CP40 - ACCESSGARD · CP40 Installation Manual Revision 1.4 Cansec Systems Ltd. October 2006 This...

CP40 Installation Manual

Revision 1.4

Cansec Systems Ltd. October 2006

This manual is based on the latest information available to Cansec Systems Ltd. At the time of

this document being printed. Technical support is available to authorized Cansec dealers by

calling 905-820-2404 or via email at [email protected].

Cansec Systems Ltd. 3105 Unity Drive, Unit #9, Mississauga, Ontario, Canada

Tel: (905) 820-2404, Fax:(905) 820-0301, http://www.cansec.com

CP40 Installation Manual Table Of Contents

i

Table of Contents

1. Hardware Overview .......................................................................... 1-1

1.1 Wiegand Formats ................................................................................................. 1-1

1.2 Distributed Database............................................................................................ 1-1

1.3 Standard On-Board Inputs ................................................................................... 1-1

1.4 Standard On-Board Outputs................................................................................. 1-2

1.5 Auxiliary Supervised Input / Relay Output Board ............................................... 1-3

1.6 Optional Elevator Control.................................................................................... 1-3

1.7 PC to CP40 Communications .............................................................................. 1-3

1.7.1 RS-485 (2-Wire) Multi-Drop Communications................................. 1-3

1.7.2 RS-422 (4-Wire) Multi-Drop Communications................................. 1-4

1.7.3 RS-422 (4-Wire) Daisy-Chain Communications............................... 1-4

1.8 CP40 Power Supply ............................................................................................. 1-4

1.9 CP40 Cabinet ....................................................................................................... 1-4

1.10 CP40 Specifications ............................................................................................. 1-6

2. Installation.......................................................................................... 2-1

2.1 Unpacking ............................................................................................................ 2-1

2.2 Mounting the CP40.............................................................................................. 2-1

2.3 Connecting the Cabinet Tamper Switch .............................................................. 2-3

2.4 Installing an Input/Output Board (SIOPT-16) ..................................................... 2-3

2.4.1 Configuring the Input/Output Board (SIOPT-16).............................. 2-4

2.4.2 Input Point Wiring ............................................................................. 2-4

2.4.3 Output Point Wiring........................................................................... 2-4

2.4.4 Input/Output Board Fire Alarm Release ........................................... 2-6

2.5 Elevator Control Systems..................................................................................... 2-7

2.5.1 Elevator Configurations ..................................................................... 2-7

2.6 Connecting the Locking Devices ......................................................................... 2-8

2.7 Connecting Door Contacts and Exit Buttons ..................................................... 2-11

2.8 Connecting Wiegand Compatible Readers ........................................................ 2-13

2.9 Connecting the Fire Alarm Release and Reset Inputs........................................ 2-14


ii

2.10 Power Supply Inputs/Outputs and Battery Backup............................................ 2-15

2.11 Forced Entry, Door Held Open, Alarm Shunt Outputs...................................... 2-17

2.12 Comm Fail Output ............................................................................................. 2-18

2.13 Lithium Battery for Database and RTC ............................................................. 2-18

2.14 Communications ................................................................................................ 2-19

2.14.1 RS-422 (4-Wire) Multi-Drop Communications............................... 2-20

2.14.2 RS-485 (2-Wire) Multi-Drop Communications............................... 2-20

2.15 Elevator System Settings and Communications Wiring ................................... 2-25

2.16 Remote CP40 Trunks Using Dial-Up Modems ................................................. 2-28

2.17 Spare On-Board Inputs and Outputs .................................................................. 2-30

2.18 Reader and Communication Grounding ............................................................ 2-31

2.19 Firmware Status LED......................................................................................... 2-32

2.20 Reader Data LEDs ............................................................................................. 2-32

2.21 Option Dip Switch (S2) ..................................................................................... 2-33

2.22 Upgrading Firmware .......................................................................................... 2-34

2.23 Multi-Drop Power Up Procedure....................................................................... 2-34

3. Troubleshooting ................................................................................ 3-1

3.1 Daisy-Chain Communication Problems .............................................................. 3-1

3.2 Multi-Drop Communication Problems ............................................................... 3-2

3.3 Reader Problems ................................................................................................. 3-3

3.4 Monitored Input / Relay Output Problems .......................................................... 3-4

3.5 Other CP40 Problems ......................................................................................... 3-4

Figures

Figure 1: CP40 Cabinet.................................................................................................... 1-5

Figure 2: CP40 Board Layout .......................................................................................... 1-8

Figure 3: Mounting the CP40 Cabinet ............................................................................. 2-2

Figure 4: Cabinet LED Connector ................................................................................... 2-2

Figure 5: Cabinet Tamper ................................................................................................ 2-3

Figure 6: Mounting the Input/Output Board ................................................................... 2-4

Figure 7: Input / Output Board Layout............................................................................. 2-5

Figure 8: Input Point Wiring............................................................................................ 2-5

Figure 9: Output Point Wiring ......................................................................................... 2-6

Figure 10: I/O Board Fire Alarm Release ........................................................................ 2-7

Figure 11: Typical Elevator Configuration ...................................................................... 2-8


iii

Figure 12: Connecting 12V Magnetic Locks, < 400 ma.................................................. 2-9

Figure 13: Connecting Electric Strikes, >12V or 400 ma................................................ 2-9

Figure 14: Connecting 12V Electric Strikes, < 400ma .................................................. 2-10 Figure 15: Connecting Magnetic Locks, >12V or 400 ma............................................. 2-10

Figure 16: Door Contact Wiring .................................................................................... 2-11

Figure 17: Enabling Door Contact and Exit Button Inputs............................................ 2-12

Figure 18: Exit Button Wiring ....................................................................................... 2-12

Figure 20: Connecting Wiegand Compatible Readers................................................... 2-13

Figure 21: Wiegand Reverse Switch Setting ................................................................. 2-14

Figure 22: Enabling Fire Alarm Release and Reset ....................................................... 2-15

Figure 23: Power and Battery Connections ................................................................... 2-16

Figure 24: Comm Fail Output & Lithium Battery Jumper ............................................ 2-18

Figure 25: Location of Communication Jumpers, Switches, Connectors, LEDs........... 2-19

Figure 26: Hexadecimal Conversions ............................................................................ 2-20

Figure 27: RS-422 Multi-Drop Settings ....................................................................... 2-21

Figure 28: RS-422 Multi-Drop Wiring using CLAUSB................................................ 2-21

Figure 29: RS-485 Multi-Drop Settings ........................................................................ 2-22

Figure 30: RS-485 Multi-Drop Wiring using CLA-50 .................................................. 2-22

Figure 31: RS-485 Multi-Drop Wiring using CLAUSB................................................ 2-23

Figure 32: RS-485 Multi-Drop Wiring using CANLAN............................................... 2-24

Figure 33: Configuring the 16 Floor Elevator Board..................................................... 2-25

Figure 34: CP40 Jumper Settings for 32-64 Floor Elevator Control ............................. 2-26

Figure 35: 32-64 Floor Elevator Controller Layout and Power Inputs .......................... 2-26

Figure 36: CP40 To 32-64 Floor Elevator Controller Communications Wiring ........... 2-27

Figure 37: Remote Dial-Up Configuration and Wiring ................................................. 2-29

Figure 38: Supervised Spare Input Wiring..................................................................... 2-30

Figure 39: Spare Output Wiring..................................................................................... 2-31

Figure 40: Reader & Communication Grounding.......................................................... 2-31

Figure 41: Firmware Status LED ................................................................................... 2-32

Figure 42: Reader Data Leds.......................................................................................... 2-32

Figure 43: Option Dip Switch........................................................................................ 2-33

CP40 Installation Manual Hardware Overview

Cansec Systems Ltd. 1-1

1. Hardware Overview

Cansec's CP40 Access Control Panel provides a cost-effective means of providing the ultimate in security

management. Each CP40 can support up to two Card Readers including two card reader/keypad

combinations for high security applications, Touch Access Readers, as well as many other popular Reader

technologies such as:

WIEGAND PROXIMITY BARIUM FERRITE INFRARED

BAR CODE BIOMETRIC RADIO FREQUENCY

The CP40 Access Control Panel is also backwards compatible with Cansec’s CP30 Access Control Panel.

1.1 Wiegand Formats The CP40 supports Cansec’s proprietary Wiegand format as well as any reader technology with a standard

26 bit Wiegand Output as defined by the specifications written by Sensor Engineering Ltd. For support of

other custom Wiegand formats, contact Cansec Systems Ltd.

1.2 Distributed Database The CP40 database is downloaded from a PC running Cansec's Windows Based Maestro or DOS & OS/2

Based PassMaster Software packages. The CP40's backed-up memory ensures that the panel will retain all

downloaded data in the event of a power or communication failure. CP40's can support up to 65,000 user

(card) identification numbers depending on the capacity of the host software. Since all access control

decisions are made locally, the response time at the readers is minimal.

1.3 Standard On-Board Inputs Door Contact Inputs (one per reader):

This input can be enabled to monitor Supervised, Normally Closed door contact inputs. This input is used

to monitor “Forced Entry” and “Door Held Open” alarm states as well as “Door Contact Status”.

Optionally, by replacing a firmware chip, this input may be Supervised, requiring a Cansec End-of-Line

Resistor pack (Part # EOLRES). The EOL Resistor Pack should be installed as close to the Exit Button

device as possible for security reasons.

Exit Button Inputs (one per reader):

This input requires a momentary closure from a NORMALLY OPEN switch to activate a Request to Exit

command, which in turn activates the Lock Output and Alarm Shunt Output. Optionally, by replacing a

firmware chip, this input may be Supervised, requiring a Cansec End-of-Line Resistor pack (Part #

EOLRES). The EOL Resistor Pack should be installed as close to the Exit Button device as possible for

security reasons.



Cabinet Tamper Input (one per panel):

This NORMALLY CLOSED input can be enabled to monitor the CP40 Cabinet Tamper Switch. The

Tamper Switch is provided and mounted on each CP40 cabinet.

Fire Alarm Release Input (one per panel):

This NORMALLY CLOSED input can be enabled to monitor an alarm condition from a Fire Alarm panel

so that power to the readers and locks will drop off when a fire alarm station is activated.

Fire Alarm Reset Input (one per panel):

If this feature is enabled and a Fire Alarm Release has occurred, a momentary closure must be applied to

restore power to the reader and lock outputs. If the Fire Alarm Reset is disabled or the input is shunted,

power to the readers and locks will be restored when the Fire Alarm Release Input returns to a closed state.

Spare Supervised Inputs (two per panel):

The CP40 is equipped with two spare supervised inputs that may be used for point monitoring. These

inputs require a Cansec End-of-Line Resistor pack (Part # EOLRES). Note: These spare inputs are not

available: 1) When the SIOPT-16 Auxiliary I/O Board is installed 2) In a dial-up configuration

1.4 Standard On-Board Outputs Lock Outputs (one per reader):

This output provides either a dry contact output, Normally Open or Normally Closed, or 12VDC @ 400 mA

max to the locking device for each reader. Since the 12VDC outputs are supplied through on-board relays,

Normally Open or Normally Closed connections are available to accommodate electric strikes or magnetic

locks. Lock output relays are rated at 8 Amp, 24VDC.

Tamper/Forced Entry Outputs (one per reader):

This is a dry contact "Form C" relay output that can be activated by any of the following conditions:

1. The Cabinet Tamper Input is opened. (Both reader “A” and “B” Tamper relays are activated)

2. A Reader Tamper occurs indicating that the reader has removed or pulled out from its

mounted location. This feature requires that a switch be installed and connected at the reader

location in the reader back box. (The associated Tamper relay is activated)

3. A Door Contact Input is opened without access being granted with a card or by providing a

momentary closure to the Exit Button Input. (The associated Forced Entry relay is activated)

Door Held Open Outputs (one per reader):

This is a dry contact "Form C" relay output that will activate if the door is held open longer than the

software programmable time.

Alarm Shunt Outputs (one per reader):

This is a dry contact "Form C" relay output that will activate when a user is granted access by either using a

card or by providing a momentary closure to the Exit Button Input. This output may be used for shunting

external alarm points.



5VDC Output (one per panel):

This is an auxiliary output of 5VDC @ 300 mA max.

Communication Fail Output (one per panel):

This is a dry contact "Form C" relay output that will activate when communications to the host PC is lost for

greater than 30 seconds.

Spare Open Collector Outputs (two per panel):

The CP40 is equipped with two spare open collector outputs. Note: These spare outputs are not available

for use in the following situations: 1) When the SIOPT-16 Auxiliary I/O Board is installed 2) In a dial-up

configuration.

1.5 Auxiliary Supervised Input / Relay Output Board

To further enhance the controller's capabilities, an optional SIOPT-16 Input / Output Module may be added

to include Supervised Input Point Monitoring and Output Control. This optional board is not required for

monitoring door contacts on doors with access control readers installed, as dedicated door contact inputs are

available on the CP40 controller.

The SIOPT-16 board may be added at any time by installing the module in the same cabinet as the CP40.

1.6 Optional Elevator Control

Elevator Control Systems are also available in 16, 32, 48, or 64 Floor configurations. For 16 floor

configurations, an additional elevator output module is mounted on top of the CP40 board. When 32 to 64

floor configurations are required, an additional cabinet containing the required elevator output modules is

supplied. When a valid card is presented and granted access to any floors, the corresponding Elevator

Relay Outputs will turn ON momentarily. These outputs are interfaced with the elevator manufacturers

control system that in turn enables the floor buttons.

Floors can also be programmed with “Floor Unlock Schedules” to allow free access during the times

specified in the schedule.

1.7 PC to CP40 Communications

Note: RS-485 (2-Wire) Multi-Drop Communications recommended for new installations.

The CP40 controller can be configured to communicate in either (2) two wire RS-485 or (4) wire RS-422

protocols with up to (16) sixteen controllers on each communications trunk. The number of communication

trunks supported depends on the software package being used. If only one panel is required, RS-232 (3) wire

communications may be used. See Section 2.15 for communication wiring.

1.7.1 RS-485 (2-Wire) Multi-Drop Communications

Panel addresses are set on the panel using a 16 position rotary switch. This configuration should be used

for new installations.




Panel addresses are set on the CP40 panel using a 16 position rotary switch. This configuration is

supported for backwards compatibility with CP30 RS-422 Multi-Drop installations.

1.7.3 RS-422 (4-Wire) Daisy-Chain Communications

Panel addresses determined by the order in which the panels are connected. This configuration is supported

for backwards compatibility with CP30 RS-422 Daisy-Chain installations.

1.8 CP40 Power Supply

Either an AC or DC power source can power the CP40.

AC Input: Requires a 16VAC/40VA or 75VA Transformer (use 75VA if using I/O Board)

DC Input: Requires a 12VDC/3A Power Supply

Battery Backup: When using an AC power source, connect a 12VDC lead acid battery to the CP40.

Battery Charger: On-board current limited battery charger

Battery Test: Battery test runs twice a day to ensure battery reliability

Auto Shutdown: CP40 will shutdown when power is below a set limit to prevent erratic behaviour and

possible data corruption

1.9 CP40 Cabinet

The CP40 Cabinet is equipped with a factory installed Keylock and Tamper Switch. There are two power

indicator LEDs are mounted on the cabinet to indicate the presence of 12VDC and 5VDC.

Total maximum weight of cabinet is 18.5 Lbs / 8.4 Kg.



Figure 1: CP40 Cabinet



1.10 CP40 Specifications

Power Requirements: ...............................................16VAC, 40VA, 60HZ or a 12VDC / 3A power supply

Power Dissipation: ................................................................... 18 Watts - AC Supply, 8 Watts - DC Supply

Current Draw:

CP40 (no readers/locks) .........................................................................400 mA Maximum

CP40 (with I/O or Elevator board) .........................................................600 mA Maximum

Locking Devices (each lock) .............400 ma. Maximum when powering from lock output

Other readers ............................................................ Consult Manufacturers Specifications

Temperature Range:

Operating ........................................................................................................ 0° to +70° C

Storage ...................................................................................................... - 40° to +70° C

Operating Relative Humidity (non-condensing): .................................................................... 20% to 80%

Storage Relative Humidity (non-condensing): ........................................................................ 20% to 80%

CP40 Cabinet Dimensions: ................................................................. 13 1/8"(W) x 19 3/8"(H) x 3 5/8"(D)

Total Max. Weight of CP40 Unit: .................................................................................. 18.5 Lbs./...8.4 Kg.

32-64 Floor Elevator Control Cabinet Dimensions: ........................................ 24" (W) x 24" (H) x 9" (D)

Total Max. Weight of 32-64 Floor Elevator Control Unit: ................................. approx. 70 Lbs./31.8 Kg.

Battery Backup:

Battery ................................................................. Optional, use 12VDC Lead Acid Battery

Battery Charger .......................Current Limited, allows 2.5Amps for CP40 and all devices

Battery Test ...........................Runs twice a day for one minute to ensure battery reliability

Fuses:

Main 12V Supply ..................................................................................................... 3 AMP

Auxiliary 5V Supply .............................................................................................. 1/2 AMP

Battery Circuit .......................................................................................................... 3 AMP

Reader "A", 12VDC Lock Output and Reader Supply ............................................ 1 AMP

Reader "B” 12VDC Lock Output and Reader Supply ............................................. 1 AMP

Output Relays:

Lock (2 per Panel) .................................. jumper selectable for 12VDC out or dry contact

............................................................................. SPDT 8A @ 24VDC

Communication Fail ........................................................................... SPDT 2A @ 28VDC

Alarm Shunt, Door Held Open, Forced Entry (2 each Per Panel), I/O Board (Output)

........................................................................... SPDT 2A @ 28VDC

Door Contact Inputs (2 per Panel): ............................................. Supervised, normally closed door contact

(Optionally supervised, Cansec end-of-line resistor pack required)



Exit Button Inputs (2 per panel): ....... Powered circuits (5V), normally open, momentary closure required

(Optionally supervised, Cansec end-of-line resistor pack required) Communication Cable Requirements:

RS-232 Cable: ............................... 3 Conductors Stranded, Overall Shield, 18 to 22 AWG

RS-232 Cable Lengths: ................................................................ (22 AWG.) 150 Ft. Max.

(20 AWG.) 200 Ft. Max.

(18 AWG.) 250 Ft. Max.

RS-485 Multi-Drop Cable: .......................... 1 Twisted Pair, Stranded, Shielded, 22 AWG

RS-422 Multi-Drop Cable: .............2 Twisted Pair, Stranded, Individual Shield, 22 AWG

RS-485/422 Multi-Drop Configuration: ....................... Total Trunk Length 2000 Ft. Max.

Cansec Manufactured Reader Cable Requirements:

AKP-200 Keypad Interface to CP40: 3 Twisted Pair, Stranded, Ind. Shielded, 22 AWG

AKP-200 Keypad Interface Cable Length: .................................................. 2,000 Ft. Max.

Note: When using AKP200 Keypads or interface, you must configure the .........................

Wiegand Output Readers: ................ 4 to 7 Conductor, Stranded, Overall shield, 20 AWG

Wiegand Output Reader Cable Length: ......................................................... 500 Ft. Max.

Note: The number of conductors for Wiegand compatible readers depends on the reader

and installation requirements. At a minimum, four conductors are required for power and

data. For LED control on Dual-Line LED readers, two (2) additional conductors are

required, whereas one (1) additional conductor is required for Single-Line LED Readers.

Another conductor may also be required for Sonalert control by the CP40 for

annunciation of Forced Entry and Door Held Open alarms as well as other audible

indicators used for Access Granted & Access Denied conditions.........................................

Other Wiegand Compatible Readers: .................... Same cable requirements as Cansec Wiegand Readers

Cotag Readers and Controllers:

090-2 RH and 280-2 Readers to 5311: . 3 Twisted Pair, Stranded, Ind. Shielded, 22 AWG

................................................................. Up to 200 meters

090-2 RH and 280-2 Readers to CP40: .........................1 Pair, 22 AWG (for LED control)

5311 to CP40: ......................................... 4 Conductor, Stranded, Overall shield, 20 AWG

5311 to 270 Loop Coupler: ................... 2 Twisted Pair, Stranded, Ind. Shielded, 22 AWG

5280 to CP40: ........................................ 7 Conductor, Stranded, Overall shield, 20 AWG

5470 to CP40: ......................................... 6 Conductor, Stranded, Overall shield, 20 AWG

5470 to Door Contact: ...............................................................................1 Pair, 22 AWG

Loop Wire: ................................................................................single core, 16 or 18 AWG

Input/Output Point Wiring: .......................................................... 22 AWG wire to a maximum of 2,000 ft.



Figure 2: CP40 Board Layout

OPTION DIP SWITCH

CP40 Installation Manual Installation


2. Installation

This section provides complete installation instructions for installing and configuring CP40 Access Control

Panels in RS-485 Multi-Drop, RS-422 Multi-Drop, and RS-422 Daisy-Chain configurations. Both RS-422

methods would primarily be used to “add-on” to existing CP30 installations.

2.1 Unpacking

The CP40 enclosure will contain a cardboard cutout that holds the CP40 circuit board securely for shipping.

An auxiliary board and a power supply may also be secured in the cutout if ordered. Also, a plastic bag

containing all screws and connectors will be attached to the cutout.

2.2 Mounting the CP40

The CP40 should be mounted in a secured area with consideration given to the maximum cable lengths to

the readers and for communications.

1. Drill two holes corresponding to the top two mounting holes as shown in Figure 3.

2. Insert #8 screws half way into the holes. Use anchors if necessary.

3. Hang the CP40 cabinet on the two screws, and then tighten them.

4. Drill the bottom two holes and secure the cabinet with two screws.

5. After ensuring that you are properly grounded, remove the CP40 circuit board from the anti-static

bag. Align the mounting holes on the CP40 with the mounting studs on the cabinet and fasten with

the screws provided.

6. Plug the cabinet LED connector into JP40 as shown in Figure 4.

CAUTION: BEFORE REMOVING CIRCUIT BOARDS FROM THEIR ANTI-STATIC BAGS,

ALWAYS TOUCH AN EARTH GROUND TO REMOVE THE ELECTROSTATIC

CHARGE FROM YOUR BODY. IT IS HIGHLY RECOMMENDED THAT WHEN

HANDLING ANY CIRCUIT BOARDS CONTAINING CMOS DEVICES, STATIC

STRAPS SHOULD BE WORN AND CONNECTED PROPERLY TO EARTH GROUND.



Figure 3: Mounting the CP40 Cabinet

Figure 4: Cabinet LED Connector



2.3 Connecting the Cabinet Tamper Switch

Each CP40 cabinet is equipped with a tamper switch located at the top right corner of the cabinet. Cut the

wire loop connected to the switch and connect the two ends to the Cabinet Tamper Input as shown in Figure

5. This is a Normally Closed input and must be enabled as shown.

Figure 5: Cabinet Tamper

2.4 Installing an Input/Output Board (SIOPT-16) 1. Remove the Input/Output board from the anti-static bag. With the power to the CP40

disconnected, connect the I/O board ribbon cable and power cable as shown in Figure 6.

2. Snap the supplied plastic stand-offs into the mounting holes on the CP40. Then align the mounting

holes on the Input/Output board and push down to snap the board into place.

3. Enable the I/O board via the CP40 Option Dip Switch. See Section 2.24 for location of Option

Dip Switch.

Note: For changes to the Option Dip Switch to take effect, a RESET must be performed by either pressing

the RESET switch or by powering up the unit.



Figure 6: Mounting the Input/Output board

2.4.1 Configuring the Input/Output Board (SIOPT-16)

The SIOPT-16 points can be configured via jumpers as either Supervised Inputs or dry contact relay Outputs.

The supervised Inputs require that a Cansec end-of-line resistor pack be connected with a NORMALLY

CLOSED contact at the end of the line. See Figure 7 for the board layout and jumper settings. See sections

2.4.2 and 2.4.3 for point wiring.

2.4.2 Input Point Wiring

All Input points must use Cansec end-of-line resistor pack as shown in Figure 8.

2.4.3 Output Point Wiring

Output points are dry contact relay outputs that may be configured as NORMALLY OPEN or NORMALLY

CLOSED. To operate any device in which has an inductive load (coil) that is powered from a DC source,

you must install a 1N4001 or 1N4002 series diode (or equivalent) in parallel across the coil terminals as

shown in Figure 9. Output relays are rated at: 2A, 30VDC.

Note: If you do not connect a diode as described, you will have erratic operation and will eventually

damage the unit. Switching of 110VAC is not recommended for safety reasons. Another

relay should be used to isolate the AC from the unit.



Figure 7: Input/Output Board Layout

(Fire Alarm Input not UL or ULC Rated)

Figure 8: Input Point Wiring



Figure 9: Output Point Wiring

2.4.4 Input/Output Board Fire Alarm Release (I/O Board Fire Alarm Release not UL or ULC listed)

The 12VDC relay power on the I/O board can be controlled in conjunction with the CP40 or can be

controlled solely through the SIOPT-16 Fire Alarm Release Input, JP6.

To control the I/O Board’s Fire Alarm Release through the CP40's Fire Alarm Release Input, set the

jumper on the CP40 labeled “I/O FAR” (JP56) to “ON”. This jumper is located to the left of the “Reader B”

fuse (see Figure 10). Keep the Fire Alarm Release on the I/O Board (JP6) shorted. When the Fire Alarm

Release is “opened” on the CP40, the 12VDC will be removed from the I/O board and the output states will

change to the opposite of their normally open or closed jumper settings.

To control the I/O Board’s Fire Alarm Release Separately from the CP40's Fire Alarm Release, set the

jumper on the CP40 labeled “I/O FAR” (JP56) to “OFF”. This jumper is located to the left of the “Reader

B” fuse (see Figure 10). Keep the Fire Alarm Release on the I/O Board (JP6) closed or control the Normally

Closed Input (JP6) from another device. When JP6 on the I/O Board is “opened”, the 12VDC will be

removed from the I/O board and the output states will change to the opposite of their normally open or

closed jumper settings.



Figure 10: I/O Board Fire Alarm Release (I/O Board Fire Alarm Release not UL or ULC listed)

2.5 Elevator Control Systems

Elevator Control Systems are available in 16, 32, 48, and 64 floor configurations. One (1) Elevator Control

System is required for each elevator cab with one (1) reader port available for use inside the elevator. Dry

contact relay outputs are provided from the Elevator System to interface with the elevator manufacturers

system. The second reader port on the CP40 (Reader “B”) may only be used as a “Lobby Call-Down Reader”

that will activate its lock output when used by a cardholder with access to at least one (1) floor. The lock

output can then be used to initiate a call-down to the elevator manufacturer’s system. Programming and

transactions are not available for “Reader B” on an elevator configuration.

2.5.1 Elevator Configurations

If you are installing a 16 Floor Elevator Control System, the Elevator Control Board (SIOPT-16) must be

installed directly on top of the CP40 as per Figure 6 on page 2-4. If you are installing either a 32, 48, or 64

Floor System, the Elevator Control Systems are comprised of two (2) units. In this case the Elevator Boards

(SIOPT-16) are connected to an Interface board mounted in the 2nd

cabinet. The Interface board communicates

to an RS-422 (4 wire) communications port on the CP40 in the 1st cabinet. See Section 2.15 for communication

wiring. The Elevator Outputs should be configured as NORMALLY OPEN (See Figure 7, page 2-5).

To disable access control and activate all floor selection buttons in the elevator cab on Fire Alarm:

16 Floor Configuration: See section 2.4.4

32-64 Floor Configuration: connect JP6 (See Figure 7 on page 2-5) on each Elevator Control Board

(SIOPT-16) to the normally closed output of the Fire Alarm panel. When connecting the Fire Alarm Release

Inputs in parallel to the Fire Alarm Panel’s output, maintain polarity on JP6 of each SIOPT-16 board.



Figure 11: Typical Elevator Configuration

Travel Cable: For Wiegand readers, use 5 to 7 conductor, #18 AWG, overall shield (max. 500 ft.)

Contact elevator manufacturer for installation of Travel Cable.

2.6 Connecting the Locking Devices

This output provides either a dry contact relay output, Normally Open or Normally Closed, or 12VDC @

400 mA maximum to the locking device for each reader. Since the 12VDC outputs are supplied through

on-board relays, Normally Open or Normally Closed connections are available to accommodate electric

strikes or magnetic locks. Lock output relays are rated at 8 Amp, 24VDC. See the following figures for

configuration and wiring.

Note: You must consult the local fire authorities before connecting any card readers or locking devices to

fire exit doors.

LED Indicators: Each Lock Output has an LED indicator (located next to the Lock Output terminal) that

turns ON to provide a visual indication that the lock output is activated. Reader “A”: LED7,

Reader “B”: LED15



Figure 12: Connecting 12V Magnetic Locks, < 400 mA

Figure 13: Connecting Electric Strikes, >12V or 400 mA



Figure 14: Connecting 12V Electric Strikes, <400 mA

Figure 15: Connecting Magnetic Locks, >12V or 400 mA



2.7 Connecting Door Contacts and Exit Buttons

Door Contacts: To monitor Forced Entry or Door-Held-Open alarm conditions, connect NORMALLY

CLOSED door contacts to the door contact inputs. Door Contact inputs must be

“Enabled” via jumpers JP23 (Reader “A”) and JP52 (Reader “B”) as shown (see Figure

17) to monitor alarm conditions.

Exit Buttons: To activate a “Request-to-Exit” command that in turn activates the Lock Output and

Alarm Shunt Output, connect a NORMALLY OPEN MOMENTARY switch to each

exit button input. You must also enable exit button operation on each door by turning ON

switch positions 2 (Reader “A”) and 5 (Reader “B”) on switch S5 (see Figure 17).

If an exit button input is held in a closed state, only one “Request-to-Exit” command will

be initiated. This “one-shot” approach is implemented to prevent vandals from keeping

the Exit Button closed, therefore maintaining an unlocked state on the door.

Note: It is important to note that both the Door Contact and Exit Button Inputs are 12V pull-down

circuits. Only connect dry contact devices to these inputs. Failure to do so may cause erratic

operation and possibly damage the CP40.

Figure 16: Door Contact Wiring



Figure 17: Enabling Door Contact and Exit Button Inputs

Figure 18: Exit Button Wiring



2.8 Connecting Wiegand Compatible Readers

Wiring applies to all Wiegand compatible readers with a standard 26 bit or Cansec 37 bit format. Connect

and configure the readers as shown in Figure 20. For support of other custom Wiegand formats, contact

Cansec Systems Ltd.

Note: The number of conductors for Wiegand compatible readers depends on the reader and installation

requirements. At a minimum, four conductors are required for power and data. For LED control on Dual-

Line LED readers, two (2) additional conductors are required, whereas one (1) additional conductor is

required for Single-Line LED Readers. Another conductor may also be required for Sonalert control by the

CP40 for annunciation of Forced Entry and Door Held Open alarms as well as other audible indicators used

for Access Granted & Access Denied conditions.

Warning: The jumper settings for reader power are set to 12V by default. Check the documentation

that came with the reader before connecting to the CP40. Connecting a 5V reader to 12V will

damage the unit. All Cansec manufactured readers will operate at 12V.

Figure 20: Connecting Wiegand Compatible Readers



Connecting Wiegand Compatible Readers (contd.)

When connecting certain types of Wiegand compatible readers, it may be necessary to read the data in

reverse. For example, the Sensor Wiegand Reader (Insert Version) reads the card data when removing the

card that then transmits the data in reverse to the host controller. In this case or with other readers that

transmit in a reverse direction, switch S5 must be set as shown in Figure 21.

Figure 21: Wiegand Reverse Switch Setting

2.9 Connecting the Fire Alarm Release and Reset Inputs (Fire Alarm Release and Reset not UL or ULC listed) Fire Alarm Release Input: Connect a normally closed dry contact output from a Fire Alarm Panel

so that power to the lock outputs will drop off in the event of a fire. To

ENABLE the Fire Alarm Release, move JP62 to pins 2-3 as shown in

Figure 22.

Fire Alarm Reset Input: When JP63 is ENABLED (Pins 2-3) and a Fire Alarm Release has

occurred, a momentary closure must be applied to the Fire Alarm Reset

Input to restore power to the lock outputs. When JP63 is DISABLED

(Pins 1-2) and a Fire Alarm Release has occurred, power to the lock

outputs will be returned once the Fire Alarm Release Input is closed.

See Figure 22.

Control of I/O Board: When JP56 is set to ON; the CP40 will control the I/O Board Fire Alarm

Release circuit. When JP56 is set to OFF, the I/O Board Fire Alarm

Release circuit is independently controlled via its own Fire Release

input. For CP40 control, the Fire Input on the I/O board must be

shorted.



Figure 22: Enabling Fire Alarm Release and Reset

(Fire Alarm Release and Reset not UL or ULC listed)

2.10 Power Supply Inputs/Outputs and Battery Backup

Power Supply Inputs: The CP40 may be powered from either an AC or DC power source (not both).

AC Supply: Use a 16V, 40VA transformer connected to JP59.

DC Supply: Use a 12V, 3A supply connected to JP60 (Cansec PS123A Supply recommended)

Battery Charger: You may connect a 12V lead acid re-chargeable battery to the battery terminals provided.

Note: Only the AC input will charge the battery. If the DC input is used, the battery circuit does not

function, thus you will have to connect the battery to the DC supply (if battery backup is desired).

Caution: Watch polarity when connecting the battery to the CP40.

Battery Test: A battery test is performed at 10:00 am and 6:00 pm. During these times, the CP40 will run

from battery power for one (1) minute. If during this time the battery level drops below a preset value, a

message will be transmitted to the host PC (not supported in PassMaster and some versions of Maestro) host

software may) If you are connecting a battery to the CP40 (“To Battery” connectors), set JP46 to ON to

enable battery testing. If a battery is not connected to the CP40, set JP46 to OFF to disable battery testing,

otherwise the test will fail. See Figure 23 for location of JP46.



Automatic Shutdown: When a battery is connected to the CP40 and a power failure occurs, the CP40 will

automatically shutdown when the battery voltage drops below 7.5V. This feature prevents data corruption

from occurring on the CP40 due to low voltage.

5VDC Auxiliary Output: JP58 provides 5VDC @ 300 mA maximum.

12VDC AKP100/200 Keypad Output: JP5 provides 12VDC for connecting the Cansec AKP100/200 series

keypads.

Figure 23: Power and Battery Connections



2.11 Forced Entry, Door Held Open, Alarm Shunt Outputs

Each reader port on the CP40 is equipped with three relay outputs for Forced Entry, Door Held Open, and

Alarm Shunt. Each relay provides a dry contact, SPDT 2A @ 28VDC maximum. Door contacts must be

connected to the CP40 door contact input(s) and enabled to monitor for “forced entry” and “door held open”

alarm conditions. An LED is located near each output on the CP40.

Tamper/Forced Entry Output:

Forced Entry: If the door contact is forced open without either a valid “Access

Granted” or Exit Button transaction, a Forced Entry Alarm occurs and

this output will be activated. A message will also be transmitted to the

host if the panel is on-line.

Tamper: A reader tamper alarm can be created if pin 1 and pin 8 are shorted

together. Connect a NORMALLY OPEN switch in the back box of the

reader that shorts out pins 1 and 8 on the reader port. If someone pulls the

reader from the wall, the switch will close and activate this output.

Door Held Open Output: If a cardholder is granted access by either card or exit button usage and

the door is held open longer than the Door Held Open time programmed

from the host PC, a Door Held Open Alarm occurs and this output will be

activated. A message will also be transmitted to the host if the panel is

on-line.

Alarm Shunt Output: This output will activate when a user is granted access by using a card or

exit button. This output may be used to bypass external alarm points.



2.12 Comm Fail Output

JP21 is a dry contact relay output that will activate when communications to the CP40 is lost. The main

function of this output is to provide a means of local annunciation. See Figure 24 for location of JP21.

2.13 Lithium Battery for Database and RTC JP25 controls the attachment of power from the on-board lithium battery to the database and real time clock

circuitry. The jumper is set to “OFF” by default for shipping and storage and should be set to “ON” after

installation to maintain the integrity of the database and real time clock. See Figure 24 for location of JP25.

Figure 24: Comm Fail Output & Lithium Battery Jumper



2.14 Communications

Note: RS-485 (2-Wire) Multi-Drop Communications recommended for new installations.

The CP40 can be configured to communicate in either (2) two wire RS-485 or (4) wire RS-422 protocols

with up to (16) sixteen controllers on each communications trunk. The number of communication trunks

supported depends on the software package being used. See Section 2.15.1 to 2.15.3 for the various

communication configurations and wiring diagrams. See Figure 25 for location of communication

connectors, indicators, jumpers, and switches.

Figure 25: Location of Communication Jumpers, Switches, Connectors, LEDs

Communication LEDs: These are bi-coloured LEDs that will flash between RED and GREEN when

communications are active on the corresponding port. RED indicates that the panel is

receiving while GREEN indicates the panel is transmitting.

CH1 LED: This LED will indicate communications on CH1. This port is only used

for Daisy-Chain communications (CP30 mode only), or to 32-64 floor

elevator controllers, or to Cansec’s AKP series keypads.

CH2 LED: This LED will indicate communications on CH2 that is used on all

configurations.

Address Switch: The 16 position rotary switch (see Figure 25) is used to set the address when the panel is

configured for multi-drop operation. The switch is labeled in Hexadecimal (0 to F);

where 1=Panel# 1 and 0=Panel #16 (see Figure 26).



Figure 26: Hexadecimal Conversions

Switch Position (Hexadecimal)

Panel Number Switch Position (Hexadecimal)

Panel Number

1 1 9 9

2 2 A 10

3 3 B 11

4 4 C 12

5 5 D 13

6 6 E 14

7 7 F 15

8 8 0 16


The 16 position rotary switch, S1, determines panel addresses. This configuration is supported for

backwards compatibility with existing 4-Wire Multi-Drop installations. See Figures 27 and 28 for wiring,

jumper, and switch settings.

If you are installing a new system, you should use the RS-485 (2-Wire) Multi-Drop configuration. See

Section 2.15.3 and Figures 29, 30, and 31.


The 16 position rotary switch, S1, determines panel addresses. This configuration should be used for new

installations. See Figures 29, 30, and 31 for wiring, jumper, and switch settings.



Figure 27: RS-422 Multi-Drop Settings

Figure 28: RS-422 Multi-Drop Settings Using CLAUSB

6 5 4 3 2 1

SerialSW

USB

PWR

RxD

TxD

1 2 3 4

ON

RS-422

CP30 JP19OR

CP40 JP2

TO OTHER PANELS

DIPSWITCH SETTINGS

TO USB PORT(CABLE SUPPLIED)

SHIELD

OPEN THE METAL CASE OF THE AND SET JUMPERS AS SHOWN

CLAUSB



Figure 29: RS-485 Multi-Drop Settings

Figure 30: RS-485 Multi-Drop Wiring Using CLA-50

RS-485

GND

BA

SHIELD

TO OTHER PANELS

CP30 JP19OR

CP40 JP2PC SERIAL PORT DB9

(CABLE SUPPLIED)

12V POWER SUPPLY (SUPPLIED)



Figure 31: RS-485 Multi-Drop Wiring Using CLAUSB

6 5 4 3 2 1

SerialSW

USB

PWR

RxD

TxD

1 2 3 4

ON

RS-485

CP30 JP19OR

CP40 JP2

TO OTHER PANELS

DIPSWITCH SETTINGS

TO USB PORT(CABLE SUPPLIED)

SHIELD

FOR RS-485 COMMUNICATIONS,

. USE FACTORY DEFAULT (SHOWN RIGHT). VERIFY THESE

JUMPERS SETTINGS FOR TROUBLESHOOTING PURPOSES ONLY.

DO NOT CHANGE THE JUMPER SETTINGS INSIDE THE CLAUSB



Figure 32: RS-485 Multi-Drop Wiring Using CANLAN



2.15 Elevator System Settings and Communications Wiring 16 Floor elevator control systems can be implemented on any configuration, i.e. RS-422 Daisy-Chain,

RS-422 Multi-Drop, or RS-485 Multi-Drop. However, 32-64 Floor systems can only be connected in an

RS-422 Multi-Drop configuration.

16 Floor systems are comprised of a CP40 controller with an Elevator (I/O) board mounted on top of the

CP40 while 32-64 Floor systems are comprised of a CP40 and a 2nd

cabinet with two to four Elevator

boards connected to an elevator interface board (see Figure 34). The elevator interface board

communicates to the CP40 via RS-422. For all elevator systems, configure the Elevator (I/O) boards as

shown in Figure 32. See Figures 33-35 for settings and wiring for 32-64 Floor systems.

Note: See Section 2.4.4 for information on controlling the Fire Alarm Release on the Elevator (I/O) board.

Note: Firmware programmed with the elevator feature must be installed in the CP40.

Figure 33: Configuring the 16 Floor Elevator Board



Figure 34: CP40 Jumper Setting (RS-485 Multi-Drop) for 32 Floor Elevator Control

Figure 35: 32-64 Floor Elevator Controller Layout and Power inputs

+



Figure 36: CP40 (RS-485) to 32-64 Floor Elevator Controller (RS-422)

Communications Wiring

K

,



2.16 Remote CP40 Trunks Using Dial-Up Modems This configuration is used for communication over a standard telephone line and is only supported in a

Daisy-Chain configuration. Contact Cansec Systems for an approved modem manufacturer and model.

Note: At the time of this document being printed, the dial-up configuration of the CP40 running in CP40

mode was not final, however dial-back from the CP40 to the host will be supported. Future revisions of this

manual will contain configuration and wiring information.

See Figure 36 for configuration and wiring.

Note: After all connections are made and the configuration is set, the modems should be powered ON.

Then reset the CP40 to initialize the modem and for switch setting changes to take effect. Dial up the

remote CP40 from the host to establish communication.



Figure 37: Remote Dial-up Configuration and Wiring

9

CLA50

CUSTOM CANSEC MODEM CABLE(PART# CA-SOMOCAB)

12V POWER

SUPPLY

(SUPPLIED)

CANSEC MODEMS(PART# CA-CANMODEM)



2.17 Spare On-Board Inputs and Outputs

The CP40 is equipped with two (2) on-board Supervised Inputs and two (2) open collector Outputs that may

be used if an auxiliary I/O board is not installed and if the CP40 is not being used in a remote dial-up

configuration. These points will be “mapped” as points one to four when the CP40 is configured (at the

host) with a 16 Point Input/Output board. You must configure points 1 and 2 as Inputs and points 3 and 4

as Outputs.

For Example: IN1 (JP44) on CP40 must be programmed as an Input on Point 1 at the host.

IN2 (JP45) on CP40, must be programmed as an Input on Point 2 at the host.

OUT1 (JP54) on CP40 must be programmed as an Output on Point 3 at the host.

OUT2 (JP55) on CP40 must be programmed as an Output on Point 4 at the host.

See Figures 37 and 38 for the location and wiring of these Inputs and Outputs.

Note: The two spare Outputs are open-collector type and may sink a maximum of 30 VDC @ 250 mA.

Figure 38: Supervised Spare Input Wiring



Figure 39: Spare Output Wiring

2.18 Reader and Communication Grounding

Communication Wiring: The shield of the communication wiring should be connected to each CP40/CP30

on the communications line. The shields should also be connected together at each panel so that there is a

common reference point that will eventually be connected to the PC’s earth ground. Do not connect the

CP30/40 signal ground to earth ground at each panel as this will result in a ground loop that may cause

erratic operation.

Reader Wiring: Do not connect the shield at the reader end to ground. At the panel end, terminate the

reader shields to the panel ground (PIN 8 of reader port).

CAUTION: When using DC power supplies, make sure that the negative of the supply is not connected to

the cabinet’s earth ground as this may result in a ground loop.

Figure 40: Reader & Communication Grounding



2.19 Firmware Status LED

The FS LED provides a visual indication that the CP40 processor is running and is the first indication that

the board is functioning properly. This LED should normally be flashing ON/OFF in one-second intervals.

Figure 41: Firmware Status LED

2.20 Reader Data LEDs

The CP40 has a Reader Data LED for each of the two reader ports. These LEDs provide an indication that

card data has been read. The LEDs are normally RED and will turn GREEN for approximately one second

once data is read. These LEDs will also provide indication of bad card reads but this information was not

available at the time of this document being printed.

Figure 42: Reader Data LEDs



2.21 Option Dip Switch (S2)

The following describes the functions of the Option Dip Switch.

Note: The Reset Switch must be pressed in order for the functions to take effect once a switch setting has

been changed.

SWITCH / LABEL

FUNCTION

1- I/O

ON: When SIOPT-16 board is installed

OFF: When there is no SIOPT-16 board installed. In the OFF position, the four spare on-

board points are functional if programmed from the host (PassMaster or Maestro).

Note: Elevator firmware is required for elevator configurations. This switch has no function

when elevator firmware is installed. 2- MASTER

ON: Bypasses End of Line Resistors (CA-EOLRES).

OFF: Disables this feature.

3- MODEM

ON: Reserved for future use. Turn OFF

OFF: Disables this feature. 4- MULTI / DAISY

ON: Enables DAISY-CHAIN communications

OFF: Enables MULTI-DROP communications 5- CLR

ON: Then press RESET switch to erase the CP40's database and return panel to virgin state.

The CP40 Firmware Status LED will flash rapidly when initialization is complete. To return the

panel to normal operating mode, turn switch to OFF and press reset.

OFF: Normal operation 6- DIAG

ON: Then press RESET to cycle all outputs ON/OFF in one second intervals, including I/O

board outputs and spare on-board outputs. Note: Unplug comm. connectors first.

OFF: Then press RESET to turn OFF diagnostics.

Figure 43: Option Dip Switch



2.22 Upgrading Firmware

To install or upgrade firmware, do the following:

1. Unplug the communications connector.

2. Power OFF the CP40 and install or replace the firmware.

3. Apply power and perform the power up procedure described in either Section 2.26 (Daisy-Chain)

or Section 2.27 (Multi-Drop).

2.23 Multi-Drop Power Up Procedure

New Installations: After all CP40's have been installed and the wiring is complete, perform the following

procedure one panel at a time. It is recommended that you connect the first panel, establish stable

communications, and then connect the next panel and so on. This is a systematic approach to

commissioning the system and makes it easier to troubleshoot if you are experiencing communication

problems.

1. With power OFF, verify communication wiring and jumper settings as per Section 2.14.1, Figures

27 and 28 for RS-422 Multi-Drop, and Section 2.14.2, Figures 29, 30, and 31 for RS-485 Multi-

Drop.

2. Set “Lock Power” Jumpers as per Section 2.6.

3. Enable Door Contact Monitoring & Exit Buttons as per Section 2.7 and Figure17.

4. Set Reader Type Jumpers and Switches as per Section 2.8 (Wiegand).

5. Set Lithium Battery Jumper to “ON” as per Section 2.13 and Figure 24.

6. Unplug the communications connector, apply power to the panel and clear the panel memory by

turning ON switch position 5 of the Option Dip Switch and pressing RESET. The CP40 Firmware

Status LED will flash rapidly when initialization is complete. Turn switch position 5 back to OFF

and press reset. If the readers are connected, the Reader LEDs should be flashing between RED

and GREEN indicating that the panel is in virgin mode.

7. Set the “Option Dip Switch” as per Section 2.21.

8. Set the rotary “Panel Address Switch” as follows, then press the RESET button:

Switch Position (Hexadecimal)

Panel Number Switch Position (Hexadecimal)

Panel Number

1 1 9 9

2 2 A 10

3 3 B 11

4 4 C 12

5 5 D 13

6 6 E 14

7 7 F 15

8 8 0 16



9. Plug in the communications connectors and attempt to establish communications from the

PassMaster or Maestro host PC. At this point, the panel should report a “SYSTEM

INITIALIZATION” message.

10. To check communications in PassMaster, press the CTRL & F3 keys simultaneously to display the

Communication Statistics screen. In Maestro, select Communications from the View menu.

Periodically monitor the “Timeouts” counter. A good reference is 5,000 polls without Timeouts.

If you are experiencing unacceptable or no communications problems, please refer to the

Troubleshooting section.

11. Follow the above procedure for each panel in the trunk.

CP40 Installation Manual Trouble Shooting


3. Troubleshooting

3.1 Multi-Drop Communication Problems

SYMPTOM: NO COMMUNICATION TO ANY PANELS

1. Check the Communications Statistics in the host software. Check that the POLLS count is

incrementing for each panel programmed. If the panel is not being polled, you must program the

panel into the system.

2. Check that the COMM port being used on the PC is assigned to the trunk. Please note that when

you assign or change a COMM port assignment, you must quit and re-start Maestro to re-initialize

the COMM ports. Now perform a “Restore Communications” command from the host. A

“SYSTEM INITIALIZATION” message should be received from each panel.

3. If you are still unable to establish communications, check the RS-232 wiring to the CLA-

50/CLAUSB and jumper settings on the panels. To check the RS-232 wiring at the CLA-

50/CLAUSB, disconnect the RS-232 communications connector and measure the voltage from

GND (pin 5 on the 5 pin connector) to pins 1 and 2 (of the connector). Pin 1 should measure 0V

while pin 2 should measure -5 to -12VDC. If wrong, correct the wiring and perform a “Restore

Communications” command from the host.

4. Make sure that the address on the panels has been set as per section 2.27. If two panels are set

with the same address, conflicts will occur and cause communication problems.

SYMPTOM: NO COMMUNICATIONS TO SOME PANELS IN THE TRUNK

1. Double-check the RS-422/485 wiring and jumper settings on these panels.

2. Make sure that the address on the panels has been set as per section 2.27. If two panels are set

with the same address, conflicts will occur and cause communication problems.

3. Perform steps 6 to 10 as described is Section 2.27 (Multi-Drop Power Up Procedure).

4. If all of the above fails to restore communications, the panel(s) may have been accidentally

damaged during installation. If the panel seems to be functioning (example: exit button functions,

re-initializes, resets etc.), the RS-422 or 485 communication IC's may be damaged. Making sure

the power is removed first, you may try changing the RS-422 communication IC's (3486 &3487,

located near the communication jumpers) or RS-485 IC located under the communication jumpers.

Power up the panel and perform a “Restore Communications” command from the host.

5. If all attempts to restore communications fail, contact Cansec Systems technical support.



3.2 Reader Problems

SYMPTOM: NO READ, NO AUDIBLE, NO LED

1. Measure the voltage input at the reader. Make sure the polarity is correct and that the voltage

meets the minimum requirements as per the reader manufacturer. Wiegand readers require from 5

to 12VDC. Consult other reader manufacturer documentation for voltage requirements. If the

voltage is not present, check fuses on the CP40.

2. If the voltage is correct, confirm the wiring and make sure the reader jumpers/switches are set as

per sections 2.8 (Magsrtipe Readers) or 2.9 (Wiegand Readers).

3. If the voltage, wiring, and jumpers are all correct, try connecting the reader on a short cable at the

CP30. If the reader functions properly, there could be a problem with the cable such as a short.

SYMPTOM: READER ALWAYS IN TAMPER ALARM (CANSEC READERS ONLY)

1. If both readers show Tamper, most likely the cabinet tamper input is open. Short the input by

closing the switch or disabling (see section 2.8).

SYMPTOM: WIEGAND READER TRANSMITS "ILLEGAL SYSTEM CODE" MESSAGE

1. Check the wiring of the D1 and D0 signals as they may be reversed.

2. If the problem still persists, check the Wiegand Forward/Reverse switch settings as per Section

2.9. For most readers, the switches should be set to "Forward" with the exception of HID

(formerly Sensor) Wiegand Insert readers.

3. If the problem persists, perform a download to initialize the CP40 with the software embedded

system code.

4. If the problem is intermittent, make sure the shield of the reader is connected to pin 8 of the reader

port. Also ensure that the data lines (D1 & D0) are not twisted together in a twisted pair.



3.3 Monitored Input/Relay Output Problems

SYMPTOM: INPUTS/OUTPUTS NOT RESPONDING

1. Check that the CP40 has Inputs and Outputs defined under Panels under the SETUP menu and that

the panel has been downloaded since being installed.

2. Make sure that the Option Dip Switch has the I/O Option Enabled. Note: Only Enable the I/O

option when using the SIOPT-16 Auxiliary I/O Board.

3. Try a Maintained command on one of the outputs and see if a message from the CP40 is returned to

the Host. If the CP40 is returning the correct message, check the corresponding LED for that output

on the I/O board. If it is ON and the output is not operating as desired, check the jumpers for that

output as per Figure 7.

4. If inputs are not responding, check the jumper settings as per Figure 7. To check the wiring of the

point, remove the connector from the I/O board and measure the resistance of the point. If the

point is secure, the resistance should measure approximately 26Kohms. When the point is open,

the resistance should measure approximately 105Kohm. Other values indicate a wiring problem or

a defective EOL Resistor Pack.

3.4 Other CP40 Problems

SYMPTOM: NOT REPORTING THE DOOR CONTACT OPENING (FORCED ENTRY, DOOR

HELD OPEN ETC.)

1. Check the Door Contact jumper settings as per section 2.7, they should be set as OPEN. If the

door contact status is still not being displayed on the PC, check the AUDIT file to see if the status

is actually being reported but not being displayed. Consult the Maestro or PassMaster Software

Manual for reporting options

.

SYMPTOM: INTERMITTENT LOCK UPS

1. Intermittent lock up problems are commonly caused by Back EMF (electromagnetic force) due to

the collapsing field of an inductive load such as a coil. Usually this is a locking device connected

to the lock output or a relay output on the I/O board. Resetting the controller usually clears this

type of lock up problem temporarily. Make sure that a 1N4001 or 1N4002 series diode is

installed across the coil (at the coil) as shown in Figures 9 and 13. If the problem persists the

diode may not be adequate. Isolate the device with a Lock Relay Adapter or another relay and

diode combination.

2. If the problem persists, check the power requirements of all the devices being powered from the

power source. These devices may be overloading the supply and causing the AC input.

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