SmartLoop. Analogue Fire Alarm Control Panel. Installation manual. GameOver

Transcription

1 SmartLoop Analogue Fire Alarm Control Panel Installation manual GameOver

2 Copyright The information contained in this document is the sole property of Inim Electronics s.r.l. No part may be copied without written authorization from Inim Electronics s.r.l. All rights reserved. This Control panel has been designed and developed to the highest standards of quality and performance implemented by Inim Electronics. This control panel must be installed in accordance with the instructions described in this manual and in compliance with the laws in force. All control panels from the SmartLoop series are EN54-2; EN54-4 compliant. All control panels from the SmartLoop series, and all accessory items and special functions have IMQ Sistemi di Sicurezza certification, unless otherwise stated. 2

3 Table of contents Chapter 1 Overview Application and use In order to validate the IMQ-SISTEMI DI SICUREZZA certification, and in compliance with EN54-2 regulations, About the SmartLoop fire alarm panel series Description of the models Features 8 Chapter 2 General information Documentation supplied Manual details About the Software Addressees Operator authorization access levels Intellectual property rights Disclaimer Recommendations Testing the system Note to the installer Technical support Conventions Manufacturer's name and address Device identifier Warranty Safety laws 12 Chapter 3 Device management Product handling and storage Environmental conditions Unpacking the device 14 Chapter 4 Internal devices The motherboard About attachment boards The SmartLoop/2L board The SmartLoop/NET board The SmartLAN board The SmartLoop/PSTN board The SmartLoop/INOUT board SmartLetUSee/LED module The SmartLoop/PRN module (for /P models only) The SmartLetUSee/LCD and SmartLetUSee/LED Repeater panels 26 Chapter 5 Technical specifications...27 Chapter 6 Installation Choosing the mounting location Installation flow, guidelines and testing Connecting the SmartLoop/LED module Connecting the SmartLoop/PRN printer module 32 Chapter 7 Connections Note to the Installer regarding wiring and connection compliancy About the circuitry Description of the motherboard terminals Loop Connections Loop terminals Connecting devices to the Loop NAC Outputs (Notification Application Circuit) PL terminal (for Shutdown signaling) 37 3

4 7.9 AUX output AUX R output Alarm relay Fault relay Connecting Repeater panels to the RS 485 bus Connecting the SmartLoopNET module Connecting the SmartLoop/INOUT Board Connecting to a PC or serial printer Connecting a SmartLinkLAN board equipped panel to a PC Connecting a serial printer Batteries Connecting the Thermal Probe Connecting to the Mains power source (Electrical Switchboard) 42 Chapter 8 Powering up the system Testing wiring integrity 44 Chapter 9 Troubleshooting NAC, Alarm and Fault output trouble LOOP Fault Repeater Fault Battery Fault SmartLoopNET Fault NET Link ALARM-A 49 Appendix A Maintenance Appendix B Argus devices supported by the control panel Apollo devices supported by the control panel Appendix C Order Codes Installer s notes

5 Chapter 1 Overview Note: The control panels described in this manual have been designed and developed to the highest standards of quality, reliability and performance. All product components are capable to application requirements and able to operate in compliance with the related technical specifications when the temperature external to their casing complies with Category 3k5 of IEC Danger: The GAS control function is not EN54-2 compliant, as this feature is not mentioned in the aforesaid standard. Danger: In order to validate the IMQ-SISTEMI DI SICUREZZA certification, and in compliance with EN54-2 regulations, all the manual alarm buttons and fire detectors employed in the system must be associated with fire detection and alarm functions. 1.1 Application and use The SmartLoop analogue-addressable fire alarm panel manages up to eight loops. The SmartLoop is capable of working in a network environment (maximum configuration 30 nodes arranged in a token ring). The loops accommodate different types of fire-security devices (detectors, input and output modules, callpoints, fire bells, etc.). The maximum loop wire length is 2000 m. The SmartLoop also provides supervised outputs which guarantee full control of peripheal device functions (e.g. fire bells). The panel identifies and signals alarm, pre-alarm, fault, early warning, bypassed zone, test and monitoring conditions. The system status is indicated on the display and on the system status LEDs. The SmartLoop panel supports up to 8 Repeater panels (accessory items) which replicate system data and allow building occupants with Level 2 authorization to silence and reset the system. The panel can also be connected to a PC or printer. The self-addressing feature and reduced-complexity point programming allow fast and easy installation. INTERNET PSTN network Up to 30 panels Figure 1 - Example configuration: 5 node token-ring network environment (HorNet) Overview 5

6 Caption [A] Loop All the peripheral devices of the system must be connected in parallel to the loop circuit (2 pole STP). The loop is a closed electrical circuit in which a wide variety of alarm devices can be accommodated. Opening or closing the circuit at any point will generate a fault signal. The loop circuit communication path starts on the Loop-Out terminals and ends on the Loop-In terminals. The panel controls and communicates with the loop devices via digital protocol. The loop utilizes the same two poles for the power supply to the system devices and the two-way communication channel. The loop accommodates: 1. Detectors: A smoke detector is an active fire protection device that detects smoke or flames and issues an alarm thereby alerting building occupants to the danger of fire. Detectors can be: - Optical smoke detectors which look for the presence of visible by-products of combustion in the detection chamber (Tyndall effect). - Optical/Heat detectors which operate as per optical smoke detectors but also sense for increase in the environment temperature. The combination of both sensing methods (smoke and heat) provides faster detection and reduces the false alarm rate. - Heat detectors: sense for an increase in the temperature in the protected environment. There are two types of heat detector: Fixed temperature that signal alarm when the temperature exceeds the predefined threshold; and Rate-of-rise that as well as monitoring the predefined fixed temperature also respond to rapid increase in temperature. - Ionization smoke detectors: feature a harmless radioactive source within a dual detection chamber. They operate by sensing for a change in electrical conductivity across the detection chamber. - CO detectors: sense the levels of carbon monoxide given off by all carbon-based materials in the smouldering stages of a fire (often combined with heat detection sensor). 2. Input Module: a device which monitors the status of another device (callpoint, detector, etc.) and sends the respective information to the panel. The Input module allows the loop to accommodate any type of device. 3. Output Module: provides a supervised ancillary output. The cause of activation of this output can be defined during the system configuration phase. The output module interfaces all types of loop devices (bells, signaling devices, fire door magnets, etc.). 4. Callpoint: a clearly labeled fire button with instructions for use in the event of fire. Usually placed near building entrances/exits. These push-button alarm-trigger devices allow building occupants to activate system alarms. 5. Sounder/Flasher: audible/visual alarm signaling devices. The cause of activation (alarm, prealarm, early warning, etc.) can be defined during the system configuration phase. For the list of the devices the loop accommodates, and for details regarding their wiring and operating principles, refer to Appendix B and Appendix B. The loop circuit configuration (as required by the local Fire code in force) is a fault-tolerant circuit which, in the event of short-circuit or loop interruption, allows the panel to continue to communicate and drive the elements on either side of the interruption. [B] Isolator In order to provide a fault-tolerant loop circuit that is Fire code compliant, isolator modules must be installed in series with the loop circuit. Isolators modules detect short-circuit conditions and consequently interrupt the loop circuit. If a short-circuit occurs, the two isolators adjacent to the shorted section will open and split the loop in such way as to allow the panel to drive the elements on either side of the interruption. No more than 32 detectors/devices should be installed between two isolator modules. Note: Many detectors/devices have built-in isolators and therefore do not require isolator modules. Refer to Appendix B and Appendix B for further details. 6 Overview

7 1.2 In order to validate the IMQ-SISTEMI DI SICUREZZA certification, and in compliance with EN54-2 regulations, 1. All the manual alarm buttons and fire detectors employed in the system must be associated with fire detection and alarm functions. 2. The functions associated with the programmable LEDs on the control panel frontplate (Keypad/ Display board and LED board), and on SmartLetUSee/LCD and Smart letusee/led Repeaters must be set up in accordance with the colour of the LEDs: RED: FIRE ALARM Status YELLOW: FAULT, TEST and DISABLED Status Note: The GAS control function is not EN54-2 compliant, as this feature is not mentioned in the aforesaid standard. 1.3 About the SmartLoop fire alarm panel series There are 3 expandable models (expandable to 8 loops by means of 3 SmartLoop/2L expansion boards). All have 2 loops and common components housed in the same sized cabinet. Each expandable model has a technically-downsized version (in same-sized cabinet) with 1 loop for reduced complexity applications. All models manage the same functions and support a full spectrum of hardwired and wireless devices. The SmartLoop fire alarm panel series provides the following models: SmartLoop1010/P Advanced model with 1 loop SmartLoop2080/P Advanced model with 2 loops expandable to 8 loops SmartLoop1010/G Keypad and display model with 1 Loop SmartLoop2080/G Keypad and display model with 2 loops expandable to 8 loops SmartLoop1010/S Flush front (unequipped) model with 1 loop SmartLoop2080/S Flush front (unequipped) model with 2 loops expandable to 8 loops SmartLoop1010/P SmartLoop2080/P SmartLoop1010/G SmartLoop2080/G SmartLoop1010/S SmartLoop2080/S Figure 2 - SmartLoop Series - Advanced, Keypad and display, and Flush Front 1.4 Description of the models The /P model is equipped with a keypad, display, fault LEDs, fast buttons and a Zone status LED pad. This model is suitable for locations where extended visual signals and manual control are necessary. This model can be enhanced with the SmartLoop/PRN thermal printer (accessory item). Overview 7

8 The /G model is equipped with a keypad, display, fault LEDs and fast buttons and is suitable for installation in locations where visual signals and manual control are necessary. This model can be upgraded at any time after installation (for example, if moved to a location where extended visual signals and manual control are necessary) by replacing its door with a /P model door that is enhanced with a Zone status LED pad and thermal printer option. The /S model has an unequipped door (no keypad, display or LEDs), and is suitable for installation in locations where visual indications and manual control are not required (e.g. basements). This model can be upgraded at any time after installation (for example, if moved to a location where visual signals and manual control are necessary) by replacing its door with a /P model door or /G model door (refer to respective paragraph for on-door equipment details). 1.5 Features - Manages up to 240 zones - Network environment capable (maximum configuration 30 panels) - Group and Zone sharing among panels in the network environment - Switching power supply A with battery charger function - 2 on-board loops (on expandable 2080 models); 1 on-board loop (on non-expandable 1010 models) - 3 programmable NAC outputs - 1 NAC Alarm output - 1 NAC Fault output - 1 dry contact Alarm relay - 1 dry contact Fault relay - RS485 Bus accommodates up to 8 SmartLetUSee Repeaters - 1 power supply 24 V for external devices. - 1 power supply 24 V for external devices with "power Cutoff" during reset. - RS232 and USB connectors for uploading/downloading programming data event buffer The motherboard provides locations for: - 3 SmartLoop/2L loop expansion boards with 2 loops per board (for 2080 expandable models only) - 1 SmartLoop/NET network board - 1 SmartLAN board - 1 SmartLoop/PSTN board - 1 SmartLoop/INOUT Input/Output expansion board - 1 SmartLoop/LED zone-status LED module (for /P models only) - 1 SmartLoop/PRN thermal printer module (for /P models only) Note: The 1010 non-expandable models with 1-loop have exactly the same features and components as the 2080 expandable models with 2-loops. 8 Overview

9 Chapter 2 General information 2.1 Documentation supplied Installation manual (this manual) Programming Manual User's Manual The manuals are supplied with the device. For further copies of the, please contact INIM ELECTRONICS offices quoting the order number shown in Appendix C. 2.2 Manual details Title: SmartLoop Edition, Issue: 1.01 Month and Year of printing: April 2007 Code: DCMIINE0SLOOP 2.3 About the Software SmartLeague software version: 2.0.x SmartLoop Firmware Version: FWINI0SL0PAA SmartLoop Loop Driver Firmware Version: FW0000LOOPDRV 1.00 SmartLoop Frontplate Firmware Version: FW0000SLEDKBD 1.00 SmartLAN Firmware Version: FWIN00SLAN 1.00 SmartLoop/PSTN Firmware Version: FW0000SLPSTN 1.00 SmartLoop/INOUTFirmware Version: FW0000SLIO 1.00 SmartLetUSee/LCD Repeater Firmware Version: FW0000SLEDKBD 1.00 SmartLetUSee/LED Repeater LED Expansion Firmware Version: FW0000SLLED Addressees Installer Technical assistance 2.5 Operator authorization access levels Level 1 All building occupants can view the system status (active events) and events log and silence the panel beeper. Level 2 ONLY authorized keyswitch users and PIN users (5 digit codes) can Enable/Disable loop devices, bell outputs, software zones and network devices, and SILENCE or RESET the system. Level 3 ONLY authorized technicians, appointed by the Installer company can, by means of a screw driver, remove the screws and open the fire control panel cabinet to insert the J2 Jumper and then, after entering a 5 digit PIN (5 digit code) access the parameter programming phase and/or carry out maintenance work (for example, change the battery, replace fuses, etc.). General information 9

10 Level 4 ONLY authorized technicians, appointed by the Manufacturer can, by means of special tools, carry out repair work on the motherboard (for example, repair or replace SM components). 2.6 Intellectual property rights The information contained in this document is private property. All rights reserved. No part of this document may be copied or reproduced unless expressly authorized in writing by INIM Electronics, in particular the parts regarding the device specified in paragraph 2.14 Device identifier. 2.7 Disclaimer INIM Electronics s.r.l. shall not be responsible for damage arising from improper application or use. This control panel should be handled by qualified personnel only. Installation must be carried out strictly in accordance with the instructions described in this manual, and in compliance with the local fire code in force. 2.8 Recommendations INIM Electronics recommends that the entire system be tested on a regular basis (refer to paragraph 2.9 Testing the system). 2.9 Testing the system This system has been designed to the highest standards of quality and performance. The system may fail to function as intended due to the failure of a component. Most problems that prevent a fire control system from operating as intended can be found by regular testing and maintenance (refer to Appendix A - Maintenance). Testing should include all detectors, signaling devices and any other operational devices that are part of the system Note to the installer In order to provide adequate protection and instructions for proper use, you (the installer) must be familiar with the operating procedure of this device. As the only individual in contact with system users, it is your responsibility to instruct them on how to use this system properly and to bring to their attention that every fire is different in the amount of smoke and rate of burning. Therefore, smoke and heat detectors may not provide timely warning of fires caused by violent explosions, escaping gas or improper storage of inflammable materials. Regardless of its capabilities, a fire alarm system is not a substitute for the necessary precautions building occupants must take to prevent or minimize the harmful effects of fire Technical support Our professional engineers are readily available to assist you. Call our phone number and you will be connected right away to a person who will answer all your questions and provide you with full technical support Conventions Glossary and terminology Panel; device; system: refer to the devices defined in 2.14 Device identifier. Left, right, behind, above, below: refer to the directions as seen by the operator in front of the mounted device. Communicator (telephone, SMS, digital): synonym of dialer. STP: Shielded twisted pair cable. Qualified personnel: those persons whose training, expertise and knowledge of the laws and bylaws regarding service conditions and the prevention of accidents, are able to identify and avoid all possible situations of danger. 10 General information

11 Select: click on and select a specific item (from drop-down menu, options box, graphic object, etc.). Press: click on a video button, or press a key on the panel keypad Graphic conventions Following are the graphic conventions used in the text. Conventions Example Description Text in Italics Refer to paragraph 1.1 Application and use Text in italics: indicates the title of a chapter, section, paragraph, table or figure in this manual or other published reference. <text> #<CustomerCode> Variable data. [lowercase letter] or [number] [A] or [1] Representation of a part of the system or video object. BUTTON CANC, ESC, RESET Computer or control panel keys. Note: The detached notes contain important information about the text. Attention: The attention prompts indicate that total or partial disregard of the procedure could damage the connected devices. Danger: The danger warnings indicate that total or partial disregard of the procedure could injure the operator or persons in the vicinity Manufacturer's name and address INIM Electronics s.r.l. Via Ischia Prima, Grottammare (AP) - Italy Tel: Fax: info@inim.biz - General information 11

12 2.14 Device identifier Figure 3 - Overview Product category: Fire Alarm Control Panel Model: SmartLoop Year of Manufacture: Warranty INIM Electronics s.r.l. warrants the original purchaser that for a period of 24 months from the date of final acceptance, the product shall be free of defects in materials and workmanship. The warranty applies only to defects in parts and workmanship relating to normal use. It does not cover: Improper use or negligence Damage caused by fire, flood, wind or lightning Vandalism Fair wear and tear Inim Electronics s.r.l. shall, at its option, repair or replace any defective products. Improper use, that is, use for purposes other than those mentioned in this manual will void the warranty. For the full details and conditions regarding the warranty, refer to the purchase order Safety laws The aim of the instructions in this section is to ensure that the device is installed and handled properly. This chapter contains vital information. The installer should be familiar with this section and bring each item to the attention of the system users Compliancy The design and manufacture of the SmartLoop panel comply with EN 54-2 Fire detection and signaling systems - Control and signaling panels. The design and manufacture of the power supply comply with EN 54-2 Fire detection and signaling systems - Power supply devices Managing electronic devices The normal motions of any person may generate electrostatic potential of thousands of volts. Discharge of this current through semiconductor devices during handling may cause serious damage which although may not be immediately evident may reduce the reliability of the circuits. If located in their housings, the electronic circuits of INIM Electronics products are highly immune to electrostatic discharge. 12 General information

13 Do not expose the circuits to damage by removing the modules unnecessarily from their housings. 3. When removing or handling the boards, hold the board edges only. 4. Do not touch the electronic components, the printed circuits or the metal parts of the connectors. 5. Do not hand the module to another person without first ensuring that you both have the same electrostatic potential. This can be achieved by simply shaking hands. 6. Place the board on an anti-static surface or a conductor surface with the same potential. Further information regarding procedures relating to safety when working with electronic devices can be found in Directive IEC F Setting up the system In order to provide adequate protection and instructions for proper use, security professionals (Installers and maintenance technicians) must be familiar with the operating procedure of this device. Please read the instructions carefully before installing and/or servicing the system. Before first power-up, be sure that the earth connection has been completed properly on the respective terminal. The recommended minimum wire cross section for the earth connection is 2.5 mm 2, that is, unless otherwise stated in accessory documentation Replacement and disposal of used devices Replacement When replacing used devices, disconnect the devices concerned then complete the connections of the new devices in compliance with the instructions printed on the respective leaflets. Contact your local municipal offices for information regarding the disposal of used electronic devices. Disposal Do not burn used electronic devices, or allow them to pollute the environment (countryside, rivers, etc.). Electronic devices must be disposed of in a safe environment-friendly way. In order to avoid short-circuits, take all the necessary precautions when removing used batteries. Contact your local municipal offices for information regarding the disposal of batteries. General information 13

14 Chapter 3 Device management 3.1 Product handling and storage This device has been properly packed inside a cardboard box, however, care must be taken to avoid accidental damage during handling. Cartons/boxes should be placed in such a way as to avoid knocks and falls, and special care must be taken to protect the devices from extreme heat and/or cold. 3.2 Environmental conditions Temperature limits: -10 / +55 C for transport and storage -5 / +40 C operating temperature 3.3 Unpacking the device Take due care when unpacking the product, and dispose of all waste packaging in accordance with the local method of disposal. The cardboard box contains the SmartLoop control panel (cabinet in metal). Note: All waste packaging must be disposed of in full respect of the local laws in force Inside the box Figure 4 - Box contents Inside the box you will find 1. Metal cabinet containing the motherboard Plastic bag containing: resistors, + diodes, 2032 lithium battery, keys, battery connection wires 14 Device management

15 Attention: The 2032 lithium battery guarantees data retention. You must insert this battery into its holder (with + sign facing you) before connecting the SmartLoopLAN board. The package does not include: Thermal probe, batteries (2 x 12 V), programming software CD. These items must be purchased separately. Be sure you have these items on hand before starting the installation procedure. Attention: In order to validate the IMQ-SISTEMI DI SICUREZZA certification and comply with EN 54-4 requirements, installation of a thermal probe is essential. Be sure you have this item on hand before starting the installation procedure. Device management 15

16 Chapter 4 Internal devices 4.1 The motherboard The SmartLoop motherboard has a 32 bit microprocessor that controls all the control panel functions, and 2 peripheral microprocessors (one per loop) that manage communications with the system peripherals. INIM s R & D professionals have developed and designed the SmartLoop motherboard using ground-breaking new generation fire technologies that ensure maximum precision and performance. Deployment of the most advanced reflow technology ensures high-noise immunity and extreme accuracy. Each connection terminal is protected against electrical surges and is high-noise immune capable. All terminals on the motherboard are clearly marked and easily identifiable (see Figure below). The motherboard has been especially designed to accommodate with ease the various SmartLoop attachment boards. Figure 5 - About the motherboard The motherboard components 1. Keypad/Display wire to board connector 2. Loop 1 status LEDs (1 green - 2 red) 3. Loop 2 status LEDs (1 green - 2 red) 4. SmartLoop/2L board connector (2-loop expansion board) 5. SmartLAN board connector 6. Microprocessor Hard Reset button 7. Memory jumper (if removed and the panel is switched Off, the system will restore to factory default settings) 8. Memory battery (3 V lithium battery) 9. COM RS232 connector (DB9 male) 10. USB connector (type B) 11. SmartLoop/PSTN plug-in module connector 12. Clear ground-fault jumper (removal of this jumper clears ground faults) 13. On-panel thermal printer connector 16 Internal devices

17 14. Programming jumper (removal of this jumper blocks access to programming) 15. Ancillary power supply connector (not operational with this model) 16. ProbeTH Thermal probe board connector (Thermal probe not included) 17. Switching power-supply module connector 18. SmartLoop/NET plug-in module connector 19. Resettable fuses 20. Connector for external batteries (not operational with this model) 21. Connector for internal batteries (connection wire included) 22. PL terminals (signal battery disconnected conditions) PL closes to GND in the event of shutdown (primary and secondary power failure) Under normal operating circumstances, PL is open 23. AUX Terminals: 24 V output for external loads 24. AUX-R Terminals: 24 V output for external loads (with "power Cutoff" during reset) Suitable for powering devices that require power loss in order to reset (e.g.: beam detectors) 25. RS485 Bus for Repeater connections (accommodates up to 8 Repeaters) 26. ALARM relay (dry contact) 27. FAULT relay (dry contact) 28. Supervised FAULT output protected by 1 A fuse 29. SmartLoop/INOUT plug-in module connector 30. Supervised ALARM output protected by resettable 1 A fuse 31. Programmable NAC outputs protected by resettable 1 A fuse 32. Loop 2 In/Out terminals 33. Loop 1 In/Out terminals 4.2 About attachment boards The motherboards accommodates the following attachment boards: - Up to 3 SmartLoop/2L loop expansion boards (2 loops per board) - for Expandable models only (2080) - 1 SmartLoop/NET Network board - allows to create a control panel network environment (Hornet technology) - 1 SmartLAN LAN board for Ethernet connection (Janus Technology) - 1 Smartloop/PSTN telephone board for PSTN land line connection - 1 Smartloop/INOUT expansion board (provides 6 Inputs/Outputs) /P models (Advanced models) also support: - 1 Smartloop/PRN Thermal printer module (fitted to the frontplate) for printout of events in realtime or on request Refer to the respective paragraphs for the board descriptions. Figure 6 - The motherboard accessorized with attachment boards Internal devices 17

18 4.3 The SmartLoop/2L board All the SmartLoop 2080 series (expandable models) have 2 on-board loops expandable to 8 by means of 3 SmartLoop/2L expansion boards. The models SmartLoop 1010 series (non-expandable) have 1 loop only. Each loop accommodates up to 240 or 126 (depending on the selected protocol) fire detection/ signaling devices (refer to Appendix B). Due to electrical incompatibility (refer to Appendix B), different brand devices (i.e. devices using different protocols) cannot co-exist on the same loop. However, the loops can be programmed separately thus allowing the system to manage different brand devices on different loops. Figure 7 - The SmartLoop/2L board Figure 8 - The SmartLoop/2L board location on the motherboard The SmartLoop/EXP board components 1. Loop 1 status LED 2. Loop 2 status LED 3. Flat cable SmartLoop/2L board to board connector (up to 3 boards) 4. Flat cable motherboard to SmartLoop/2L board connector 5. Loop 2 In/Out terminals 6. Loop 1 In/Out terminals 18 Internal devices

19 7. Board screws (5) 4.4 The SmartLoop/NET board The SmartLoop/NET board will allow you to create a token-ring network (see Example configuration: 6 node token-ring network layout ) of up to 30 control panels by means of a 3-pole cable with a locking ring. The maximum cable length of 2000 meters (allowed between each control panel) provides a highly fault-tolerant network. Using a supplementary 2-pole cable (5 poles in all), you can create a protection ring which can pass alarm conditions, coming from a fire control panel with microprocessor fault, through the ring. Danger: In order to allow the ring to operate properly, the Port-B and Alarm-B terminals must be connected to the successive Port-B and Alarm-B terminals The SmartLoop/NET board components 1. A terminals: for the protection-ring connection (to be connected to Alarm-B of the successive control panel) 2. Communication Port A (to be connected to Port-B of the successive control panel) 3. In-ring LED (indicates the In Service/Out of Service status of the SmartLoop/NET board. If this LED is Off, the panel is isolated from the HorNet environment. 4. Port A status LEDs (2) 5. Port B status LEDs (2) 6. B terminals: for the protection-ring connection (to be connected to Alarm-A of the previous control panel) 7. Communication Port B (to be connected to the Port-A terminals of the previous control panel) 8. Board screws (4) Figure 9 - The SmartLoop/NET board Internal devices 19

20 Figure 10 - The SmartLoop/NET board location on the motherboard 20 Internal devices

21 4.5 The SmartLAN board The SmartLAN board connects to any Ethernet network and allows remote access (via Internet) to the fire control system (allows connection to all the fire control panels in the token-ring network). This board can send detailed s for each event, and by means of TCP/IP protocols, can send real-time event reports. This board also allows remote upload/download operations and provides a web server for web based access to the system. To enter in the SmartLAN board configuration, the default IP address is: Figure 11 - The SmartLAN board Figure 12 - The SmartLAN board location on the motherboard The SmartLAN board components 1. Flat cable board to motherboard connector 2. Microprocessor Reset button 3. Jumper for factory use only - DO NOT TOUCH 4. SD Memory card connector (can be used for storing pictures for attachment - maps, etc.) 5. USB1 port status LED 6. USB port 7. Ethernet port 8. Power supply LED 9. Motherboard communication LED 10. Activity LED (indicates data transmission via Ethernet) 11. RS232 port for remote printer 12. Board screws (4) Internal devices 21

22 4.6 The SmartLoop/PSTN board The SmartLoop/PSTN board allows the SmartLoop fire control panel to use the land line (PSTN). It manages (and monitors) 2 lines and uses the most widely used reporting protocols (SIA, Contact ID, etc.). It has an 8-slot audio memory for up to eight voice call messages. Completely managed by its on-board microcontroller, it generates emergency calls in the event of CPU fault, and also any alarm calls triggered during the CPU fault. Figure 13 - The SmartLoop/PSTN board Figure 14 - The SmartLoop/PSTN board location on the motherboard The SmartLoop/PSTN board components 1. Internal telephone line terminals: provides line voltage to the connected telephone devices, the LE line must be connected to these terminals. 2. External telephone line terminal: for the telephone line connection 3. Backup line terminal: for the connection of a secondary line to be used in the event of "primary line-down" conditions. 4. Backup line fault LED 5. Primary telephone-line fault LED 6. Activity LED (indicates data exchange between the SmartLoop/PSTN board and the motherboard) 7. Line-hooked LED (goes On when the PSTN board engages the phone line) 8. Phone plug-in connector (for recording voice messages using a normal phone) 9. Board screws (4) 22 Internal devices

23 4.7 The SmartLoop/INOUT board The SmartLoop/INOUT board provides 6 outputs (CH1 - CH6). Each of which can be configured as a: Supervised Output (NAC - 1 A max.), Supervised Input, Conventional detector line or Gas detector line. During the programming phase, you can program the events which will activate the outputs and the actions generated by the inputs. Figure 15 - The SmartLoop/INOUT board Figure 16 - The SmartLoop/INOUT board location on the motherboard The SmartLoop/INOUT board components 1. Activity LEDs (2) 2. Fault LED on at least 1 of the 6 board channels 3. Input/Output terminals 4. Board screws (4) 4.8 SmartLetUSee/LED module The SmartLetUSee/LED can be used with /P models only. It fits directly to the frontplate door, and connects to the keypad/display board. It has 48 red zone status LEDs that provide the signals defined during the configuration phase. Internal devices 23

24 Figure 17 - The SmartLetUSee/LED module Figure 18 - The SmartLetUSee/LED module location on the motherboard The SmartLetUSee/LED module components 1. Programmable command LEDs (48 LEDs) 2. Flat cable display to LED board connector (4 pin connector) 3. Board anchor holes (6) 4.9 The SmartLoop/PRN module (for /P models only) The SmartLoop/PRN thermal printer module uses 82mm thermal roll paper and can be connected directly to the motherboard (connector cable included). It provides a continuous real-time printout of events and/or date to date enquiry printouts. It can also printout complete reports for each separate loop, containing information related to the status of each detector/module (dust accumulation, loop communication quality, real-time values, etc.). 24 Internal devices

25 Figure 19 - The SmartLoop/PRN module 1 2 Figure 20 - The SmartLoop/PRN (Printer) module location on the motherboard The SmartLoop/PRN module components 1. Power supply terminals (24V DC) to be connected to the red and black wires of the cable (included) 2. Module to motherboard connector (for the cable jack) 3. Sliding locks 4. Printer module status LED 5. Paper roll button 6. Front-locking tabs 7. Paper slot Internal devices 25

26 4.10 The SmartLetUSee/LCD and SmartLetUSee/LED Repeater panels The SmartLoop fire control panel supports 8 SmartLetUSee/LCD remote Repeater panels. These remote panels can be connected to the RS485 bus on the motherboard by means of a 4-pole cable. The EOL jumper must be set in the End of Line position on the last Repeater connected to the BUS. Each Repeater must be assigned an address by means of the on-board DIP switches. Repeater panels replicate all the SmartLoop fire system data and allow authorized personnel to access and control the system in accordance with access authorization (access requires code entry). Each SmartLetUSee/ LCD module accommodates one SmartLetUSee/LED module that provides 48 status LEDs associated with the zones. The ON/OFF logic of the LEDs can be defined separately for each Repeater during the programming phase. NOTE The SmartLetUSee/LED module can be used only in combination with a SmartLetUSee/LCD module ; EOL position Figure 21 - The SmartLetUSee/LCD module Figure 22 - The SmartLetUSee/LED module The SmartLetUSee/LCD module components 1. Terminals for Repeater connections to the RS485 BUS 2. EOL jumper (2 positions) to be placed in End Of Line position on the last Repeater 3. SmartLetUSee/LED board connector 4. DIP switch strip for address assignment to the Repeater 26 Internal devices

27 Chapter 5 Technical specifications Operating voltage Max current draw on AC input Internal power supply output voltage Internal Power supply MAX current 230 Vac -15% + 10% 50/60Hz Vac 27.6 Vdc 4 A Internal Power Supply Output ripple MAX 1% Max current available for external load (Loop devices, external loads, attachment boards, etc.) Low Voltage range 2.8 A Vdc Panel Current draw (motherboard+display) - Standby 200mA - from battery in the event of mains failure 120mA - Maximum battery-charge current 1 A Battery specifications (Brand and type) 12 7 Ah or Ah YUASHA NP 7-12 FR or NP FR or similar Flame Class UL94-V2 or higher Operating temperature From -5 to +40 C Dimensions (HWD) 48cm x 47cm x 13.5cm Weight without battery 8 Kg Attachment board current draw SmartLoop/2L (2 Loop expansion board) SmartLoop/INOUT (6 Input/Output expansion board) SmartLoop/NET (Token-ring network board) SmartLoop/PSTN (PSTN dialler board) SmartLAN (Ethernet board) SmartLoop/LED (48 LED board) SmartLoop/PRN (On-panel Thermal printer) SmartLetUSee/LCD (Repeater) SmartLetUSee/LED (Repeater LED expansion) stby: 20mA MAX:70mA stby:40ma MAX:300mA stby: 40mA MAX:40mA stby:20ma MAX:60mA stby:200ma MAX:200mA stby:40ma MAX:80mA stby:0 MAX:1A stby: 40mA MAX:50mA stby: 5mA MAX:50mA Absolute maximum ratings of terminals Technical specifications 27

28 Motherboard Loop Output Terminals Max 0.5 A each Loop NAC1, NAC2, NAC3, Alarm NAC, Fault Output Fault relay, Alarm relay RS485 BUS AUX, AUX-R CURRENT RIPPLE on AUX and AUX-R outputs PL 1.3 A MAX dry contact 30V max 1.8 A MAX 1.8 A MAX 1% MAX Normally Open Contact 30Vdc MAX SmartLoop/Input/Output on each CH 0.9 A MAX 28 Technical specifications

29 Chapter 6 Installation Danger: Installation of this fire control panel must be carried out in full respect of the local fire codes, laws and bylaws in force, and in accordance with the instructions and guidelines herein. The cable glands must be rated UL94-V1 flame class (or higher) 6.1 Choosing the mounting location This Fire control panel should be located in a place that is: Dry Far from sources of interference, including: Electrical noise such as electric motors in appliances and heating, and air conditioning units. The mounting location must satisfy all the requirements of the respective Fire Code, laws and bylaws in force. 6.2 Installation flow, guidelines and testing 1. Lay the cables 2. Connect the system devices to the loop. 3. Install system peripherals 4. Mount the panel 5. Install accessory modules (if necessary) 6. Power up the system 7. Test the system (network, repeaters, ancillary and signaling devices). Danger: DO NOT apply mains power until all connections have been completed Wall mounting the panel Figure 23 - Wall mounting the panel Installation 29

30 Note: The numbers in square brackets in this section will help you to identify the locations, parts and board components. Work carefully through the following steps. 1. Mark the four wall plug holes on the wall and drill the holes. Danger: Care must be taken not to drill in the vicinity of electrical wiring, heating ducts and plumbing. 2. Remove the knockout of the cable entry you intend to use (you can choose from knockouts on the sides of the cabinet or use one of the cable entries on the back). 3. Fit a cable gland (not included) to the wire entry. 4. Using wall plugs, attach the cabinet securely to the wall. 5. Pull the cables through the cable entry. 6. Connect the SmartLoop/LED module (if used) to the motherboard (see Connecting the SmartLoop/LED module on page 31.). 7. Connect ant attachment boards to the motherboard. 8. Connect the SmartLoop/PRN module (if used) to the motherboard (see The SmartLoop/PRN module (for /P models only) on page 24.) 9. Complete the connections Connecting attachment boards Figure 24 - Connecting attachment boards Attaching boards to the motherboard 1. Remove the respective screws on the motherboard (see the figure for the location of the board concerned). 2. Screw in the metal board supports (supplied with the board). 3. Plug the attachment board into its connector. 30 Installation

31 4. Using the screws (previously removed), secure the board to its location Flat cable to motherboard attachment boards (SmartLoop/2L or SmartLAN) 1. Remove the respective screws on the motherboard (see the figure for the location of the board concerned). 2. Screw in the metal board supports (supplied with the board). 3. Connect one end of the flat cable (supplied) to the motherboard. 4. Fit the attachment board to the supports and, using the screws (previously removed from the board) secure it in place. 5. Using the other end of the flat cable, connect the attachment board to the motherboard. Note: You must insert the 2032 lithium battery into its holder (with + sign facing you) before connecting the SmartLAN board. This battery guarantees data retention. 6.3 Connecting the SmartLoop/LED module Figure 25 - Connecting the SmartLoop/LED module 1. Fit the plastic spacers to the soldered screws on the back of the cabinet door. 2. Locate the SmartLoop/LED module in position. 3. Using the nuts (supplied), secure the board to its location. 4. Using the flat cable, connect the SmartLoop/LED module to the Keypad/Display module. Installation 31

32 6.4 Connecting the SmartLoop/PRN printer module Figure 26 - Connecting the SmartLoop/PRN printer module 1. Remove the nuts from the soldered screws on the plate [refer to Figure 26-1], then remove the plate. 2. Slide out the side locks (fitted flush with the sides of the printer) [refer to Figure 26-2]. 3. Working from the front of the cabinet (door closed), insert the Printer into its location [refer to Figure 26-3]. 4. Holding the printer module firmly in position, open the door and, using the side locks, secure the module to its location [refer to Figure 26-4]. 5. Connect the 2 wires and the connector [refer to Figure 26-5] to the terminals Figure 20-1 and 2. Connect the SmartLoop/PRN printer module to the motherboard (Figure 5 - connector 13]. 6. Locate the adhesive wire saddles (included in SmartLoop/PRN kit), above the display board as indicated in the figure. Refer to Figure Push the cable into the wire saddles (included in SmartLoop/PRN kit). 32 Installation

33 Chapter 7 Connections 7.1 Note to the Installer regarding wiring and connection compliancy Two wire connection For a system that is EN54 compliant, no more than 32 sensors can be connected when this type of wiring is used Four wire connection For a system that is EN54 compliant, an insulation module must be installed for each group of 32 detectors (refer to paragraph B.14 Modules with Isolators for information regarding the devices with built-in isolators). T junction connections are prohibited. Fire code guidelines Danger: If you are using a 2 wire connection, no more than 32 detectors can be connected to the loop. If you are using a 4 wire connection, T junctions are prohibited, that is unless the maximum number of devices that risk isolation during any type loop fault does not exceed 32. If the system loop devices do not have built-in isolators, you must install an isolator for each group of 32 detectors. Refer to Appendix B and Appendix B for further details. All circuits should be wired using the local country Fire Code compliant method. 7.2 About the circuitry The fire alarm system circuitry is critical to the safety and well being of the building occupants. It is considered an essential communication path during evacuation or relocation of persons during a fire or emergency situation. During such an event, it is critical for fire safety equipment such as fire alarm signaling equipment to remain operational for a specified amount of time. Therefore, all circuits are to be wired using the local country Fire Code compliant method Guidelines The fire alarm system circuitry must not be commingled without proper separation, and must be kept separate from all other wiring. Junction boxes are required at splice points. All Junction boxes must be installed using the local country Fire Code compliant method. Any wires/cables inside the SmartLoop cabinet must be secured to the cable hooks on the back box by means of plastic cable ties or similar fittings. The mains power supply cable must enter the control panel cabinet through the appropriate cable entry and must not cross other conductors. The mains power supply cable must be secured to the cable hook on the back box by means of a plastic cable tie Connection flow 1. Loops 2. NAC 1, 2, 3 - Alarm NAC - Fault Output 3. Fault relay 4. Alarm relay 5. Aux, AuxR terminals (power supply outputs for ancillary devices) 6. PL terminal board Connections 33

34 7. Repeater 8. Printer connection 9. Permanent PC connection 10. Battery connection 11. Mains power connection (to the Electrical Switchboard) 7.3 Description of the motherboard terminals The numbers in square brackets in this section will help you to identify the components on the motherboard (see Figure 27) Terminals Figure 27 - Terminals AUX terminals: 24 V output for external loads protected by resettable 1.8A fuse [23] AUXR terminals:24 V output for external loads protected by resettable fuse 1.8A (with power cutoff during reset) [24] PL Terminal [22] (comprises terminals PL and GND). PL closes to GND in the event of control panel shutdown. RS 485 BUS for the Repeater connections (up to 8) [25] ALARM relay (dry contact) [26] FAULT relay (dry contact) [27] Supervised FAULT NAC output protected by 1 A fuse [28] Supervised ALARM NAC output protected by 1 A fuse [30] Supervised, programmable NAC Outputs (NAC1, NAC2, and NAC3) protected by 1 A fuse [31] Loop 2 In/Out terminals [32] (6 terminals, 3 Input terminals and 3 Output terminals) Loop 1 In/Out terminals [33] (6 terminals, 3 Input terminals and 3 Output terminals) 7.4 Loop Connections The loops accommodate a vast array of fire system devices (detectors, manual callpoints, fire buttons, Input and Output modules, etc.). For a detailed description of the devices the Loop accepts, refer to Appendix B. Due to electrical incompatibility (refer to Appendix B), different brand devices (i.e. devices using different protocols) cannot co-exist on the same loop. However, the loops can be programmed separately in such way as to allow the system to manage different brand devices on different loops. 34 Connections

35 Note: Each loop output conductor must be fitted with a split ferrite core (included), as shown in the figure below. Figure 28 - Attaching the split ferrite core to loop output cables 7.5 Loop terminals Loop1 Output (terminal + and - ): connect all loop devices in parallel to these terminals, in accordance with the specific device instructions. Earth*: connect the shield of the STP cable (2 pole) to this terminal. Note: Always leave one end of the shield disconnected. Loop1 Input (terminal + and - ): connect the return loop wiring to these terminals. These terminals allow the panel to check the loop integrity. In the event of a single interruption on the circuit, the panel will communicate with the isolated trunk elements via these terminals. Earth*: connect the shield of the STP cable (2 pole) to this terminal. Note: Always leave one end of the shield disconnected. 7.6 Connecting devices to the Loop The loop devices can be 2-wire (open loop) or 4-wire (closed loop) connected. Use 4-pole shielded twisted cable or shielded twisted pair cable (2 pole). For the wire sizing, refer to Appendix B. BLR100 VB100 VB100 LOOP-I - + FI100 REMOTE LED LOOP-O Figure 29-2 wire connection If you are using a 4 wire connection, connect the STP cable shield to one end of the loop and leave the other end disconnected. Connections 35

36 BLR100 VB100 VB100 LOOP-I - + FI100 REMOTE LED LOOP-O Figure 30-4 wire connection 7.7 NAC Outputs (Notification Application Circuit) Alarm NAC Alarm NAC output (30) protected by 1 A resettable fuse: Supervised, Silenceable output To be connected to: ALARM signaling devices. Operating principles This output will activate when FIRE ALARM conditions are detected. In the event of activation, the output will supply a 24V current in accordance with the polarity indicated on the terminals. During STANDBY a low supervisory current with reverse polarity (with respect to the silk-screened indications on the motherboard) circulates on the line. The diodes (connected in series to the loads) will direct the current to the EOL resistor which must be connected in parallel to the last device (see Figure 31) Fault NAC Output Fault NAC output [28] protected by 1 A fuse: Supervised, Silenceable output. To be connected to: Fault signaling devices (LEDs, etc.). Operating principles This output will activate when FAULT conditions are detected. In the event of activation, the output will supply a 24V current in accordance with the polarity indicated on the terminals. During STANDBY a low supervisory current with reverse polarity (with respect to the silk-screened indications on the motherboard) circulates on the line. The diodes (connected in series to the loads) will direct the current to the EOL resistor which must be connected in parallel to the last device (see Figure 31) NAC1, NAC2 and NAC3 NAC1, NAC2 and NAC3 [31] protected by 1 A fuse: Programmable multi-purpose outputs Can be connected to: various types of signaling and control devices (pressure valves, fire doors, etc.). Operating principles These outputs will activate in accordance with programming. In the event of activation, the output will supply a 24V current in accordance with the polarity indicated on the terminals. 36 Connections

37 During STANDBY a low supervisory current with reverse polarity (with respect to the silk-screened indications on the motherboard) circulates on the line. The diodes (connected in series to the loads) will direct the current to the EOL resistor which must be connected in parallel to the last device (see Figure 31). NAC NAC VIOLET YELLOW ORANGE GOLD NAC 1N K Figure 31 - Wiring diagram */Alarm NAC - Fault NAC - NAC1, NAC2 and NAC3 7.8 PL terminal (for Shutdown signaling) The Normally Open PL [22] terminal closes to GND (ground) in the event of control panel shutdown (mains and battery power failure). These terminals can be used to provide Shutdown signaling. 7.9 AUX output The AUX output [23] provides a 24 V ( A) power supply to external loads (ancillary devices). This output is short-circuit protected by a resettable fuse. In the event of short-circuit, the panel will signal an AUX output fault AUX R output The AUX R output [24] provides a 24 V ( A) power supply (which is removed temporarily during control panel reset) to external loads (ancillary devices) that must switch off in order to reset (e.g. beam detectors). This output is short-circuit protected by a resettable fuse. In the event of short-circuit, the panel will signal an AUX R output fault Alarm relay The alarm relay provides a dry contact [26] which can switch loads of up to 5A (30 V max.). This relay toggles its status in the event of panel alarm. Attention: In order to validate the IMQ-SISTEMI DI SICUREZZA certification, this output should not be used as a type C and/or E and/or J and/or G output (EN 54-1), therefore, it must not be used to command fire alarm devices and/or fire alarm transmission devices Fault relay The Fault relay provides a dry contact [27] which can switch loads of up to 5A (30 V max.). This relay toggles its status in the event of panel fault. Attention: In order to validate the IMQ-SISTEMI DI SICUREZZA certification, this output should not be used as a type J output (EN 54-1), therefore, it must not be used to command Fault transmission devices. Connections 37

38 7.13 Connecting Repeater panels to the RS 485 bus The RS 485 BUS accepts up to 8 Repeater panels. Figure 32 - Connecting Repeater panels 1. Use 4-pole shielded twisted cable for the connections. 2. Connect the Repeater panels in parallel to the RS 485 bus. 3. Insert the jumper in EOL position on the last Repeater panel only (as shown in Figure 42). The maximum wire length of the RS485 BUS is 1000 meters Connecting the SmartLoopNET module Use either 4 pole shielded twisted cable for the connections or Cat 5 STP cable for Ethernet connections. The latter will allow you to wire the data communication ring and the emergency alarm ring (see the Figure below). PORT-A ALARM-A PORT-B ALARM-B PORT-A ALARM-A PORT-B ALARM-B D D D D D D D D PORT-A ALARM-A D D PORT-B ALARM-B D D Figure 33 - Connecting the SmartLoopNET module Danger: In order to allow the ring to operate properly, the Port-B and Alarm-B terminals must be connected to the successive Port-B and Alarm-B terminals. The control panel uses an RS-485 BUS for the HorNet ring node to node communications. The RS-485 BUS communicates at speeds of up to baud over distances up to 2000 metres between two nodes. The SmartLoop/NET ports are opto-isolated, as without isolation the connection to the data acquisition hardware to the target carries the potential for creating ground loops which will cause excessive noise in the signal Connecting the SmartLoop/INOUT Board Each of the terminals on the SmartLoop/INOUT board can be configured in one of the following ways: 38 Connections

39 Supervised NAC Output VIOLET YELLOW ORANGE GOLD 1N4007 Figure 34 - Supervised NAC Output 47K Convenzional Zone CONVENTIONAL DETECTOR 1 CONVENTIONAL DETECTOR WHITE ORANGE RED GOLD R R+ 3.9K Figure 35 - Convenzional Zone Gas Zone Lines configured as Gas Zone 4-20mA will generate early warning signals if the value of the detector output exceeds 16mA. In order to implement the early warning signal, it must be enabled (during the programming phase) on both the control panel and the zone the line belongs. The "early warning" signal will stop automatically, if a gas detector exceeds the 12mA early warning threshold then returns below this value without reaching the "alarm" threshold. + S - GAS DETECTOR 4 20 ma BLACK BROWN RED GOLD 1K 1w Figure 36 - Gas Zone Connections 39

40 Supervised Input VIOLET YELLOW ORANGE GOLD 47K GREEN BROWN ORANGE GOLD Figure 37 - Supervised Input 7.16 Connecting to a PC or serial printer The panel can be connected: 15K permanently to a PC equipped with monitoring software; temporarily to a PC during system configuration sessions (for uploading/downloading). The panel can be connected via: RS232 port USB port Ethernet port (if the system is equipped with a SmartLinkLAN board) Note: Use of one of these ports automatically excludes use of the others. The communication ports are opto-isolated in order to allow permanent connection to a PC or printer Connecting a SmartLinkLAN board equipped panel to a PC In this case, the RS232 and USB port will not be available for use. Therefore the PC must be connected to the Ethernet port on the SmartLinkLAN board by means of a cross patch-cord Connecting a serial printer 1. Connect the serial printer to the RS232 port. 2. Using the Print option from the panel display menu, enable the printer to communicate with the panel. Note: If you intend disconnecting the serial printer from the RS232 port in order to connect a PC, it will be necessary to DISABLE the serial printer before doing so. If you do not DISABLE the serial printer, the PC will be unable to communicate with the panel Batteries The panel cabinet provides housing for two 12 V / 17 Ah internal batteries. Once powered up, the panel will recharge and monitor the batteries automatically, as follows Efficiency testing The panel checks the efficiency of the batteries at 60 second intervals, by simulating load current demand (as required during mains black-out). If the batteries fail to meet the demand, the event will be indicated on the respective Fault LED and on the display. 40 Connections

41 Voltage testing The panel continuously monitors the battery voltage. If the voltage drops below the 22.8 V, the panel will signal the event on the respective Fault LED and on the display. The event will end when the voltage restores to over 24.6 V Deep discharge monitoring If the battery voltage drops below 18 V, the panel will disconnect them in order to avoid battery damage. If this occurs, the PL terminal will close to ground thus generating a Shutdown signal Connecting the batteries 1. Locate the batteries in position [figure 40-1], as shown in the following figure. 2. Using the battery terminal eyelet wires (included), insert the battery terminal bolt through the spacer washer and battery terminal eyelet tab, as per following figure. Figure 38 - Connecting the batteries 7.20 Connecting the Thermal Probe Attention: In order to validate the IMQ-SISTEMI DI SICUREZZA certification and comply with EN 54-4 requirements, installation of a thermal probe is essential. This panel has an on-board connector [figure 5-16] for a ProbeTH thermal probe (accessory item). The ProbeTH thermal probe regulates the battery-charge system by interacting with the battery temperature, this operating method avoids battery damage. 1. Plug the ProbeTH thermal probe into the connector [figure 5-16] on the motherboard. Disconnect the batteries (if already connected). 2. Using a strip of strongly-adhesive insulating tape (not included), attach the Thermal probe to one of the batteries, in such way as to a provide optimized heat-transfer measurements. 3. Using a thermometer, measure the probe temperature. 4. Using the following graph (Charge voltage in relation to Battery temperature), find the optimal value of the charge voltage. 5. Using a voltmeter, measure the voltage on the AUX terminals [figure 5-23]. 6. Using the trimmer [figure 40-2] on the switching battery supply module [figure 40-3], adjust the voltage to the value found on the graph. Connections 41

42 Volt 29 28, , , , C Figure 39 - Charge Voltage in relation to Battery Temperature 7.21 Connecting to the Mains power source (Electrical Switchboard) The power system of the SmartLoop control panel is EN54-4 compliant. Danger: DO NOT power up the system with a non-compliant voltage (see label) Figure 40 - Mains power and battery connections and trimmer details For a safety standards compliant system, the Line must be connected to terminal [ACL], Neutral to terminal [ACN] and Earth to terminal [FG]. This panel must be connected to a separate line on the Electrical Switchboard (Mains power supply). The line must be protected by a sectioning device which complies with local safety regulations, fire codes, laws and bylaws in force. 42 Connections

43 Danger: The protective earthing system must be compliant with the local safety regulations, fire codes, laws and bylaws in force. Note: As a further safety measure, the electrical system of the building must be protected against overload and short-circuit. Primary power source: 230 V ac (-15% + 10%) 50/60 Hz. Maximum current draw : 0.9 Aac After connecting the conductors to the power module terminals, using a cable tie, bunch the wires together and attach them firmly to one of the cable hooks [figure 40-4] on the backbox. The mains supply conductors must not cross other conductors. Refer to the wiring diagram [figure 40]. Note: The connection wires (to the electrical mains, and also any other wires inside the SmartLoop cabinet) must be secured to the cable hooks on the back box by means of plastic cable ties or similar fittings. Use cable with double isolation for the connection to the electrical mains. Ensure that the switching power supply is properly earthed and, if you are installing a SmartLoop/PSTN, ensure that the metal supports are tightly screwed in place, in accordance with the instructions in this manual. 1. Connect the electrical mains power to the power supply module terminals [figure 40-5]. 2. Connect Earth to terminal [FG]; Neutral to terminal [ACN] and Line to terminal [ACL]. 3. Fit the two 12 V / 17 Ah internal batteries. Use YUASA 12 V / 17 Ah batteries - model NP FR or similar with the case rated UL94-V2 flame class (or higher). Note: A protective earth connection ensures that all exposed conductive surfaces are at the same electrical potential as the surface of the Earth, in order to avoid the risk of electrical shock if a person touches a device in which an insulation fault has occurred. In the event of an insulation fault, a protective earth connection will generate a high fault current which in turn will trigger an overcurrent protection device (fuse) and disconnect the power supply. Connections 43

44 Chapter 8 Powering up the system Attention: When you think you have the system completely wired, double check the integrity of the wiring and ensure that the earth connection has been completed properly before powering up. 8.1 Testing wiring integrity Work carefully through the following steps, use a multimeter or similar tool for the electrical measurements. 1. Check there is no electric current flow between the cables and earthing system. For accurate measurement, remove the extractable terminal boards from the motherboard. 2. Check there is no electric current flow between the cable shields and earthing system. For accurate measurement, disconnect the shields from the respective terminals by removing the extractable terminal boards. 3. Check the wiring integrity of each NAC output. For accurate measurement, remove the respective extractable terminal boards from the motherboard and measure the cable resistance. Test both polarities, at least one of them must have the same resistance as the EOL resistance. 4. Check all cables are adequately separated, bunched (by means of cable ties) and attached firmly to the cable hooks on the backplate. 5. Check the proper polarity of the primary power supply connections (230 Vac) and ensure the wire is attached firmly (by means of a cable tie) to a cable hook on the back of the cabinet. 6. Check that the connected Repeater panel DIP microswitches have been properly set. Figure 41 - DIP switch settings 44 Powering up the system

45 Posizione Dip Switch Indirizzo Posizione Dip Switch Indirizzo ON 1 ON ON 2 ON ON 3 ON ON 4 ON Check that the EOL resistance jumper [figure 42] is in the EOL position on the last Repeater panel only. Jumper in EOL position for the last Repeater Jumper position for other Repeaters Figure 42 - Jumper position 8. If several panels are connected in a token-ring network, check the integrity of the ring, as follows: Extract the network terminal boards [figure 9-2,6] from the SmartLoop/NET board of one of the panels, and check the continuity of wiring in the D+ circuit (between D+ poles of ports A and B), and the D- circuit (between D- poles of ports A and B). Powering up the system 45

46 8.1.1 First power up Figure 43 - First power up 1. Insert the SAVE jumper [figure 5-7] (data retention is guaranteed by the 2032 lithium battery). 2. Using the battery terminal eyelet wires (one at each end), connect the 17Ah batteries together, the positive of one battery to the negative of the other [figure 38]. 3. Connect the battery to control panel terminal eyelets wires (included), insert the battery terminal bolt through the spacer washer and battery terminal eyelet tab, observe the polarity (red to positive, black to negative). Using the same wire, connect the batteries to the control panel motherboard. Observe the connector polarity [figure 5-21]. 4. The panel will take several seconds to stabilize. 5. After approximately 2 minutes, the panel will signal a Mains Power fault (Fault LED and Mains LED On). The CPU FAULT LED will blink to indicate board activation. 6. Power the panel from the mains. The Mains fault (if active) will clear (MAINS POWER LED will go Off) but the yellow fault LED (FAULT LED) will retain fault memory until manually reset. 7. If at this point the panel signals other faults, check the wiring integrity and clear all faults before continuing (refer to Troubleshooting on page 47). 8. Once all fault conditions have been cleared, turn the key in the keyswitch to access Level 2 (refer to Operator authorization access levels on page 9) then press RESET. All LEDs, except for the green ON LED should go Off and the panel display should show No Alarm, No Fault. 9. Press the TEST button to check the integrity of the LEDs. 46 Powering up the system

47 Chapter 9 Troubleshooting 9.1 NAC, Alarm and Fault output trouble Using a multimeter or similar tool, check the voltage on the terminals. During normal operating conditions (standby status), the measurement should be around 15 V with reverse polarity with regard the silk-screened indications on the terminal board. If the measurement is around 24 V with reverse polarity with regard the silk-screened indications on the terminal board, then either the circuit does not end on the EOL resistance or there is an interruption on the cable. - Check the integrity of the device connections and the EOL resistance on the last device. - Check the cable continuity. If the measurement is around 0 V the cable is shorted. - Check the device connections and the various cable sections. 9.2 LOOP Fault If the Shorted Loop OUT warning appears on the panel display, a short-circuit in the loop across the Loop-O terminals and the first isolator has been detected. - Check the connection wiring and the integrity of the cable in the first section of the loop. If the Shorted Loop IN warning appears on the panel display (for loops with 4-wire circuitry only), a short-circuit in the loop has been detected in the section across the Loop-1 terminals and their nearest isolator. - Check the integrity of the connection wiring and the integrity of the cable in the section concerned. If the Shorted OPEN warning appears on the panel display (for loops with 4-wire circuitry only), the Loop continuity across the Loop-O and Loop-1 terminals is interrupted. This may be caused by: - An OPEN isolator in the loop Check all the isolators in the loop. At least one of the isolator LEDs will signal Isolated status. Once you have identified the open isolator, check the loop connection wiring and the cable section concerned, and the adjacent sections, which may also be open. - Cable Interruption Disconnect the Loop-1 terminals of the panel. Access the Main menu from the panel Select Maintenance>Test LEDs Points - this menu will allow you to switch On/Off the device LEDs. Search the loop for the last device in proper working order. NOTE After testing a device LED, ensure that it is OFF before going to the LED of the next device. Once the last device in proper working order has been identified, check the integrity of the wiring and the cable in the successive section. - Missing loop devices (the panel is unable to find some of the connected loop devices) Access the Main menu from the panel. Select Maintenance> Test LEDs Points - this menu will allow you to switch On/Off the loop device LEDs. Search the loop for the missing devices. Once the missing devices have been identified, check the integrity of the wiring and the address of each missing device. - Duplicated address (an address has been assigned to more than one device) Access the Main menu from the panel. Select Maintenance>Test LEDs Points - this menu will allow you to switch On/Off the device LEDs. Switch On the LED of the devices that signal duplicated address. Search the loop for the devices concerned. Once the devices have been identified, check the address of each device and rectify the error. Loop status LEDs - TRANSMISSION Troubleshooting 47

48 - Check that the flashing Loop transmission LED corresponds to the respective loop settings. If the LED does not correspond, check the loop parameters. Loop return LED -Reception The green LED of each loop will blink each time an interrogated device responds. If this LED is On solid, it means the device response has been interrupted by an anomalous current flow through the conductive path between the two poles of the loop. - Ensure that only the system devices are connected to the loop. 9.3 Repeater Fault Missing Repeaters (the panel is unable to find some of the connected Repeater panels) Check that the Repeater addresses have been set properly (check the respective DIP switches, refer to Figure 41 - DIP switch settings). Check the integrity of the wiring and the connection polarity. Check that the EOL jumper is set to EOL position ONLY on the last Repeater connected to the BUS. Using a multimeter or similar tool for the electrical measurements: - Measure the voltage across the +24 V and GND terminals of the RS485 BUS. If the voltage is below 20 V, the resettable protection fuse is open, therefore, the current draw of the devices connected to the BUS is excessive. - Disconnect the devices connected to the BUS one at a time until you find the cause. 9.4 Battery Fault Figure 44 - Batteries No battery The batteries are either not connected or have failed the battery efficiency test. Allow them to recharge for several hours. If the trouble persists, disconnect them from the panel and, using a multimeter or similar tool, measure them separately. If only one of the batteries is below 12.5 V: - Replace the battery concerned and allow it to recharge for several hours until fully charged. If both batteries are below 12.5 V.13 V: Replace both batteries and allow them to recharge for several hours until fully charged. If the battery is equipped with a thermal probe: - Check that the voltage corresponds to the value calculated using the graph (paragraph Connecting the batteries). If the voltage is different, rectify it to 13.8 V by means of the trimmer [Figure 40-2] Low battery (insufficient voltage) This fault warning occurs only when the primary power supply (230 Vac Mains) fails. This condition must be cleared before the batteries get too low and are unable to power to the system. 48 Troubleshooting

49 9.5 SmartLoopNET Fault (error in the token ring network configuration) Access to Network Denied Figure 45 - Access Denied message This message appears when: The SmartLoopNET board is not operating properly. - Check that the board is inserted properly. - Relaunch the auto-configuration phase. - Ensure that the blue LED [Danger:3] stays On while this phase is running, and that the NODE A [Danger:5] and NODE B [Danger:4] activity LEDs blink briefly to indicate communication attempts on both branches. If no LEDs go On (including the IN-NET LED), the board may be damaged and might need replacing. Duplicated address (address assigned to more than one control panel) - Access the Main menu from the panel. - Select Programming>Configuration>View Configuration>NET (Programming>Configuration>View Configuration>NET). - Check the address of each panel in the token-ring network and rectify the error. Network Loop open The token-ring network cabling must be closed properly otherwise the system will be unable to configure properly. Check the integrity of the ring cabling, as follows: - Restore all the panels in the token-ring network to address O. - Remove the network terminal boards [Danger:2 and 6] from the SmartLoopNET board of one of the panels and check the continuity of wiring in the D+ circuit (between D+ poles of ports A and B), D-circuit (between D- poles of ports A and B) and the two GND. 9.6 NET Link ALARM-A Wiring fault in the emergency alarm ring circuit. Check the integrity of the circuit wiring of the panel that generated the event. - Using a multimeter or similar tool, measure the voltage over ALARM-A + and - terminals. Under normal operating conditions the value should be approximately 2.5 V. If the value is nearer to 5 V, the connection with terminals ALARM-B + and - of the adjacent control panel is interrupted. - Check the integrity of the connection. If the voltage is nearer to 0 V, there may be a short-circuit between the two poles that connect the ALARM-A + and - terminals of the board concerned with the ALARM-B + and - terminals of the antecedent board. Note: If the emergency alarm loop is not used, it must be disabled via software, otherwise it will signal a persistent fault condition. Troubleshooting 49

50 Appendix A Maintenance The following operations must be carried out regularly. 1. Using a damp lint-free cloth, remove any dust that may have gathered on the control panel (do not use any kind of cleaning product or solvent!). 2. Push the TEST button to check the proper operating capability of the LEDs and beeper. 3. Check the battery efficiency and change them if necessary. 4. Check the integrity of all wires and connections. 5. Ensure that there are no insects inside the control panel. 6. Carry out maintenance on the detectors (clean the outside and the detection chamber). Note: Points 1 and 2 can be carried out by authorized persons, whereas all other points must be carried out by qualified technicians. 50 Maintenance

51 Appendix B Argus devices supported by the control panel Note: The ARGUS devices accepted by this control panel do not have IMQ-SISTEMI DI SICUREZZA certification, refer to the instructions leaflet provided with each device. All Argus Vega devices have built-in loop isolators. Therefore, isolators are not required. A shortcircuit on the loop will not provoke loss of any device. Each detector is equipped with a 3-colour LED: green (periodic blinking) indicates the detector is working properly (if enabled). Yellow indicates that the detector is not operating properly (fault) or has an open isolator, whereas red indicates alarm status. Detectors are equipped with test LEDs: if you hold a magnet near the detector base (near to the two notches) the detector should generate an alarm signal. B.1 Devices Model Name Description Note V100 Analogue Photo detector Optical Smoke detector V200 Analogue Multicriteria detector Optical Smoke/Heat detector V350 Analogue heat detector Heat detector ( a ) VMI100 Input Module Module with 1 Supervised Input VMMI100 Input Mini Module Mini module with 1 Supervised Input ( b ) VMC100 Output Module Module with 1 Supervised Output VMMC100 Output Mini Module Mini Module with 1 Supervised Output ( b ) VMC120 Output Module Form C Module with 1 form C Output (1 NON-Supervised Output) VMMC120 Output Mini Module Form C Mini Module with 1firm C Output (1 NON-Supervised Output) ( b ) VMIC100 Input Output Module Module with 1 Supervised Input + 1 Supervised Output VMMIC100 Input Output Mini Module Mini Module with 1 Supervised Input + 1 Supervised Output ( b ) VMIC120 Input output Module Form C Module with 1 Supervised Input + 1 NON-Supervised Output (dry contact) VMMIC120 Input output mini Module Form C Mini Module with 1 Supervised Input + 1 NON-Supervised Output (dry contact) ( b ) VLS100 Intelligent Wall Sounder Loop Powered Sounder a. Configured as Rate-of-rise detector at default (alarm is triggered by rapid rise in temperature or when the temperature exceeds the 54 C alarm threshold). To configure as High temperature detector ( Rate-of-rise feature bypassed and fixed temperature set at 70 C) use the VPU100 programmer. The panel will recognize the configuration criteria automatically. b. Smaller model for customized housing. B.2 Device Bases Model Name Description Note VB100 Vega Universal Base Standard Base x Detectors Argus devices supported by the control panel 51

52 VDBS100 Deep Standard Base Deep Standard Base Allows connection to wall-mount cable runs BLR100 Vega Relay Base Relay Base Relay activated by the detector R output attached to the base VBS100 Detector Sounder Base Base with Sounder Activated by the detector R output attached to the base B.3 Wireless devices Model Name Description Note SGW2W Wire to Wireless Translator Connected to Loop, 32-device interface (Sagittarius series - SG) wireless to panel The panel sees the 32 devices as if they were connected to the Loop (with different addresses) SG100 Wireless Analogue smoke detector Wireless Analogue smoke detector Used only with SGW2W. SG200 Wireless Analogue Multicriteria detector Wireless Optical/Heat detector SG350 Wireless Analogue thermal detector Wireless Analogue thermal detector ( a ) SGMI100 Wireless Input Module Wireless Input Module SGMC100 Wireless Output module Wireless Output module SGCP100 Wireless Call Point Wireless Call Point SGRS100 Wireless Sounder Wireless Sounder B.4 Device Consumption B.4.1 a. Configured as Rate-of-rise detector at default (alarm is triggered by rapid rise in temperature or when the temperature exceeds the 54 C alarm threshold). To configure as High temperature detector ( Rate-of-rise feature bypassed and fixed temperature set at 70 C) use the VPU100 programmer. The panel will recognize the configuration criteria automatically. Detectors In standby: 90 ua In alarm: 6 ma B.4.2 Modules In standby: 120 ua In alarm: 6mA B.5 Notes on Loop wiring Use suitably sized twisted shielded cable for the loop wiring. Connect the shield to earth using terminal 3 or 6, connect it to one end of the loop only. In order to allow the loop to function properly, you must section the device connection cable in such way that any voltage drop along does not exceed 8 V. The following table shows the minimum dimensions for the loop wiring with regard the distance between the Loop-O terminals and the most distant device: up to 500 m min. 1 mm 2 up to 1000 m min. 1.5 mm 2 up to 1500 m min. 2 mm 2 up to 2000 m min 2.5 mm 2 52 Argus devices supported by the control panel

53 B.6 Configuring Argus devices Every ARGUS device requires an address to identify it in the loop. There are two ways of addressing ARGUS devices, one is to use a VPU (Vega Programming Unit), and the other is to use the Autoaddressing option. B.6.1 Auto-addressing from panel At the SmartLoop panel keypad: 1. Press any key to access the Main menu. 2. Select Programming - the panel will request code entry. 3. Enter the installer code (at default, the only active Installer code is 00004). 4. Select Configuration> Change Configuration> Manual Configuration> Loop (Configuration> Manual Configuration> Loop). 5. Select the Loop to be configured (1-8). 6. Select the loop parameters. The respective loop parameter screen will be shown: Loop Firmware release : 001 <Loop Description> Loop Type: <Loop Type Description> Loop Wiring : 4 Wires Figure 46 - Loop parameter screen 7. Program the loop in accordance with the connected device type and circuitry (2 or 4 wires). 8. Press the OK button to confirm the setting and exit the screen. Note: If you exit the screen using the ESC button, the setting WILL NOT BE SAVED! 9. Press ESC repeatedly until you return to the Programming menu. 10. Select Configuration> Change Configuration> Auto-Configuration> Loop(Configuration> Change Configuration> Auto-Configuration> Loop) Figure 47 - Loop programming screen Loop N ACQUIRE DEVICES : ADDRESS NEW DEV. : RE-ADDRESS ALL : Enter a + sign in the programming field that corresponds to the loop concerned. Use the UP/DOWN cursor keys to select/deselect choices and the LEFT/RIGHT cursor keys to move from one loop to another. If you select Auto-configuration, the control panel will enroll the devices connected to the loop using the pre-assigned address (assigned by means of the VPU100) without changing devices enrolled during previous operations. If you Select the Auto-addressing option, the control panel will assign an address to each new device (address 255) connected to the Loop. If you select the Re-addressing option, any assigned addresses will be deleted and new addresses will be given. All previously programmed data will be cleared. 12. Press the OK button - the panel will show the summary screen and ask for permission to continue. 13. Press the OK button to initialize the Auto-Configuration phase. Argus devices supported by the control panel 53

54 B.6.2 Addressing ARGUS detectors using a VPU Figure 48 - Keypad side of the VPU100 (Vega Programming Unit) Work carefully through the following steps: 1. Remove the detector from its base (twist off). 2. Fit the detector into the VPU (twist on). 3. Press any button on the VPU to switch On the unit. 4. Using the UP/DOWN scroll buttons, select an address (1-240) then press the WRITE button (top left) to confirm the selection. Note: Two hundred and forty addresses are available. Address entry errors can be corrected by simply readdressing the device (deletion not required). 5. Remove the detector from the VPU and fit it to its placement. B.6.3 Addressing ARGUS modules using a VPU Figure 49 - Addressing modules using a VPU100 Work carefully through the following steps: 1. Extract terminals 1-4 from the module. 2. Connect the VPU cable to the module, positive to terminal 1 and negative to terminal Argus devices supported by the control panel

55 3. Press any button on the VPU to switch On the unit. 4. Using the UP/DOWN scroll buttons, select an address (1-240) then press the WRITE button (top left) to confirm the selection. Note: Two hundred and forty addresses are available. Address entry errors can be corrected by simply readdressing the device (deletion not required). 5. Disconnect the VPU100 wires and reconnect the module to the Loop Apollo devices supported by the control panel Note: Not all the devices accepted by this control panel are IMQ-SISTEMI DI SICUREZZA approved, refer to the instructions leaflet of each device for details. Apollo devices are not equipped with built-in loop isolators (that is, unless otherwise specified). Therefore, you must install loop isolators in such way as to avoid the loss of devices in the event of short-circuit. B.7 Devices B.7.1 Note: Detectors: XP95 series XP95 series detectors are especially designed to operate with a sensibility of 55 (sensibility at default). Sensibility adjustment should be made only when absolutely essential, as any change may lead to delays in loop response time. Model Name Description XP95 Multisensor Detector Fire Smoke / Heat detector XP95 Optical Smoke detector Optical Smoke detector XP95 Ionization Smoke Detector Ionization Smoke Detector XP95 Heat detector - standard temperature Heat detector - standard temperature XP95 Heat detector - High temperature Heat detector - High temperature XP95 I.S. Smoke detector Intrinsic security Smoke detector XP95 I.S.Heat detector Intrinsic security Heat detector XP95 I.S.Ionization Smoke detector Intrinsic security Ionization Smoke detector B.7.2 Detectors: Discovery series Model Name Description Discovery Optical Smoke detector Optical Smoke detector Discovery Heat detector Heat detector Discovery Multisensor detector Optical Smoke detector + Heat detector Discovery Carbon Monoxide detector Carbon Monoxide detector Discovery Ionization Smoke detector Ionization Smoke Detector Apollo devices supported by the control panel 55

56 B.7.3 Note: Detectors: Xplorer series Xplorer series detectors are especially designed to operate with a sensibility of 55 (sensibility at default). Sensibility adjustment should be made only when absolutely essential, as any change may lead to delays in loop response time. Model Name Description Standard heat detector with standard base Standard heat detector with standard base Standard heat detector with LED driver base Standard heat detector with LED driver base Standard heat detector with base sounder Standard heat detector with base sounder High temperature heat detector with standard base High temperature heat detector with LED driver base High temperature heat detector with base sounder High temperature heat detector with standard base High temperature heat detector with LED driver base High temperature heat detector with base sounder Optical Smoke detector with standard base Optical Smoke detector with standard base Optical Smoke detector with LED driver base Optical Smoke detector with LED driver base Optical Smoke detector with base sounder Optical Smoke detector with base sounder B.8 Device Bases Model Name Description XP95/DISCOVERY Mounting BASE XP95/DISCOVERY Mounting BASE XP95 I.S. Mounting Base Intrinsic Security Mounting Base XP95/DISCOVERY Isolating Base Isolating Base for XP95 detectors XP95/DISCOVERY Low power relay base Mounting Base with relay XP95/DISCOVERY E-Z fit base Large Mounting Base (150mm) Ancillary Base Sounder Base with Sounder B.9 Accessories Model Name Description XP95 Isolator XP95 Isolator for Loops XPlorer Isolator XPlorer Isolator for Loops XP95 protocol translator Protocol translator for intrinsically secure lines B.10 Callpoints Model Name Description XP95 Manual Call Point - Surface mounting XP95 Manual Call Point for loops - Surface mounting XP95 Manual Call Point - Flush mounting XP95 Manual Call Point for loops - Flush mounting 56 Apollo devices supported by the control panel

57 XP95 I.S. Manual Call Point Intrinsic Security Manual call point Discovery Manual Call Point - Surface mounting Discovery Manual Call Point - Surface mounting Discovery Manual Call Point - Flush mounting Discovery Manual Call Point - Flush mounting Xplorer manual call point Xplorer manual call point B.11 Sounder + Flasher Model Name Description Loop Powered Sounder Loop Powered Sounder Weatherproof loop powered sounder Weatherproof loop powered sounder Intelligent Base Sounder Intelligent Base Sounder Loop Powered beacon Loop Powered beacon Loop Powered Sounder + Flasher Loop Powered Sounder + Flasher B.12 Modules Model Name Description XP95 Switch Monitor Plus Module with 1Input with delay and reset output for waterflow detectors (waterflow alarm) XP95 Switch Monitor Single Input Module XP95 Zone Monitor Conventional Detector Interface Module XP95 Input/Output Module Module with 1 Relay Output + 1 Supervised Input + 1 Non-Supervised Input XP95 Output Module Module with 1 Relay Output XP95 Sounder Control Unit Module with 1 Output for externally-powered sounder control XP95 Mains Switch Input Output Module with 1 Supervised Input + 1 Relay x 220V XP95 Mini Switch monitor (interrupt) Mini input module (interrupt) XP95 mini switch monitor Mini Input module XPlorer Output Unit XPlorer Output Unit (Non-supervised) XPlorer Switch Monitor Supervised input module B.13 DIN RAIL Modules Model Name Description XP95 DIN RAIL Input Output Unit DIN RAIL Module with 1Input + 1 Output XP95 DIN Rail Output Unit DIN Rail Module with 1 Output Apollo devices supported by the control panel 57

58 XP95 DIN RAIL Switch Monitor Plus DIN RAIL Module with 1 Delayed Input and Reset Output for waterflow detectors (waterflow alarm) XP95 DIN RAIL Switch Monitor DIN RAIL Module with 1 Input XP95 DIN RAIL Zone Monitor (with Isolator) DIN RAIL Interface Module for Conventional Zones (with isolator) XP95 DIN RAIL Sounder control Unit DIN RAIL Module with 1 sounder control output externally-powered XP95 DIN RAIL Dual Isolator DIN RAIL Dual Isolator B.14 Modules with Isolators Model Name Description XP95 Switch Monitor Plus with Isolator DIN RAIL Module with 1 Delayed Input and Reset Output for waterflow detectors (waterflow alarm) XP95 Switch Monitor with Isolator Single Input Module with Isolator XP95 Zone Monitor with Isolator Interface Module for Conventional Zones with Isolator XP95 Input/Output module with Isolator Module with 1relay output + 1 Supervised Input + 1 Nonsupervised Input (optoisolated) XP95 Output unit with isolator Module with 2 relay outputs with isolator XP95 Sounder control unit with isolator Module with 1output for self-powered siren (optoisolated) B.15 Loop limitations Use suitably sectioned shielded twisted cable for the loop wiring. Connect the shield to earth using terminal 3 or 6, connect it to one end of the loop only. In order to allow the loop to function properly, you must section the device connection cable in such way that any voltage drop along does not exceed 8 V. The following table shows the minimum wire sections for the Loop wiring with regard the distance between the Loop-O terminals and the most distant device: up to 500 m min. 1 mm 2 up to 1000 m min. 1.5 mm 2 up to 1500 m min. 2 mm 2 up to 2000 m min 2.5 mm 2 B.16 Configuring APOLLO devices Every APOLLO device requires an address to identify it on the loop. Apollo devices must be addressed manually, as follows. 58 Apollo devices supported by the control panel

59 B.16.1 Addressing APOLLO detectors You can address APOLLO detectors using the incorporated Xpert cards (see following figure). Figure 50 - Detector/Components side of an APOLLO detector Work carefully through the following steps: 1. Remove the detector from its base (twist off). 2. Using a flat-bladed screwdriver or similar tool, push the locking tab and slide the Xpert card out of its holder. 3. Using a flat-bladed screwdriver or similar tool, remove the pips in such way as to assign an address the Xpert card (refer to the Address Table in the device instructions). Note: Hundred twenty six addresses are available. 4. Using a felt-tip pen or printing device, write/print the respective address on the break-off tags. Note: This labeling method will provide visual identification of the system detectors during the system installation phase. When you think you have the system detectors properly wired and addressed, you can either break off the tags or leave them for future reference. 5. Replace the card. 6. Fit the detector to its base. Apollo devices supported by the control panel 59

60 B.16.2 Addressing APOLLO modules You can address all modules in the APOLLO range (Input,Output, In/Out, Manual Callpoint/Sounder/ Flasher/Emergency Light, etc.) using the incorporated DIP switches (see following figure). Figure 51 - DIP switches Address Table 1. Using the On/Off position of the incorporated DIP switch (refer to the Address Table in the device instructions), set the module address (from 1 to 126). 2. Attach the module to the motherboard. 60 Apollo devices supported by the control panel