•Flash write: indicates that the controller is storing database records into the Flash file system.
This is an activity indicator only.
•Watchdog failure mode: An internal thread failed. Details about the failure were logged
according to the log settings. The micro performs a complete reboot after this failure.
1
: the controller is waiting to receive database from host.
Page 51
PXNplus CPU board
Chapter 4
Tab le 1 4 shows the LED state transitions. See Chapter 10 Troubleshooting, maintenance & support for error
conditions. See Figure 16, PXNplus CPU board layout on page 37 for the location of the LEDs.
Table 14. PXNplus CPU board LED normal state transitions
DS1DS2DS3DS4DS5DS6DS7DS8
During power upONONONONON ONON ON
Boot maintenance modeON
41
OS (Operating system)
maintenance mode
Alternates
ON with
DS3
Alternates
ON with
DS2
ON
Normal operation mode
Controller offlineON
Address receivedFlashes
once
Badge read OKFlashes
once
Waiting for databaseFlashes
Restore defaults
ONON
1
requested
Shutdown requestedONON
eFlash image save
Alternates
ON with
DS8
Alternates
ON with
DS7
PersistenceON
Flash Write
Flashing
Watchdog failure modeONON
1.For Picture Perfect systems: DS4 blinks once per second.
For Secure Perfect systems: DS4 blinks twice followed by a one-second delay before repeating.
= OFF
Modem LED indicators on the PXNplus CPU board
If your PXNplus CPU board includes an optional modem (P/N 521257001), Ta bl e 15 shows the LED state
transitions. (See Figure 16, PXNplus CPU board layout on page 37 for the location of the LED indicators.)
Table 15. Modem LEDs on the PXNplus CPU board
LED numberNameDescription
DS13DCD - Data Carrier DetectModems are connected.
DS14CTS - Clear To SendModem is ready to send data.
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Table 15. Modem LEDs on the PXNplus CPU board (continued)
LED numberNameDescription
DS15DSR - Data Set ReadyWhen the modem is present, this LED is always ON.
DS16TX - TransmitModem is sending data.
DS17RX - ReceiveModem is receiving data.
DS18RTS - Request To SendController is ready to send data.
UCSIMMPlus board LED indicators on the PXNplus board
Table 16. LED indicators on the UCSIMMPlus board
ColorPurpose
DS1GreenON - Link activity present.
Flashing - Network activity detected.
OFF - No link activity present.
DS2YellowON - 100 Mbps
OFF - 10 Mbps
DS3RedON - Full duplex
OFF - Half duplex
DS4RedON - Collision
Important information for firewall users
If your installation requires ANY controller and its corresponding host to communicate through a firewall, then
the firewall must be configured to allow for connections through the following range of ports: 6767 to 7800.
Currently, the following ports have been designated for use:
Table 17. For firewall users
PortNameDescription
6699ReservedUsed for PXNplus communications with the host.
6767Application (Picture Perfect)Normal operation data port between controller and host.
6700-6709Application (FCWnx/Secure
Perfect)
Normal operation data port between controller and host.
6768KeyExchanges Data Encryption Standard (DES) key information
6868ReservedReserved for future use.
7777ReservedReserved for future use.
(Picture Perfect only).
Page 53
PXNplus CPU board
Chapter 4
The following products use these ports: the Integrated Configuration Tool, Picture Perfect, FCWnx/Secure
Perfect, M5PXNplus, M2000PXNplus, M3000PXNplus, and DirecDoor.
Configuring upstream communications with the host
By network
1. Verify that you have a working network. If you need to configure before your network is running, skip
to step 3.
2. Connect the network cable into J1, the Ethernet connector. See Chapter 9, Regulatory information on
page 143.
3. Use the Integrated Configuration Tool to set the board to network use. The default for this board is
network so you may only need minimal set up. See Chapter 8, Controller firmware tools on page 97.
By network with fallback dial-up
43
Fallback dial-up is available only using the on-board modem.
1. Install the modem board on the PXNplus CPU board. Refer to the document PXNplus Modem Board
Installation Instructions.
2. Verify that you have a working network. If you need to configure a board before your network is
running, skip to step 3.
3. Connect the network cable into J1, the Ethernet connector. See Chapter 9, Regulatory information on
page 143.
4. Use the Integrated Configuration Tool to set the board to network use with fallback dial-up. See
Chapter 8, Controller firmware tools on page 97.
By direct-connect
1. Verify that jumper J10 is set to 1 and 2. See Modem control jumper - J10 on page 38.
2. Use the Integrated Configuration Tool to set the board to direct-connect. See Chapter 8, Controller
firmware tools on page 97.
By dial-up
Using on-board modem board
1. Install the modem board on the PXNplus CPU board. Refer to the document PXNplus Modem Board
Installation Instructions.
2. Set Jumper J10 to 2 and 3. See Modem control jumper - J10 on page 38.
3. Use the Integrated Configuration Tool to set the board to dial-up. See Chapter 8, Controller firmware
tools on page 97.
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Installation Manual
Configuring downstream communications
The PXNplus supports up to seven downstream controllers using RS-232 through J4 of the Power/
Communications board or RS-422 through J2 of the Power/Communications board.
To use direct-connect downstream communications, set J9 to pins 1 and 2.
Page 55
Chapter 5 Reader processing boards
This chapter provides information about and instructions for using the reader
processing boards.
The M3000 controller supports four types of reader processing boards: 2RP, 2SRP, and the 8RP. Only one type
can be used at one time, for a maximum of:
•Four 2RP boards (for support of up to eight readers),
•Four 2SRP boards (for support of up to eight supervised readers), or
•Two 8RP boards (for support of up to 16 readers).
2RP board
Introduction
Each 2RP reader board provides two reader ports, four unsupervised DIs (two door alarm, two REX inputs),
two reader LED outputs, two door strike DO relays, two auxiliary DO relays, and two alarm shunt relays used
to shunt out external alarm inputs. Please note the following:
•Each 2RP board is limited to only one type of reader technology: Wiegand, Strobed, F/2F, and
Supervised F/2F. In addition, both readers connected to the board must use the same voltage.
•In Supervised F/2F mode, the exit request and door alarm contact wiring is terminated at the reader.
•Each reader, DI point, Aux DO, and Exit DI on a 2RP board is addressed differently, depending on the
host system you are using. Refer to the Tab le 18 and Tab le 19 .
•If alarm points are not available on the reader, use alarm points on the controller.
Device addressing
Picture Perfect
Table 18. 2RP device addressing - Picture Perfect
Board 1Board 2Board 3Board 4
Readers0 and 10 and 10 and 10 and 1
Door DIs0 and 10 and 10 and 10 and 1
Exit DIs8 and 98 and 98 and 98 and 9
Door DOs0 and 10 and 10 and 10 and 1
Auxiliary/shunt DOs8 and 98 and 98 and 98 and 9
Page 57
Reader processing boards
Chapter 5
Facility Commander Wnx and Secure Perfect
The following device addresses are created for you by the Facility Commander Wnx and Secure Perfect
software. This table is provided for your reference only. The device address is in the format mmmm-b-pp
where mmmm represents the controller number, b represents the board number, and pp represents the point or
device number.
Set dual in-line package (DIP) switches as described in Tab le 2 0 before installing and wiring 2RP board.
Table 20. Reader technology and format
Reader technology and formatSW1-1SW1-2SW1-3SW1-4
Not Valid
ReservedON
ReservedON
Magstripe - Reversed StrobedONON
Magstripe - Water-MarkON
Magstripe - UTC/GE Supervised F/2F (default)ONON
Magstripe - StrobedONON
Magstripe - F/2FONONON
49
Wiegand -
3701
1
3702
3201
34 bit KSC
38 bit ADT
3601
3202
4001
4401
64 bit BCD
2
2802
3600
2700
2801
32 bit Motorola Indala
ON
ONON
ONON
ON
ON
ON2804
ONON
75 bit PIV
2800
35/37 bit Hughes
1. Secure Perfect uses this switch setting as Custom Wiegand.
2. Only the PXNplus CPU board supports the 64 bit BCD badge format. If using the 64 bit BCD badge format, see “Wiring readers” on
page 53 for special wiring instructions.
ON
ONON
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Installation Manual
Table 20. Reader technology and format
Reader technology and formatSW1-1SW1-2SW1-3SW1-4
26 bit
55 bit
ONONON
Wiegand -
34 bit CardKey
35 bit Hughes
4002
2500
2804
ONONONON
3400
3703
= OFF
Table 21. 2RP reader board address settings
SW1-SW2-
Reader board
1ON
56781234
ON
2ONON
3ONON
4ONON
= OFF
Note: Switches SW2-5, 6, 7, and 8 are not used.
Page 61
Reader processing boards
Chapter 5
Setting reader voltage
Select the proper reader voltage by placing the jumper on JP1. See Figure 18 below for details. Both reader
ports are set to the selected voltage.
Figure 18.Setting 2RP reader voltage
51
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Installation Manual
Installing resistor packs
Insert the proper resistor packs in RN1 and RN2. Be sure you insert the correct resistor pack for the reader
voltage selected. Both resistor packs must be the same since the voltage for both readers must be the same. See
Figure 19 below for details.
Figure 19.Installing 2RP resistor packs
Page 63
Reader processing boards
Wiring readers
If wiring a 12V reader that uses 5V data lines, note the following conditions before continuing:
•Set the reader voltage (JP1) to 5 V.
•Wire the Reader power lead to the Power output port (J6) on the Power/Communications board instead
of wiring it to the 2RP board.
To wire a reader:
1. Mount the reader. Refer to the manual that came with your reader for specific mounting instructions.
2. Run cable from the reader to the controller. Bring each reader cable through the appropriate knockout
hole in the controller enclosure. Allow some slack wire for servicing the cables and for plugging cable
into an adjacent slot for troubleshooting.
3. Remove eight inches of insulating material from the cable. Unwrap shielding and tie all shields
together. Connect the communications cable shield to the ground nut adjacent to the cable entrance
knockout of the cabinet enclosure. For more details, see Figure 73, Typical installation using shielded
cable/drain wire - outside and inside the enclosure on page 144.
4. Place the appropriate wires to the appropriate screw terminal on the 2RP reader board. Refer to the
reader wiring diagrams in this section. Pairing of cables is very important.
Chapter 5
53
Important: For 12V readers using cable runs over 500 feet, you must install pull-up resistors (470
ohm, 1/2 watt) between Reader Data 0 and +12 VDC and between Reader Data 1 and +12 VDC. Some
readers require pull-up resistors regardless of cable length. For 5V readers, the maximum cable
distance is 300 feet (91.44) with pull-up resistors. Refer to your reader manual to determine if pull-up
resistors are required.
5. Label each cable end with the controller address number/device or reader number.
Table 22. Recommended pairing of reader wires - Typical reader cable (Use Belden 8725 twisted shielded pair or equivalent)
PINSignal nameTypical wire color
1+5V DC or +12V DC Reader PowerRed
6Reader Data 0
2Ground (-)Green
7Reader Data 1White
4Door DO (Reader LED)White/Black
8Door DI (Alarm input)
3SpareWhite/Green
5Exit Request DI
1
1
1
Black
White/Red
White/Yellow
1.Reader Data 0, Door DI, and the Exit Request DI can be replaced or interchanged with Display DO and/or Clock DO when required for a non-supervised keypad reader.
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M3000
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Installation Manual
Figure 20.2RP reader connector points
Table 23. 2RP connector pinouts
J2/J4 reader connector pinouts
PINSignal name
1+5 VDC/+12 VDC
2Ground
3Display DO
4Door DO (Reader LED)
5Exit DI (Exit Request)
6Reader Data 0
7Reader Data 1
8Door DI (Alarm Point)
9Not used
10Clock DO
J3/J5 relay connector pinouts
PINRelay
1Door Strike Relay – Normally Closed (NC)
2Door Strike Relay – Common (Com)
3Door Strike Relay – Normally Open (NO)
4Auxiliary Output Relay – Common (Com)
5Auxiliary Output Relay – Normally Closed (NC)
6Auxiliary Output Relay – Normally Open (NO)
7Alarm Shunt Relay – Common (Com)
8Alarm Shunt Relay – Normally Closed (NC)
9Alarm Shunt Relay – Normally Open (NO)
Page 65
Figure 21.Wiring 2RP to Wiegand, Strobed, F/2F, and supervised F/2F readers
Reader processing boards
Chapter 5
55
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Installation Manual
Wiring digital inputs
Each reader port has two unsupervised digital inputs (DIs) which are used for door status devices (door
contacts and exit request input). Since these DIs are not supervised, they do not require end-of-line resistors.
To wire a DI:
1. Install the door contact and exit contact as required.
2. Wire the door DI between pin 2 (Gnd) and pin 8 (Door DI) and/or exit DI between pin 2 (Gnd) and pin
5 (Exit DI) to the corresponding reader port on the 2RP board. The contact can be Normally Open or
Normally Closed.
Figure 22.Wiring 2RP exit request and door alarm contact
Page 67
Reader processing boards
Wiring door strikes
The 2RP provides a door DO relay dedicated to each reader port.
To wire a door strike:
1. Install the door strike (maximum 2 A @ 30 VDC or 0.50 A @ 120 VAC) as required.
2. Wire the door strike to the door DO (internal) relay. Normally open or Normally Closed dry contacts
are available.
3. If required, wire the door strike to a customer supplied external relay and the 2RP board as shown in
Figure 22.
4. Install a protection diode across the relay and the door strike. Use 1N4002, 1N4003, 1N4004 or
equivalent diodes for DC door strikes and metal oxide varistors (MOV) for AC door strikes.
Figure 23.Wiring 2RP door strike - internal relay
Chapter 5
57
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M3000
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Installation Manual
Figure 24.Wiring 2RP door strike - external relay
Page 69
Reader processing boards
Chapter 5
Wiring auxiliary DO relays
One auxiliary DO relay per reader port can be defined by the user. The auxiliary DO relay is used for an
auxiliary output device.
To wire an auxiliary DO relay:
1. Install the auxiliary output (maximum 2 A @ 30 VDC or 0.50 A @ 120 VAC) as required.
2. Wire the output device to the auxiliary DO relay. The auxiliary DO relay has either a Normally Open
or Normally Closed dry contact available (pin 4 = Common, pin 5 = Normally Closed, pin 6 =
Normally Open).
Figure 25.Wiring 2RP auxiliary DO relay
59
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Wiring alarm shunt relays
One alarm shunt relay is available per reader port. The alarm shunt relay is used to shunt (disable) an external
alarm system contact (such as burglar alarm) on a valid read or exit pushbutton request.
To wire an alarm shunt relay:
1. Install the alarm shunt (maximum 2 A @ 30 VDC or 0.50 A @ 120 VAC), as required.
2. Wire the external alarm system to the alarm shunt relay. The relay has either a Normally Open or
Each 2SRP reader board provides four supervised DIs (two alarm, two exit), two reader LED outputs, two door
strike DO relays, two auxiliary DO relays, and two alarm shunt relays used to shunt out external alarm inputs.
Please note the following:
•Each 2SRP board is limited to only one type of reader technology: Wiegand, Strobed, F/2F, and
Supervised F/2F. In addition, both readers connected to the board must have the same voltage.
•The 2SRP board has built-in pull-up resistors to accommodate cable lengths over 500 feet. External
pull-up resistors are not required for the 2SRP board.
•Each reader, DI point, Aux DO, and Exit DI on the 2SRP board is addressed differently depending on
the host system you are using.
•If alarm points are not available on the reader, use alarm points on the controller.
The device addresses shown in Ta bl e 25 are created by the Facility Commander Wnx and Secure Perfect
software. The device address is in the format mmmm-b-pp where mmmm represents the controller number, b
represents the board number, and pp represents the point or device number.
Set DIP switches as described in the tables below before installing and wiring 2SRP board.
Table 26. Supervised DI end-of-line resistors
SW1-SW2-
1234 12345 - 8
Chapter 5
63
Standard (1K, 1K)ONON
Special (6.8K, 18K)ON
Time Display Readers
ONONONONON
ONONON
ONONON
(Time & Attendance)
= OFF
Table 27. Reader technology and format
Reader technology and formatSW3-1SW3-2SW3-3SW3-4
Not Valid
ReservedON
ReservedON
Magstripe - Reversed StrobedONON
Magstripe - Water-MarkON
Magstripe - UTC/GE Supervised F/2F (default)ONON
Magstripe - StrobedONON
Magstripe - F/2FONONON
3701
3702
3201
34 bit KSC
Wiegand -
38 bit ADT
3601
3202
4001
4401
64 bit BCD
1
ON
ON
ON
ONON
2
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Installation Manual
Table 27. Reader technology and format (continued)
Reader technology and formatSW3-1SW3-2SW3-3SW3-4
2802
Wiegand -
3600
2700
2801
32 bit Motorola Indala
75 bit PIV
2800
35/37 bit Hughes
26 bit
55 bit
34 bit CardKey
35 bit Hughes
4002
2500
2804
3400
ONON
ON2804
ONON
ON
ONON
ONONON
ONONONON
3703
= OFF
Note: The boards MUST be numbered consecutively. This means that the first reader board must be set to Address
1, the second reader board must be set to Address 2, and so on. If they are not, the supervised DI points will
not work correctly.
Table 28. Reader board (2SRP) address settings
SW3-SW4-
Reader board
1ON
56781234
ON
2ONON
3ONON
4ONON
1. Secure Perfect uses this switch setting as Custom Wiegand.
2. Only the PXNplus CPU board supports the 64 bit BCD badge format. If using the 64 bit BCD badge format, see “Wiring readers” on
page 67 for special wiring instructions.
= OFF
Page 75
Reader processing boards
Table 29. Special reader types
Reader typeSW4-5SW4-6SW4-7SW4-8
Standard ReadersONONONON
Chapter 5
65
Special Readers
(single-color LEDs)
Time Display Readers (T&A)ON
HID Pin Pad Readers for Fidelity
1.For special readers, see Figure 18 on page 70.
= OFF
1
ONONON
ONON
ONON
Setting reader voltage
Select the proper reader voltage by placing the jumper on JP1. See Figure 28 below for details. Both reader
ports are set to the selected voltage.
Figure 28.Setting 2SRP reader voltage
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Installation Manual
Installing resistor packs
Insert proper resistor packs in RP1 and RP13. Be sure you insert the correct resistor pack for the reader voltage
selected. Both resistor packs must be the same since the voltage for both readers must be the same. See
Figure 29 below for details.
Figure 29.Installing 2SRP resistor packs
Page 77
Reader processing boards
Wiring readers
If wiring a 12V reader that uses 5V data lines, note the following conditions before continuing:
•Set the reader voltage (JP1) to 5V.
•Wire the Reader power lead to the Power output port (J6) on the Power/Communications board instead
of to the 2SRP board.
To wire a 12V reader:
1. Mount the reader. Refer to the manual that came with your reader for specific mounting instructions.
2. Run cable from the reader to the controller. Bring each reader cable through the appropriate knockout
hole in the controller enclosure. Allow some slack wire for servicing the cables and for plugging cable
into an adjacent slot for troubleshooting.
3. Remove eight inches (20.32 cm) of insulating material from the cable. Unwrap shielding and tie all
shields together. Connect the communications cable shield to the ground nut adjacent to the cable
entrance knockout of the cabinet enclosure. For more details, see Figure 73, Typical installation using
shielded cable/drain wire - outside and inside the enclosure on page 144.
4. Place the appropriate wires to the appropriate screw terminal on the 2SRP reader board. Refer to the
reader wiring diagrams in this section. Pairing of cables is very important.
Chapter 5
67
Note: The 2SRP board has built-in pull-up resistors. Do not install any external pull-up resistors.
5. Label each cable end with the controller address number/ device or reader number.
Table 30. Recommended pairing of reader wires - Typical reader cable (Use Belden 8725 twisted shielded pair or equivalent)
PINSignal nameTypical wire color
1+5V DC or +12V DC Reader PowerRed
6Reader Data 0
2Ground (-)Green
7Reader Data 1White
4Door DO (Reader LED)White/Black
8Supervised Door DI (Alarm input)
3SpareWhite/Green
9Supervised Door DI Return
1.Reader Data 0, Supervised Door DI, Supervised Door DI Return, and the Supervised Exit Request DI Return can be replaced or
interchanged as needed.
1
1
1
Black
White/Red
White/Yellow
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Installation Manual
Figure 30.Wiring 2SRP to Wiegand, F/2F, Strobed, and Supervised F/2F Readers
Page 79
Figure 17.2SRP supervised reader connector points
Reader processing boards
Chapter 5
69
Table 18. 2SRP connector pinouts
J2/J4 reader connector pinouts
PINSignal name
1+5 VDC/+12 VDC
2Ground
3Display DO
4Door DO (Reader LED)
5Supervised Exit DI (Exit Request)
1
6Reader Data 0
7Reader Data 1
8Supervised Door DI (Alarm Point)
9Supervised Door DI Return
10Supervised Exit DI Return
1. Supervised Exit DI and supervised Door DI point must use end-of-line resistors and must be terminated at the appropriate Return
point (not to ground
).
1
1
1
PINRelay
1Door Strike Relay – Normally Closed (NC)
2Door Strike Relay – Common (Com)
3Door Strike Relay – Normally Open (NO)
4Auxiliary Output Relay – Common (Com)
5Auxiliary Output Relay – Normally Closed (NC)
6Auxiliary Output Relay – Normally Open (NO)
7Alarm Shunt Relay – Common (Com)
8Alarm Shunt Relay – Normally Closed (NC)
9Alarm Shunt Relay – Normally Open (NO)
J3/J5 relay connector pinouts
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Installation Manual
Special readers with single color LEDs
The LED will flash fast upon a valid access condition and turn off for 3 to 4 seconds upon an invalid attempt.
See Table 29, Special reader types on page 65 for switch setting information. In this configuration, the Alarm
Shunt Relay is no longer available.
Figure 18.Wiring 2SRP to single color LED reader
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Reader processing boards
Chapter 5
Wiring DIs
Each reader port has two supervised digital inputs which are used for door status devices (door contacts and
exit request input). Since these digital inputs are supervised, they require end-of-line resistors.
To wire a DI:
1. Follow the installation specifications for the device. Mount the device according to the manufacturer’s
specifications. The alarm device (door contact) should have a dry contact which can have a Normally
Open or Normally Closed type switch. A Normally Closed contact is in its normal or resting position
when it is closed. For example, the contact is closed when the door is closed. The opposite is true for a
Normally Open contact. In this case, the contact is open when the door is closed.
2. Select the appropriate digital input for each alarm input device.
3. Ground the shields of the cable at the M3000 enclosure grounding studs. Insulate the shield (with tape
or shrink tubing) at the DI device end to avoid electrical noise.
4. Install two end-of-line resistors. Install each resistor as close to the door status contact as possible.
5. We recommend the standard 1,000 (1K) ohm, 1/4 watt, 5% tolerance, high-quality end-of-line
resistors. This board also supports 6.8K and 18K end-of-line resistors. See Figure 19 on page 72 for
the location of the resistors. See Table 26, Supervised DI end-of-line resistors on page 63 for the
appropriate switch settings.
71
6. Wire the supervised door DI between pin 8 (Door DI) and pin 9 (Door DI Return). Wire the supervised
exit DI between pin 5 (Exit DI) and pin 10 (Exit DI Return). The contact can be Normally Open or
Normally Closed.
CAUTION: The supervision capability will be impaired if the resistors are NOT wired immediately adjacent to the
door status contact.
7. Insulate resistors with tape or heat shrink tubing.
8. Document how you wired the alarm input devices. Future expansion of the system and its maintenance
depend upon accurate documentation.
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Installation Manual
Figure 19.Wiring 2SRP door alarm contact and exit request
Page 83
Reader processing boards
Chapter 5
Wiring door strikes
One reader LED (door DO) and one door DO relay are dedicated to each reader port. The door DO is used for
the LED on the reader or an external door relay.
To wire a door strike:
1. Install the door strike (2 A @ 30 VDC or 0.50 A @ 120 VAC maximum) as required.
2. Wire the door strike to the door DO (internal) relay. Normally open or Normally Closed dry contacts
are available (pin 1 = Normally Closed, pin 2 = Common, pin 3 = Normally Open). Use pin 1 (+5/+12
VDC) and pin 4 (Reader LED) for wiring the external relay. See Figure 20 on page 73 and Figure 21
on page 74.
3. Install a protection diode. Use 1N4002, 1N4003, or 1N4004 diodes for DC door strikes and Metal
Oxide Varistors (MOV) for AC door strikes.
Note: A protection diode or MOV is required at each electronic door lock.
Figure 20.Wiring 2SRP door strike - internal relay
73
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M3000
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Installation Manual
Figure 21.Wiring 2SRP door strike - external relay
Page 85
Reader processing boards
Chapter 5
Wiring auxiliary DO relays
One auxiliary DO relay per reader port can be defined by the user. The auxiliary DO relay is used for an
auxiliary output device.
To wire an auxiliary DO relay:
1. Install the auxiliary output device (maximum 2 A @ 30 VDC or 0.50 A @ 120 VAC) as required.
2. Wire the output device to the auxiliary DO relay. The auxiliary DO relay has either a Normally Open
or Normally Closed dry contact available (pin 4 = Common, pin 5 = Normally Closed, pin 6 =
Normally Open).
Figure 22.Wiring 2SRP auxiliary DO relay
75
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Installation Manual
Wiring alarm shunt relays
One alarm shunt relay is available per reader port. The alarm shunt relay is used to shunt (disable) an external
alarm system contact (e.g. burglar alarm) on a valid read or exit pushbutton request.
To wire an alarm shunt relay:
1. Install the alarm shunt (2 A @ 30 VDC or 0.50 A @ 120 VAC) as required.
2. Wire external alarm system to the alarm shunt relay. The relay has either a Normally Open or
Normally Closed dry contact available (pin 7 = Common, pin 8 = Normally Closed, pin 9 = Normally
Open).
Note: Single color LED readers do not support alarm shunt relays.
Figure 23.Wiring 2SRP external alarm shunt relay
Page 87
Reader processing boards
Chapter 5
8RP board
Introduction
The number of 8RP boards supported by different host software systems varies. Consult the manual that came
with your software for this information.
•The 8RP board was redesigned to work with 12V readers only. This new version of the 8RP board can
be identified by the assembly number 110100001 with a revision of C or later.
•Each 8RP board is limited to only one type of reader technology: F/2F or Supervised F/2F.
•External pull-up resistors are not required for the 8RP board.
•No DI (alarm points) or exit DIs are available on the 8RP board. Therefore, use of supervised readers
is recommended since these points are available on the reader.
•If keypad readers are needed, use ONLY UTC/GE Supervised F/2F keypad readers or Wiegand
Interface Units (WIU-2/WIU-4).
•Each reader, reader-based DI (input) point, and reader-based Exit DI on the 8RP board is addressed
differently depending on the host system you are using.
•The 8RP board provides one digital output (reader LED) per reader port, 0.10 amps @ 12 VDC
maximum per output point.
77
Device addressing
Picture Perfect
Note: Picture Perfect uses 2RP board numbers to address readers, DIs, and DOs on the 8RP board; See Tab le 19
and Tab le 20 for further information. Therefore, in Picture Perfect:
•Reader ports 1 and 2 are configured as Board number 1, reader address 0 and 1;
•Reader ports 3 and 4 are configured as Board number 2, reader address 0 and 1;
•Reader ports 5 and 6 are configured as Board number 3, reader address 0 and 1;
•Reader ports 7 and 8 are configured as Board number 4, reader address 0 and 1.
Reader 11 and 12 Reader 13 and 14 Reader 15 and 16
Picture Perfect board number5678
Readers0 and 10 and 10 and 10 and 1
Door DIs0 and 10 and 10 and 10 and 1
Exit DIs8 and 98 and 98 and 98 and 9
Door DOs0 and 10 and 10 and 10 and 1
1.The second 8 readers out of 16. See Table 23 on page 80 for board type settings.
Facility Commander Wnx and Secure Perfect
The following Secure Perfect device addresses are created for you by the Secure Perfect software. This table is
provided for your reference only. The device address is in the format mmmm-b-pp where mmmm represents the
controller number, b represents the board number, and pp represents the point or device number.
Set the DIP switches as described in the table below before installing and wiring the 8RP board.
Table 22. Reader technology and format
Reader technology and formatSW 1-1SW 1-2SW 1-3SW 1-4
Magstripe - UTC/GE Supervised F/2FON
Magstripe - F/2FONONON
= OFF
Table 23. 8RP board address settings
SW 1-SW 2-
Board type
Board 1
Board 2
1.The first 8 readers out of 16.
2.The second 8 readers out of 16.
1
2
= OFF
567812345678
Does not
apply.
ONONONONON
ONONONONON
ON
Powering two 8RP boards
To ensure proper function when using two 8RP Boards in the M3000 controller, the second 8RP Board should
be wired directly to the Power Communication board as shown in Figure 25.
Figure 25.Powering two 8RP boards
Page 91
Reader processing boards
Wiring readers
To wire a reader:
1. Mount the reader. Refer to the manual that came with your reader for specific mounting instructions.
2. Run cable from the reader to the controller. Bring each reader cable through the appropriate knockout
hole in the controller cabinet. Allow some slack wire for servicing the cables and for plugging the
cable into an adjacent slot for troubleshooting.
3. Remove eight inches of insulating material from the cable. Unwrap shielding and tie all shields
together. Connect the communications cable shield to the ground nut adjacent to the cable entrance
knockout of the cabinet enclosure. For more details, see Figure 73, Typical installation using shielded
cable/drain wire - outside and inside the enclosure on page 144.
4. Place the appropriate wires to the appropriate screw terminal on the 8RP reader board. Refer to the
reader wiring diagrams in this section. Pairing of cables is very important.
CAUTION: The 8RP board has built-in pull-up resistors. Do not install the external pull-up resistors supplied with
the UTC/GE Proximity Readers.
Chapter 5
81
5. Label each cable end with Controller Address Number/ Device or Reader Number.
It is recommended that 20-AWG shielded cable be used for wiring reader DOs and DIs. Use plenumrated cable for applications where cable is to be run above the false (suspended) ceiling in the air
circulation space.
The following cable types are recommended:
•Alpha Xtra Guard1® foil shield cable, non-plenum rated, and
•Belden security and alarm cable (commercial applications shielded), plenum-rated.
Figure 26.Wiring 8RP to F/2F or Supervised F/2F Readers
Page 93
Reader processing boards
Chapter 5
Wiring door strikes
One reader LED (door DO) is dedicated to each reader. The reader LED (door DO) is used for the reader LED
and/or for an external door strike relay.
To wire a door strike:
1. Install the door strike as required.
2. Wire the door strike to the external door strike relay. The door strike relay is connected to +12 VDC
(pin 1 and/or pin 5) and door DO (pin 4 and/or pin 8).
3. Install a protection diode across the relay and the door strike. Use 1N4002, 1N4003, 1N4004 or
equivalent diodes for DC door strikes and Metal Oxide Varistors (MOV) for AC door strikes.
Note: Protection diode or MOV and blocking diode required at all electronic door locks.
4. Install a blocking diode on the door DO (Reader LED) line between the reader and the door strike
relay. Use 1N5817 (included with reader). The diode must be installed on the secure side of the door in
order to be UL compliant.
83
Figure 27.Wiring 8RP door strike - external relay
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M3000
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Installation Manual
Page 95
Chapter 6 Optional DI and DO boards
This chapter provides information about and instructions for using the optional DI
and DO boards.
The M3000 Controller supports the 20 Digital Input (20DI) board, the 16 Digital Output (16DO) board, and the
16 Digital Output with Relays (16DOR) board. Although the M3000 enclosure holds up to seven boards, the
specific number of DI and DO boards supported by the different host software systems varies. Reference the
manual that came with your host system for further information on how many boards it supports.
20DI board
The 20DI board provides 20 supervised digital input (alarm) points. Supervised DIs have end-of-line resistors
on the contacts which enable the controller to detect line shorts and breaks in addition to the open and closed
contact conditions. Please note the following:
•The maximum distance allowed between the M3000 and the alarm input device is 1,000 feet (30.48m).
•The recommended cable wire is a two-conductor, 22-AWG shielded, stranded cable.
•Each DI point is addressed differently depending on the host system you are using.
Device addressing
Picture Perfect
From one to four boards can be configured with DI points from 16 to 35. Picture Perfect addresses DIs by
board number; therefore, the DI numbers are the same for each of the possible four DI boards.
Secure Perfect
From one to four boards can be configured with DI points from 1 to 20. Addressing of DI boards follows the
format: mmmm-b-pp where mmmm represents the controller number to which this DI is associated,
the board number, and pp represents the point or device number.
For example:
0001-1-01 = DI on controller 1, DI board 1, DI 1
0001-2-01 = DI on controller 1, DI board 2, DI 1
brepresents
Page 97
Figure 31.20DI board layout
Optional DI and DO boards
Chapter 6
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Installation Manual
Setting DIP switches
Set the DIP switches on the 20DI board before installing it and wiring the alarm input devices. The 20DI PCB
board should be at Revision G or later. (The revision level can be found on the underside of the circuit board in
the lower right corner.)
Table 31. DI board addressing
BoardSW1-1SW1-2SW1-3SW1-4
Board 1ON
Board 2
Board 3
Board 4
1.ON for M5/E, M5/2, M5/P; OFF for M5/PX, M5/PXN, M5/PXNPlus, M3000
= OFF
ON(1)
ON(1)
1
ON(1)
SW1-5SW1-6
(1)
To wire the digital input devices
1. Follow the installation specifications for the device. Mount the device according to the manufacturer’s
specifications. The alarm device (door contact) should have a dry contact which can have a Normally
Open or Normally Closed type switch. A Normally Closed contact is in its normal position when it is
closed. The opposite is true for a Normally Open contact.
2. Select the appropriate digital input for each alarm input device.
3. Ground the shields of the cable at the M3000 enclosure grounding studs. Float the shield (with tape or
shrink tubing) at the DI device end to avoid electrical noise.
4. Install two end-of-line resistors (not included). We recommend high quality, 1,000 (1K) ohm, 1/4 watt,
5% tolerance end-of-line resistors. Install each resistor as close to the door status contact as possible.
CAUTION: The supervision capability will be impaired if the resistors are NOT wired immediately adjacent to the
door status contact.
5. Insulate resistors with tape or heat shrink tubing.
6. Document how you wired the alarm input devices. Future expansion of the system and its maintenance
depend upon accurate documentation.
Page 99
Figure 32.Wiring DI point
Optional DI and DO boards
Chapter 6
89
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M3000
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Installation Manual
16DO and 16DOR boards
There are two different DO boards available: the 16 Digital Output (16DO) board, and the 16 Digital Output
with Relays (16DOR) board.
The 16DO board provides 16 digital outputs rated at 100 mA @ 24 VDC maximum per output point.
The 16DOR board has 16 relay output points rated at 2 A @ 30 VDC or 0.50 A @ 120 VAC maximum per
output point. The first two relays on each J connector can be wired as Normally Open or Normally Closed. The
last two relays on each J connector are factory-set as Normally Open. Note the following:
•The maximum allowable distance between the M3000 16DO/16DOR board and the output device is
1,000 feet (30.48 m).
•Two-conductor, 22-AWG shielded, stranded wire is recommended for the 16DO board. Two conductor
18 to 22-AWG shielded, stranded wire is recommended for the 16DOR board depending on the cable
distance, amperage (current draw), and voltage of the output device.
•Each DO point is addressed differently depending on the host software you are using.
Device addressing
Picture Perfect
From one to four boards can be configured with DO points from 16 to 31. Picture Perfect addresses DOs by
board number; therefore, the DO numbers are the same for each of the possible four DO/DOR boards.
Facility Commander Wnx and Secure Perfect
From one to four boards can be configured with DO points from 1 to 16. Addressing of DO boards follows the
format: mmmm-b-pp where mmmm represents the controller number to which this DO is associated,
represents the board number, and pp represents the point or device number. For example:
0001-1-01 = DO on controller 1, DO board 1, DO 1
0001-2-01 = DO on controller 1, DO board 2, DO 1
b
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