Cooper Security M750 Installation Instructions Manual

© Cooper Security Limited 2005-2006 Every effort has been made to ensure that the contents of this book are correct. However, neither the authors nor Cooper Security Limited accept any liability for loss or damage caused or alleged to be caused directly or indirectly by this book. The contents of this book are subject to change without notice. iD Plus is a trademark of Novar ED&S. All trademarks acknowledged. Printed and published in the UK. Cooper Security Ltd., Security House, Vantage Point Business Village, Mitcheldean, Gloucestershire, GL17 0SZ England www.coopersecurity.co.uk Product Support (UK) Tel: +44 (0)870 7575400 Available between: 08:15 and 17:00 Monday to Friday Product Support Fax: +44 (0)1594 545401.

3333 Contents Introduction...............................................................3 Fitting and Wiring Procedure .....................................7 General Wiring Considerations ..................................7 Cable Type...........................................................7 Cable Segregation...............................................7 Cables Routed inside the Control Panel...............7 Initial Power-Up Procedure and Checks ....................7 Zone Wiring ...............................................................8 Anti-Masking Zone Connections ...........................8 Network Connections................................................9 Network 1 Connections ........................................9 Network 2 Connections ........................................9 Telephone Connections............................................9 Approved Usage ................................................10 Digital Communicator Outputs ...............................10 Transistor Outputs.....................................................10 Relay Output ...........................................................11 External Bell/Sounder Connections ..........................11 Auxiliary Tamper Input .............................................11 Line Fault Input........................................................11 Communicator Line Fault...................................12 Remote Reset Input ................................................12 Extension Loudspeaker Connections.......................12 AC Input Connector................................................12 Battery Connector...................................................12 12Vdc Auxiliary Power Terminals..............................12 Back Tamper Connector.........................................12 Factory Restart Connector ......................................13 Serial Printer Connector...........................................13 Output Module Connector......................................13 Engineer Keypad Connector ..................................13 Serial Connection to PC..........................................14 Power Availability.....................................................14 Connecting to the Mains Supply.............................14 LEDs.........................................................................14 Polyfuses..................................................................15 Electromagnetic Compatibility ...............................15 Technical Specifications .........................................15 Introduction The layout of the control panel and the main features of the printed-circuit board (PCB) are shown in Figure 1 and Figure 2 respectively. The panel includes a wealth of features, including: • Eight on-board zones. • Two networks ports for the connection of keypads, LEC2s, XNodes, MNodes and ID Node (see Figure 3). The additional network devices enable the system to be expanded up to 40 zones. • USB connector for local connection of a PC running the Downloader configuration and monitoring software. • An on-board modem connected to PSTN and RJ11 ports to enable remote connection to a remote alarm receiving centre or to a PC running the Downloader software (M800 only). • Switched-positive, switched-negative and voltage-free programmable outputs. • 16-channel digital communicator outputs for connection to an alarm receiving centre or to provide additional programmable outputs. • Engineer keypad port. • CPA6 output port to provide additional programmable outputs. • Serial printer port. This leaflet describes how to install the control panel. If you need a general overview of its features, please refer to the Engineering Manual. If you require details of how to install keypads or other ancillary devices, please refer to their separate installation instructions. Note: Before connecting any external devices to Note: Before connecting any external devices to Note: Before connecting any external devices to Note: Before connecting any external devices to the control panel, make sure that it is able to the control panel, make sure that it is able to the control panel, make sure that it is able to the control panel, make sure that it is able to provide sufficient current to power such devices, as provide sufficient current to power such devices, as provide sufficient current to power such devices, as provide sufficient current to power such devices, as described on page described on page described on page described on page 14 14 14 14....

Fused Terminal Block Fixing hole (1 of 3) Fixing hole (3 of 3) Printed Circuit Board (PCB) Fixing hole (2 of 3) Mains terminal block Mains transformer Back tamper switch mounting slots Ensure earth lead is connected to front cover Mains cable entry ONLY Battery position Figure 1: Control Panel Layout

5555 LED2 DIGITAL COMMUNICATOR TRANSISTOR OUTPUTS RELAY1 DIGITAL COMMUNICATOR LED3 LED4 ENGINEERS KEYPAD USB SERIAL PRINTER LED1 LED6 LED5 LED7 LED14 LED10 LED8 LED12 LED13 1 6 2 16 7 19 20 22 8 9 10 11 15 12 13 5 3 14 21 1 2 3 4 5 6 7 8 0v -3 +4 -5 12V 9 10 11 12 13 14 15 16 LED11 N/O N/C COM + 0V TRG STB TR- H/O H/O RST FLT AUX TMP SPKR AC IN BATT REM LINE - - BELL - + REMOTE NETWORK 1 REMOTE NETWORK 2 PSTN 0V 0V 12V 12V A B C D E A B 4 A B A1 B1 SK2 OUTPUT MODULE CIRCUIT 1 Z1 T1 CIRCUIT 2 Z2 T2 CIRCUIT 3 Z3 T3 CIRCUIT 4 Z4 T7 FACTORY RESTART BACK TAMPER 18 17 T4 CIRCUIT 5 Z5 T5 CIRCUIT 6 Z6 T6 CIRCUIT 7 Z7 CIRCUIT 8 AUX Z8 T8 E/G D C/F LED9 Figure 2: Control Panel PCB Ref Ref Ref Ref Description Description Description Description See Page See Page See Page See Page 1 Zone connectors 7 2 Network 1 connector 9 3 Network 2 connector 9 4 PSTN (Telephone) terminals (M800 only) 9 5 RJ11 (Telephone) socket (M800 only) 9 6 Digital communicator outputs 10 7 Transistor outputs 10 8 Relay outputs 11 9 External bell/sounder connections 11 10 Auxiliary tamper input 11 11 Line fault input 11 12 Remote reset input 12 Ref Ref Ref Ref Description Description Description Description See Page See Page See Page See Page 13 Extension loudspeaker connections 12 14 AC input connector 12 15 Battery connector 12 16 12Vdc Auxiliary power terminals 12 17 Back tamper connector 12 18 Factory restart connector 13 19 Serial printer connector 13 20 Output module connector 13 21 Engineer keypad connector 13 22 USB connection to a PC 14 LEDs 1-14 14 Polyfuses 15

Network 1 Network 2 800 or 750 CONTROL PANEL 3 Outputs 8 Zones 6 Outputs 24 ID Zones Network 2 - Wiring Option 3 ID Node Network Wiring = 4 Core (6 core if keypad is used) Only one ID Node can be connected (configured to address nodes 1, 2 and 3) ID Node Network 2 - Wiring Option 2 Remote Keypads/LEC2s Max 3 Network Wiring = 6 Core Network 1 (Supports only remote keypads and LEC2s) Engineer’s keypad (cannot have zones or outputs) Max 4 100m max to furthest keypad/LEC2 1 Output 2 Zones 1 Output 2 Zones 1 Output 2 Zones 1 Output 2 Zones NOTE: Do not connect an XNode/MNode to the same network as an ID Node or keypad Network 2 - Wiring Option 1 XNodes and/or MNodes An XNode/MNode is able to drive 4 Remote Keypads and a Loudspeaker 100m max 100m max to furthest keypad 300m max to furthest XNode/ MNode Network Wiring = 4 Core 2 Outputs 8 Zones 8 Zones Max 3 8 Zones Max 4 2 Outputs 2 Outputs XNode/ MNode 1 XNode/ MNode 2 XNode/ MNode 3 100m max 1 Output 2 Zones 1 Output 2 Zones 1 Output 2 Zones 100m max to furthest keypad/LEC2 Network Wiring = 6 Core Figure 3: Overview of Network Wiring Options Note: Note: Note: Note: • Using a Networker Interface Board (NIB) (with power supply) enables the maximum distance from a control panel to an ID Node or keypad to be increased to 1km. • The supply voltage at each Network 1 or 2 device must not drop below 10.5V (recommended to be at least 12V). Refer to the Engineering Manual for details of how to calculate and overcome voltage drops. • Direct connection of an LEC6 (6-zone) expander to Network 1 or 2 is supported for existing systems that are being upgraded. Ensure that the number of zones does not exceed the number that would be provided by keypads alone.

7777 Fitting and Wiring Procedure To install the control panel: 1. Remove the front cover by releasing its three retaining screws and disconnecting the earth bonding cable from the spade connector on the transformer. Warning: mains voltages may be present at the Warning: mains voltages may be present at the Warning: mains voltages may be present at the Warning: mains voltages may be present at the mains terminal block (see mains terminal block (see mains terminal block (see mains terminal block (see Figure Figure Figure Figure 1).).).). 2. Connect any optional modules to the PCB. 3. Slide the back tamper switch mounting plate into the slots shown in Figure 1. 4. Route all cables through the cable-entry holes located on the base of the control panel. All holes used must be fitted with a rubber grommet to protect against sharp edges. The mains cable must use its own cable-entry hole. 5. If required, secure the control panel to a wall using not less than 30mm x No 10 screws through the three fixing holes shown in Figure 1. 6. Connect all wiring except to the standby battery (connect during power-up procedure). General Wiring Considerations Cable Type Cable Type Cable Type Cable Type In general, the control panel requires standard 7/0.2 un-screened alarm cable for wiring to XNodes, MNodes, keypads, LEC2s, ID Node and zone sensors. The number of cores varies, depending on the device being connected. Screened cable may prove necessary if the installation site has equipment that produces high levels of R.F. (Radio Frequencies), e.g. heavy industrial plant such as welding equipment, etc. If screened cable is required, you should adhere to the following guidelines: 1. The screen on the cable should be connected only to mains earth at the control panel to avoid earth loops. 2. The continuity of the cable screen is most important and screens MUST be continuous along the full length of the network. 3. If the network cable enters any metal enclosure, ensure the screen is isolated from the case. Cable Segregation Cable Segregation Cable Segregation Cable Segregation All network and zone wiring must be segregated from any other wiring, such as mains supply cables, telephone cables, computer network cables and R.F. cables. It is recommended that cable ties are used to keep cables separated. The network and detection cables should be kept clear of cables supplying sounders or extension loudspeakers. It is also advisable to avoid running more than one network down a single cable. Cables Routed inside the Control Panel Cables Routed inside the Control Panel Cables Routed inside the Control Panel Cables Routed inside the Control Panel Cables routed inside the product, must be: • Kept as short as possible. • Routed close to the housing. • Kept as far as possible from the electronics. Initial Power-Up Procedure and Checks 1. Place a small screwdriver blade between the FACTORY RESTART terminals ("18" on Figure 2). When you switch on the mains, this will ensure that the factory default settings are used, as documented in the Engineering Manual. 2. Switch on the mains supply and remove the screwdriver blade only when the heartbeat LED (LED1, next to the Digital Communicator terminals) flashes. This may take up to 30 secs. 3. Check that the power LED on the control panel PCB is lit. The keypad sounders and extension loudspeakers will operate (tamper alarm). 4. Enter your engineer passcode (default 1234). The sounders are silenced and the system prompts to confirm the network devices used (as described in the Engineering Manual). Press [ESC] to enter the Engineering menus. 5. Connect the standby battery. 6. Switch off the 230V mains supply and ensure that the DC voltage at each device on each network is greater than 10.5V while the system is powered from its standby battery. 7. Switch on the mains supply and measure the DC voltage between the mains earth connection and AUX +12V ("16" on Figure 2). Warning: Do Warning: Do Warning: Do Warning: Do not make contact with live or neutral! not make contact with live or neutral! not make contact with live or neutral! not make contact with live or neutral! Then measure the DC voltage between the mains earth connection and 0V. In both cases, the measurement should be 1V or less. If the voltage is greater than 1V, the system has an "Earth Fault" and all cables should be checked for isolation to earth. 8. Replace the cover of the control panel, ensuring that the earth bonding lead is connected to the spade connector on the transformer. 9. Use the Engineer menu options to set up the system, as described in the Engineering Manual. 10. Test system operation.

Zone Wiring ("1" in Figure 2.) The control panel has a set of eight on-board terminal blocks for the connection of alarm sensors, such as door contacts and PIR detectors. Each terminal block can connect to one or more sensors, wired using either the double-pole (also known as Closed Circuit Loop, CCL) method (see Figure 4) or Fully Supervised Loop (FSL) method (see Figure 5). 100 Ohms Max. 10 devices per circuit Alarm Tamper Alarm Tamper Alarm Tamper CIRCUIT 1 Z1 T1 CIRCUIT 2 Z2 T2 Figure 4: Zone Wiring (Double Pole/CCL) 100 Ohms Alarm Tamper 4K7 2K2 Max. 10 devices per circuit Alarm Tamper Alarm Tamper 4K7 2K2 CIRCUIT 1 Z1 T1 CIRCUIT 2 Z2 T2 Figure 5: Zone Wiring (FSL) By default, alarm contacts are normally closed. Zones with normally-open contacts must be programmed with the "Inverted" attribute set. The FSL method uses resistors at the end of the line and across the alarm contact, which enables the cables to be supervised for short-circuit or open- circuit conditions to guard against cable tampering. The resistors can have the values shown in Table 1 (the values used must be specified when programming the zone). Alarm Shunt Resistor Alarm Shunt Resistor Alarm Shunt Resistor Alarm Shunt Resistor End-of-Line Resistor End-of-Line Resistor End-of-Line Resistor End-of-Line Resistor 4K7 2K2 1K0 1K0 4K7 4K7 2K2 2K2 Table 1: Resistors for Zones Wired using the FSL Method When using the FSL method, two cores are used for each zone. When using the double-pole method, four cores are used. It is recommended to use only one detector per zone, otherwise when an alarm or tamper condition arises, the source of the alarm/tamper is not known. If you are powering devices such as PIR detectors from the control panel, an additional two cores are required for connection to the 12Vdc power output terminals (labelled "16" in Figure 2). Whichever method is used, the wiring resistance must be less than 100 Ohms (with the end-of-line resistor shorted in the case of the FSL method). If you are not using a zone, you should program the zone as "Not Used". Anti-Masking Zone Connections Anti-Masking Zone Connections Anti-Masking Zone Connections Anti-Masking Zone Connections Some PIR detectors are fitted with an anti-masking facility to detect cases where the detector has been obscured. Depending on the type of detector, the masking status is conveyed by one of two methods: • By an open/closed contact wired to a separate zone programmed as type "Masking". Two zones are therefore needed: one for the masking status and the other for alarm/tamper status. The sensor can connect using the double-pole or FSL method. If double-pole is used for the Masking zone, the zone's tamper terminals must be shorted at the panel. • By a specified resistance value to a zone (e.g. Normal Alm or 24 Hour). The zone must be wired as shown in Figure 6, which also shows the resistance values used to convey the normal, alarm, masking and tamper status.

9999 CIRCUIT 2 Z2 T2 2K2 2K2 4K7 Tamper Alarm Short Circuit Tamper Alarm Open Circuit Tamper Alarm Zone Resistance Healthy Masked Masked Alarm 9.1k 2.2k 4.4k 6.9k Anti-mask Figure 6: Anti-Masking Zone Wiring Network Connections Network 1 Connections Network 1 Connections Network 1 Connections Network 1 Connections ("2" in Figure 2.) Network 1 can support up to eight zones, provided by a combination of keypads and LEC2s (2 zones each), connected in a star or daisy chain configuration. Connection details are shown in Figure 7. No other devices can be connected to Network 1. Please refer to the device's Installation Instructions. Control Panel Network Spare core used to double up "B" to reduce voltage 6 Core Alarm Cable Power for detectors Power for detectors Power for detectors Power for detectors I/D=2 I/D=1 I/D=3 I/D=4 Remote Keypad A B C D E Remote Keypad A B C D E Remote Keypad A B C D E Remote Keypad A B C D E A B C D E 100 metres (Max.) Figure 7: Keypad Connections Network 2 Connections Network 2 Connections Network 2 Connections Network 2 Connections ("3" in Figure 2.) Network 2 can connect to one of the following (see Figure 3): • A combination of up to three keypads and/or LEC2s. Wiring is the same as in Figure 7. • One ID Node. Please refer to the ID Node Installation Instructions for connection details. • A maximum of three XNodes or MNodes. Please refer to the XNode\MNode Installation Instructions for connection details. Note: XNodes or MNodes must not connect directly Note: XNodes or MNodes must not connect directly Note: XNodes or MNodes must not connect directly Note: XNodes or MNodes must not connect directly to the same network as a keypad, LEC2 or ID Node. to the same network as a keypad, LEC2 or ID Node. to the same network as a keypad, LEC2 or ID Node. to the same network as a keypad, LEC2 or ID Node. Telephone Connections ("4" and "5" in Figure 2.) An M800 contains a built-in modem (not available on M750). This enables direct connection to a PSTN telephone network or PABX exchange. This allows the system to be controlled and monitored from a remote PC running the Downloader software, and enables alarm status information to be transmitted to an Alarm Receiving Centre. You can connect an M800 control panel to a telephone network using either of the following: • The RJ11 telecom socket (labelled "5" in Figure 2). Use only a pre-manufactured and approved cable between the RJ11 socket and telephone outlet socket. • The PSTN terminal block (labelled "4" in Figure 2). Connection details are shown in Figure 8. Do not Do not Do not Do not make any other connections to the telephone make any other connections to the telephone make any other connections to the telephone make any other connections to the telephone network. network. network. network. A B B1 Optional connection to only one other item of equipment (e.g. fax or answer machine). While the control panel is communicating, any device connected to the "Diverted Line" is automatically disconnected. Ensure polarity is correct. Use cable type 1/05mm CW1308 BT Master Box (Exclusive line) Control Panel Diverted Line Primary Line 2 or B A1 5 or A Figure 8: PSTN Connections The control panel is not suitable for connection as an extension to a payphone or to "1+1" carrier systems. The control panel has a Ringer Equivalence Number (REN) of 0.2. For any one line, the sum of REN values should not exceed 4.

Note: If you are in any doubt regarding connection Note: If you are in any doubt regarding connection Note: If you are in any doubt regarding connection Note: If you are in any doubt regarding connection to the telephone network, seek advice from a to the telephone network, seek advice from a to the telephone network, seek advice from a to the telephone network, seek advice from a competent telephone engineer. If you are using the competent telephone engineer. If you are using the competent telephone engineer. If you are using the competent telephone engineer. If you are using the PSTN terminal block, the wiring should be carried PSTN terminal block, the wiring should be carried PSTN terminal block, the wiring should be carried PSTN terminal block, the wiring should be carried out by an installer authorised by the network out by an installer authorised by the network out by an installer authorised by the network out by an installer authorised by the network supplier (e.g. British Telecom). supplier (e.g. British Telecom). supplier (e.g. British Telecom). supplier (e.g. British Telecom). Approved Usage Approved Usage Approved Usage Approved Usage This product is manufactured to meet all European Economic Area telecommunication networks requirements. The equipment has been tested and conforms to ETSI TBR 21 and the associated ATAAB Advisory Notes. In the event of problems, first check to confirm the functionality of the line, then contact your equipment supplier/installer. The built-in modem has been approved for the following usage: • Automatic call initialisation and dialling. • Operation in absence of proceed indication. • Modem. • Serial connection. • Multiple repeat attempts. • Line Status Monitoring. Usage other than approved usage or failure to comply with the instructions may invalidate any approval given to the apparatus, if, as a result, the apparatus ceases to comply with the standards against which approval was granted. Digital Communicator Outputs ("6" in Figure 2.) The control panel provide 16 programmable outputs, which could be used to operate a digital communicator – a device that transmits the status of each channel to an Alarm Receiving Centre (where each channel could represent a zone alarm status). Alternatively, low-power devices such as LEDs could be switched on or off by these outputs (see Figure 9). By default, each output is switched negative, i.e. normally at +12Vdc and switches to 0V when active. When at 0V, up to 100mA can flow into the output from an external source. If required, the sense can be reversed during system configuration, i.e. normally at +0V and switches to 12Vdc when active. In this case, when switching to +12Vdc, each output can deliver up to 5mA to an external load. The terminal block labelled "16" in Figure 2 can provide a +12Vdc supply to a digital communicator. If this used, the digital communicator must be housed within the control panel, since the +12Vdc output is unfused. Transistor Outputs ("7" in Figure 2.) The programmable transistor outputs provide control for external equipment such as LEDs, buzzers and relays. The following outputs are provided: • One switched-negative output (-3). This can switch from 12Vdc to 0V on activation, and is able sink up to 500mA from a 12Vdc source. See Figure 9 for examples. • One switched-positive output (+4). This switches from 0V to 12Vdc on activation, and can deliver up to 500mA to an external load. See Figure 10 for examples. Each output can be programmed to activate when, for example: • There is an alarm in a specified zone. • There is a panic alarm. • Mains is disconnected from the control panel. • A specified user passcode is entered. • A combination of specified conditions occur. The Engineering Manual provides full details of output programming. Relay Smoke Detector Relay available from RS components P/No. 351-982. Capable of switching mains voltages + 12 V Aux 12 V -ve O/P (Programmed as Alarm / Bell / etc) (Programmed as Detector Reset) 12V Buzzer RS Part No. 245-051 1K0 Ohm Resistor LED (Light Emitting Diode) -Ve O/P -Ve O/P -Ve O/P Aux 12V Aux 12V Aux 12V 0V Diode (IN4001) Figure 9: Examples of using Switched-Negative Outputs

11 11 11 11 Relay Smoke Detector Relay available from RS components P/No. 351-982. Capable of switching mains voltages + 12 V Aux 0V +ve O/P (Programmed as Alarm / Bell / etc) (Programmed as Detector Reset) Aux 0V Aux 0V Aux 0V 1K0 Ohm Resistor 12V Buzzer RS Part No. 245-051 LED (Light Emitting Diode) +ve O/P +ve O/P +ve O/P 0V Diode (IN4001) Figure 10: Examples of using Switched-Positive Outputs Relay Output ("8" in Figure 2.) The relay output provides a voltage-free changeover contact, which can be programmed to switch external equipment on or off. Connect one side of the external device to the COM terminal, and the other to either N/O or N/C. The effect is as follows: • If you connect to N/O, the contact between COM and N/O is normally open, and is closed only when the output is active. • If you connect to N/C, the contact between COM and N/C is normally closed, and is opened only when the output is active. See Figure 11 for an example. +12Vdc 0V Device COM N/C N/O Figure 11: Example of using a relay programmable output External Bell/Sounder Connections ("9" in Figure 2.) If required, an external sounder can be connected to the control panel. Connection details are shown in Figure 12. Typical External Sounder Control Panel H/O + 12V + H/O - 0V Tamper In TR - STB - Tamper Out TRG - Strobe +ve Strobe -ve Trigger -ve Figure 12: External Sounder Connections The meaning of each terminal is as follows: H/O+ This is used to provide a permanent +ve hold off to external sounders, strobes, etc. H/O - This is used to provide a permanent -ve hold off to external sounders, strobes, etc. TR - This is the negative tamper return connection from the external sounder unit. STB - This is the strobe trigger output, which switches to 0V on alarm and is rated at 500mA. Normally. this output is connected to the strobe -ve; the strobe +ve is connected to H/O+. TRG - This is the bell trigger output, which switches to 0V on alarm and is rated at 500mA. This output can be programmed for SAB or SCB operation, and operates as follows: SAB switches to 0V on alarm and provides a maximum of 500mA. SCB provides a negative hold off (500mA), which is removed on alarm. Additional external sounders can be driven from XNodes or MNodes (using an RM3A relay module) Auxiliary Tamper Input ("10" in Figure 2.) The AUX TMP terminals provide a tamper-switch input for an auxiliary device such as a remote power supply unit or extension loudspeaker. If the input is not used, it must be linked out. Line Fault Input ("11" in Figure 2.) The system generates a line fault alert if +12Vdc is applied to the LINE FLT input. If the system is unset when this occurs, a "Chime" tone is generated every minute until the condition is reset. If the system is set, any programmed bell delay is cancelled.

Communicator Line Fault Communicator Line Fault Communicator Line Fault Communicator Line Fault If a standalone communicator, such as a RedCARE STU, is being used, connect the Line Fault output of the communicator to the LINE FLT input of the panel. The communicator must provide +12Vdc to indicate a line fault (e.g. if the Line Fault output at the communicator uses a relay, connect the common terminal of the relay to +12Vdc and the normally- open terminal to the LINE FLT input of the panel). If the communicator is dual-path (i.e. has landline and mobile communication), you also need to connect a panel output programmed as type "ATS Test" to the ATS Test input of the communicator. Invert the sense of the output at the panel if a "positive applied" input sense is used at the communicator. The panel generates an "ATE L.F. Single" alert if only one of the networks is not available, or "ATE L.F. All" if both networks are not available. For a single-path communicator, a line fault generates "ATE L.F. Single". Remote Reset Input ("12" in Figure 2.) For alarms that require an engineer or remote reset, the system can also be reset by applying 0Vdc to the REM RST input terminal. This can be achieved by routing 0V from terminal block "16" (Figure 2) through a switch to the REM RST input. This input could be connected to the "Control" output from a RedCARE Subscribed Terminal Unit (STU) to enable the central station to provide a "Remote Reset" facility. Extension Loudspeaker Connections ("13" in Figure 2.) An extension loudspeaker can be connected to the SPKR terminals of the control panel. Connection details are shown in Figure 13. The speaker output is designed to drive up to two 16Ω loudspeakers. However, when using two speakers, you must wire them in series to reduce current consumption. Each loudspeaker output can also be programmed to one or more wards so that the sounder only operates under the relevant conditions. Note: Extension loudspeakers MUST NOT be wired in Note: Extension loudspeakers MUST NOT be wired in Note: Extension loudspeakers MUST NOT be wired in Note: Extension loudspeakers MUST NOT be wired in the same cable as used for network or zone wiring. the same cable as used for network or zone wiring. the same cable as used for network or zone wiring. the same cable as used for network or zone wiring. 1 x 16 Ohm Loudspeaker 2 x 16 Ohm Loudspeakers SPEAKER SPEAKER + + 0V 0V Figure 13: Extension Loudspeaker Connections AC Input Connector ("14" in Figure 2.) The two outer terminals of the AC IN connector connect to the 17VAC output from the mains transformer. Battery Connector ("15" in Figure 2.) Note: Do not connect the battery until all other Note: Do not connect the battery until all other Note: Do not connect the battery until all other Note: Do not connect the battery until all other wiring has been completed. wiring has been completed. wiring has been completed. wiring has been completed. The BATT terminals are for connection to a +12Vdc standby battery. A battery lead is provided in the spares pack (red wire to "+"). + - 12V 17Ah Battery +_ Control Panel battery terminals Figure 14: Battery Connections If the mains power to the control panel fails, the standby battery will take over and maintain the system. In order to safeguard the battery from full discharge, the control panel automatically isolates the standby battery when its voltage falls below 9.5V. When the mains power is restored, the system will power-up and continue to recharge. 12Vdc Auxiliary Power Terminals ("16" in Figure 2.) You can use the terminal block in the bottom-left corner of the control panel PCB to power devices such as PIR detectors. The terminals provide 12Vdc. Back Tamper Connector ("17" in Figure 2.) The BACK TAMPER connector should be wired to the "back tamper switch", which is mounted on a plate

13 13 13 13 that slides into slots shown in Figure 1. The switch enables the system to generate a tamper alarm if the lid of the control panel is removed or if the control panel is removed from the wall. Factory Restart Connector ("18" in Figure 2.) If the pins of the FACTORY RESTART connector are shorted during power-up, all system parameters are reset to their factory default settings, including the engineer passcode, as documented in the Engineering Manual. Ensure that the terminals remain shorted until the heartbeat LED (LED1) flashes. Serial Printer Connector ("19" in Figure 2.) Serial printer (e.g. DATAC) RS232 Data Connect to control panel Figure 15: Using a Printer The SERIAL PRINTER connector enables a serial (RS232) printer to be connected directly to the control panel, such as a DATAC printer (part number 947UK-00). Connection details are shown in Figure 16. The printer can, for example, be used to: • Produce a hardcopy record of system programming details. • Print logged events. The system can be configured to enable online printing, where logged events are automatically printed as they occur. The printer must be set up with the following communication settings: 4800 baud, eight data bits, one stop bit, one start bit, no parity and DTR normal. 0V DTR Tx Printer Serial printer connector on control panel Figure 16: Printer Connections Output Module Connector ("20" in Figure 2.) CPA6 output modules can be connected to the OUTPUT MODULE connector to provide eight additional 100mA switched-negative programmable outputs per module. The outputs can be used to drive LEDs or other low-power devices (see Figure 17). Each output module is supplied with an interface lead, which enables easy connection to the control panel (or to an XNode or MNode). When the output module is connected to the control panel, the outputs can be programmed to indicate ward status or zone alarms. For further details, please refer to the CPA6 Output Module Installation Instructions. PL1 1k Resistors LEDs 1 2 3 4 5 6 7 +12V IN +12V OUT +12V OUT 8 PL2 Connect to plug labelled OUTPUT MODULE 100m max. Figure 17: Output Module Connections Engineer Keypad Connector ("21" in Figure 2.) A keypad set with its ID selector switch set "ENG" can be connected directly to the ENGINEERS KEYPAD connector on the control panel, using the Engineer Keypad Interface (EKI) lead. (Figure 18 provides connection details.) An engineer's keypad is intended to be temporary connected to the control panel for system configuration and testing at the control panel. The keypad can be disconnected without causing an alarm. Once a system has been set up, system configuration should normally be carried out from a keypad attached to Network 1 or 2. The zone and output terminals on an engineer's keypad cannot be used. A A B C D D Keypad Fit polarising pin Engineer's keypad connector on control panel E E C B Figure 18: Engineer Keypad Connections

Serial Connection to PC ("22" in Figure 2.) Optionally, a local PC running the Menvier Downloader software can be connected to the control panel for system configuration and data uploading. The PC can connect to the panel's USB port ("22" in Figure 2). A USB port cannot be used to connect a printer. Power Availability Before connecting any external devices to the control panel, you must make sure that the control panel can provide sufficient current to power them. The amount of current available from the panel depends on the standard and grade in use, the battery fitted, and (for Grade 3 only) whether AC Fails are transmitted to an ARC. See Table 2 or Table 3. Using Table 4, calculate the total current taken by all devices used (except the battery), and make sure that this does not exceed the available current. If the total current required exceeds the amount available, add more power supplies. Fitted Battery Size Fitted Battery Size Fitted Battery Size Fitted Battery Size Available Current Grade 1 or 2 Available Current Grade 1 or 2 Available Current Grade 1 or 2 Available Current Grade 1 or 2 7Ah 580mA 17Ah 750mA Table 2: Available Current - Grade 1 or 2, PD6662 or EN50131-1 Available Current Grade 3 Available Current Grade 3 Available Current Grade 3 Available Current Grade 3 AC Fail to ARC AC Fail to ARC AC Fail to ARC AC Fail to ARC No AC Fail to ARC No AC Fail to ARC No AC Fail to ARC No AC Fail to ARC Fitted Fitted Fitted Fitted Battery Battery Battery Battery Size Size Size Size PD6662 PD6662 PD6662 PD6662 Grade 3 Grade 3 Grade 3 Grade 3 EN50131-1 EN50131-1 EN50131-1 EN50131-1 Grade 3 Grade 3 Grade 3 Grade 3 PD6662 PD6662 PD6662 PD6662 Grade 3 Grade 3 Grade 3 Grade 3 EN50131-1 EN50131-1 EN50131-1 EN50131-1 Grade 3 Grade 3 Grade 3 Grade 3 7Ah 580mA 230mA 290mA Not valid 17Ah 750mA 560mA 700mA 280mA Table 3: Available Current - Grade 3, PD6662 or EN50131-1 Device Device Device Device Current Current Current Current Control panel PCB 200mA Extension loudspeaker ("13" in Figure 2), if used 100mA Bell ("9" in Figure 2) Device dependent Devices powered from digital communicator and transistor outputs ("8" and "6" in Figure 2) Device dependent Each PIR or other device powered from the 12Vdc output ("16" in Figure 2) Device dependent Each NETLCD keypad 145mA Each NETARM module 55mA Each LEC2 40mA Each ID Node 160mA Each XNode or MNode (non-alarm state excl. speaker) 50mA Each ID Biscuit 3.3mA Each ID Plus Biscuit 1mA Each output module 5mA Table 4: Current Consumption Figures Connecting to the Mains Supply WARNING: WARNING: WARNING: WARNING: ENSURE THAT THE MAIN SUPPLY IS DISCONNECTED AND ISOLATED BEFORE MAKING ANY MAINS CONNECTIONS. All mains electrical connections must be carried out by a qualified electrician and must comply with the current local regulations (e.g. IEE). The supply must be fed from an un-switched fused spur fitted with a 3A fuse. The mains supply is connected to a 3-way "Euro Type" fused terminal block (see Figure 19). Ensure that the earth wire is longer than the live and neutral to ensure that the earth is the last to take any strain. ���������������� ����������� ����� � ���� ������ Figure 19: Mains Connections Note: To avoid mains interference, the mains cable Note: To avoid mains interference, the mains cable Note: To avoid mains interference, the mains cable Note: To avoid mains interference, the mains cable must enter the control panel through its own cable must enter the control panel through its own cable must enter the control panel through its own cable must enter the control panel through its own cable entry hole (see entry hole (see entry hole (see entry hole (see Figure Figure Figure Figure 1111) and must not be mixed ) and must not be mixed ) and must not be mixed ) and must not be mixed with other cables. with other cables. with other cables. with other cables. The mains cable must be anchored down with a strain-relief tie. There is a eye located to the top-left of the mains cable entry hole for this purpose. LEDs The LEDs (see Figure 2) have the following meanings: • LED1 (heartbeat) – Flashes once per second to indicate that the panel is operating. The LED flashes rapidly after a reset. • LED2 (network 1 fuse) – Monitors the polyfuse for network 1. When illuminated, the LED indicates that the 12V supply to network 1 is open circuit.

15 15 15 15 • LED3 (network 2 fuse) – Same as LED2, but for network 2. • LED4 (PSTN) – Illuminates when there is activity on the PSTN port (M800 only). • LED5 (power) – Illuminates when the panel is energised (either from the AC input or from the battery). • LED6 (12V output fuse) – Monitors the polyfuse protecting the 12Vdc output from the terminal block labelled "16" on Figure 2. • LED7 (Bell output fuse) – Monitors the polyfuse protecting the bell output labelled "9" on Figure 2. • LED8 (relay 1 status) – Illuminates when relay 1 is energised. • LED9 (relay 2 status) – Not used. • LED10 (transistor output 3 status) – Illuminates when transistor output 3 is active. • LED11 (transistor output 4 status) – Illuminates when transistor output 4 is active. • LED12 (strobe output status) – Illuminates when the strobe output is active. • LED13 (bell output status) – Illuminates when the bell output is active. • LED14 (transistor output 5 status) – Not used. Polyfuses The PCB contains the following automatically- resettable polyfuses. Note that to reset a polyfuse, the load must be removed completely. • F1 – Battery load circuit (the on-board circuit that periodically monitors the health of the battery). • F2 – Network 1 12Vdc output. • F3 – Network 2 12Vdc output. • F4 – Extension loudspeaker. • F5 – 12Vdc output from the 12V terminals on the terminal block labelled "16" on Figure 2. • F6 – Bell output from terminal 4 on the terminal block labelled "9" on Figure 2. Electromagnetic Compatibility When used as intended this product complies with EMC Directive (89 /336 /EEC). Any modifications other than those stated in this manual, or any other use of this product may cause interference and it is the responsibility of the installer to comply with the EMC and Low Voltage Directives. Technical Specifications Environmental Class 2 Security EN50131-1 or PD6662 Grade 1, 2 or 3. See page 14. Mains Supply: 145mA @ 230Vac±10%, 50Hz PCB Power Supply: 13.65VDC, 1.5A A maximum of 750mA is available for the control panel PCB and other devices (excluding battery recharge) Standby Battery: 12VDC, lead-acid. See page 14 for further details. Charging limit: 750mA Recharge time: 24 hrs max. for 17AH battery Zones: 8 on-board zones, expandable to 40 Network 1: Max of 4 keypads/LEC2s Network 2: Max of 3 XNodes/MNodes or keypads/LEC2s, or one ID Node Additional ports: Engineer's keypad port USB port to PC Printer (RS232) port PSTN/RJ11 for phone connection (M800 only) Output module port Relay Outputs: 1 voltage-free changeover 1A max @ 24Vac or 24Vdc Transistor Outputs: 1 Switched -ve @500mA 1 Switched +ve @500mA Digi Outputs 1-16: Source 5mA in 12V condition Sink 100mA in 0V condition Selectable output sense REN Value: 0.2 Speaker Output: 16 Ohms Bell Trigger: Switched -ve @500mA Strobe Trigger: Switched -ve @500mA Mains Input Fuse: 315mA (Slow) Dimensions: 384(W), 312(H), 95(D) mm Material: 1.2mm mild steel Weight: 4.9 Kg Environment: -10 to 40°C Humidity 0 to 75% RH, non-condensing. Standards: EN 50131-1, PD 6662, TS 50131, BS4737, EN 50130. This equipment is compliant with EN 50136-2-1 & EN 50136-2-2. It allows the alarm transmission system to meet the performance requirements of prEN50131-1: 2004 ATS 2 provided that: a) It is installed in accordance with the installation instructions. b) The connected PSTN is functioning normally. c) The ARC is adequately equipped.