d2066 quasar manual v001 050728 - dyconsecurity.eu quasar manual v1 050728.pdf · operation manual...

Installation &Operation Manual

for D2066Quasar Receiver

For software version v0024

Dycon LtdTel: 01443 471060Fax: 01443 479374

INDEXDescription 2

Part Numbers 3

What to Do:Site Survey 6

Installation 7 - 8

System Testing 8

Help Desk & Web Site 9

The Details:Operational features 10 - 11

Channel Inputs 13

Analogue PSTN Modem(s) 14 - 17

Digital ISDN Terminal Adapter(s) 18 - 22

GSM Radio Modem(s) 23 - 25

GSM SIM Cards 26

VDN Radio-PAD(s) 27 - 29

Power Requirements & Battery 30 - 32

Radio aerials 33

Printers 34 - 35

Outputs (serial, printer, DC, relay) 36 - 40

Remote Receiver Display 41

Serial Numbers and Software version Number 41

Factory Defaults 41

Programming & Engineering Access Security 42 - 59

Testing Quasar using a GSM Dualcom 60

The Quasar Fitting Kit 61

D2065 Power Supply 62

Software Update / Replacement 63

PCB Update / Replacement 63 - 64

Appendix 1 (LED & Fault Indications ) 65 - 66

Appendix 2 (Text Entry Procedure) 67

Appendix 3 (Output Protocol Descriptions) 68 - 83

Appendix 4 (Data Format - Input Descriptions) 84 - 87

Appendix 5 (Data Format and Output Protocol Associations) 88

Appendix 6 (Setup Parameters Form) 89 - 90

Appendix 7 (Using different Modems) 91

Appendix 8 (Specification & Approvals) 92

Appendix 9 (Glossary of Terms) 93 - 94

1 Part No.: AH 206601-007 30/9/2004

Fig 1

Installation & Operation Manualfor D2066 Quasar Receiver

For software version v0024Description

The D2066 Quasar Receiver is a 19 inch rack unit that will receive alarm and monitoring transmissions fromsecurity and other systems using digital transmission formats.

Up to four network connections are available on Quasar allowing up to 4 simultaneous received calls. Trans-missions may be received from the analogue PSTN (Public Switched Telephone Network), the digital ISDN(Integrated System Digital Network), GSM (Global System for Mobile Communications) networks and theVodafone VDN (Vodafone Data Network) X25 network. Any mix of these units may be used on the 4 inputs,one per input.

Outputs are available for printers and for connection to other logging systems, e.g. an Alarm ManagementSystem. Received transmissions will be available on these outputs and may also be seen on the receiver’sLCD display. Relay outputs are also available for sounders and other indicators.

An internal log of all calls will be maintained even in the event of power failure or output cable disruption. All logentries are time and date stamped, and printed reports are serial numbered.

The unit includes self test routines that constantly monitor performance, power and the integrity of the tel-ephone lines that are connected. Monitoring information may be displayed and printed. In addition, thesereports are available in the same format as a received alarm transmission and may be output to an AlarmManagement System.

The unit will operate from any suitable source of DC voltage (12 to 15 volts). For professional monitoringapplications it is recommended that the matching D2065 Power Supply is used. This is a 19 inch rack mountedUPS that includes power and battery condition monitoring.

This Manual includes descriptions of features to be found in software version v2066 0023 issued 1/4/2003 andv2066 0024 issued 7/9/04.

Note: This manual may refer to features and operation that are not available in your Quasar receiver software.If some or all of these features and/or operation are required, contact Dycon for software upgrade availability.

The Quasar Receiver - Front View

2

Part Numbers

D2066 Quasar Receiver

D2065 Power Supply (UPS) 19 inch rack mounted

D2068 Analog PSTN Modem Kit

D2067 Digital ISDN Terminal Adaptor Kit

D2016 GSM Radio Modem Kit

CS1016 VDN Radio-PAD Kit

CS2057 GSM aerial with 5m lead

CS1057 VDN aerial with 8m lead

D0640 40 column serial Printer Kit

D0641 Spare paper rolls (2) and printer ribbon (1) for D0640

D2064 Remote Receiver Display Kit

D3651-00 Demonstration / temporary plug-top PSU, UK

D3651-01 Demonstration / temporary plug-top PSU, Europe

D0300 Heavy Duty Lightning/Surge Suppressor for PSTN

D0402 Dycon Products CD containing manuals for all products

3

Fig 2

Fig 3

Display LED Indicators

Keypad

The Quasar ReceiverRear View

The Quasar ReceiverFront View

Data and Printeroutputs

Network Inputs

DC power inputs

Relay outputs Chassis Earth Bolt

4

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6

Site Survey

Dycon strongly recommend that a site survey is conducted prior to installation of a Quasar receiverto confirm that adequate communication and power facilities exist at the intended installation location.

1. Ensure that space is available within the 19 inch rack and that 4 suitable mounting screws and nuts areavailable. These are normally supplied as part of the 19 inch rack fitting kit.

2. When connecting to wired networks, check that the required network connections are available. WhereAnalog PSTN and/or digital ISDN network connection is required, these services should have a NetworkTermination close (less than 3m) to the Quasar receiver’s location. RJ45 and RJ10 connectors are pro-vided on the Quasar rear panel. Ensure that the correct connectors are available.

3. When connecting to a GSM radio network check that the required network aerial(s) are available, e.g.aerials for GSM 900 or GSM 1800 or both. Ensure that the correct connectors are available.

Where connection to a GSM Radio network is required, ensure that there is sufficient radio signalstrength at the intended location of the aerial(s).

Determine the signal strength available. For this you can use a mobile telephone or call a Help Desk andask for a GSM signal strength prediction. See page 9. If there is no GSM radio coverage at the proposedsite, then the Quasar will not be able to receive signals directly from a GSM network base station.

A GSM aerial is available with a 5m cable. SMA connectors are provided on the Quasar rear panel. Due tohigh radio losses in coax at GSM frequencies, a GSM cable extention is not recommended. Call a HelpDesk for further advice.

4. When connecting to the VDN radio network check that the required network aerial(s) are available. Ensurethat the correct connectors are available.

Where connection to the VDN network in UK is required, ensure that there is sufficient radio signalstrength at the intended location of the aerial(s).

Determine the signal strength available. For this you can use the CSL CS1066 Radio Test Set or call a HelpDesk and ask for a VDN signal strength prediction. See page 9. This will tell you if there is VDN radiocoverage at the proposed site. If there is no VDN radio coverage at the proposed site, then the Quasar willnot be able to receive signals directly from a VDN network base station.

A VDN aerial is available with an 8m cable. Cable extention up to 20m may be utilised. TNC connectors areprovided on the Quasar rear panel.

5. Quasar requires a 12-15 volt DC supply at 2 amps maximum capability. See pages 30. This may besupplied by a DC supply system at the site or by a battery backed-up power supply (UPS) that derives itspower from the mains supply. The D2065 matching rack-mounted power supply is recommended. See page62. Ensure that the correct connectors are available.

For temporary and demonstration purposes the D3651 plug-top power supply is recommended.

6. Ensure that suitable cables and connectors are available for the connection of printers and data outputs toother equipment, e.g. an AMS.

7. Ensure that suitable cables and connectors are available for connection of warning equipment, e.g. lightsand sounders.

8. Refer to the Part Number list (page 3) and order as required: Quasar Receiver, PSTN Modem, ISDNTerminal Adapter, GSM Padio Modem, VDN Radio-PAD, Printer, Power Supply and aerials.

Installation

1. Conduct a site Survey. See Page 6.

2. Unpack the receiver and remove the internal bag of cables and fittings. See page 63.Ensure that the D3040Memory card is fitted. Check that all cables and fittings are present. See Page 61.

3. Fit the internal battery and its lead. Do not connect the battery lead to the Quasar at this stage. Seepages 31 and 32.

4. Set-up and fit the Modem(s) / Terminal adaptor(s) / Radio Module(s) as required into the Quasar case.See pages 14 to 29.

5. Fit a remote Receiver Display if required. See page 41.

Fig 6

6. Install the Quasar into a 19 inch rack.

7. Connect an earth connection on the rear panel chassis bolt. See Fig 7.

8. Install the power supply into a 19 inch rack and connect to a source of mains power. Do not connectpower to the Quasar at this stage.

9. Connect radio aerials and network (PSTN & ISDN) cables to the Quasar as required. Ensure that the radionetwork(s) provide a suitable signal at the aerial location. See pages 33.

10.Connect a printer if required. See pages 34 to 40.

11.Connect an output to an Alarm Management System (AMS) if required. See page 39 and 40.

12.Connect the output relays to sounders if required. See page 40.

13.Connect the Quasar internal battery. See page 31 and 32.

14.Connect the cable from the power supply to the Quasar. When power is applied, ensure POWER led is onsolid and that the display shows the start-up screen. See Fig 2.

15.Program the Quasar with its operational settings. See pages 42 to 59.

16. Use a suitable transmission device, e.g. Dualcom, Oasis, PortAlarm. Send a transmission to the Quasarto confirm that reception on Channel 1 operates as required. See page 60.

Ensure that the printer and AMS output operate as required. Correct any connections and programmingas required.

17.Repeat step 16 to test each of the 4 channels.

Front Panel open

Display Board

Ribbon lead toProcessor Board

7

Installation (continued)

Fig 8

18.Using the Setup Parameters Form at Appendix 4, record all setup parameters:The serial number of the Quasar. See page 41.The Quasar software version number. See page 41.The Type of each Modem / Terminal adaptor / Radio Module usedThe telephone numbers of any PSTN or ISDN line used.The serial number and data telephone number of any GSM SIM card used.Radio signal strengths.

Keep a copy of the Setup Parameters Form with your documentation that relates to this installation. It isrecommended that this Manual with the completed Setup Parameters Form is kept with the Qua-sar.

19.Allow a minimum of 1 hour for the system and printer batteries to charge before using the Quasar.

20.The Quasar is now ready for use.

Rear Panel open

Processor Board

Fig 7Printer &serial outputs

Voltage inputs &relay outputs

Telecomms &radio inputs

Unscrew to open

8

Part Number &Serial Number

Chassis Earth Bolt

Help Desk

If you have installed the Quasar in accordance with these instructions, checked all the above points but arestill experiencing problems you can contact your Quasar supplier, your Telecom Service Provider or yourVDN Service Provider.

When contacting a Help Desk it is essential that the information on the Setup Parameters Form atAppendix 4 is available.

In UK, VDN network questions may be addressed to:The CSL Technical Support Desk:Tel: 01895 474 444Email: [email protected]

In UK, Quasar installation, programming, operation or other questions may be addressed to:The Dycon Technical Support Desk:Tel: 01443 471064Email: [email protected]

The Dycon web site: www.dyconsecurity.com contains the latest copies of all manuals for all Dycon products.Please ensure that you are working from the latest version. You can also download associated information andsoftware samplers. Sales, shipping and contact information is here too.

9

Operational Features

ChannelsQuasar can receive data transmissions from up to four network connections.These are connected to 4 inputchannels (9way D socket, serial data as a PC ‘COM’ port) by the relevant Network Terminating Equipment,e.g. a modem for the PSTN. This equipment may be housed inside the Quasar case. See Appendix 5.

Network TypesNetwork Termination Equipment is available from Dycon for 4 different networks. These are a modem for theanalogue PSTN, a Terminal Adaptor for the digital ISDN, a GSM Radio module for a 900 Mhz or 1800 MHzGSM network and a VDN Radio-PAD for the Vodafone VDN X25 network in UK. Any mix of these networks maybe used on the 4 Quasar input channels. These equipments may be housed inside the Quasar and can receivetheir power from the Quasar. See Appendix 5.

The user may provide their own network termination equipment for these or other networks. Basic configura-tion information is given in this manual for that other equipment. Where this equipment is too large to houseinside the Quasar case or requires different power supplies, it may be mounted outside the Quasar andconnected by serial cables.

ClockQuasar includes a time clock and calendar. This is available for time and date stamping on all log entries andprinted reports. This clock will maintain the time and date even in the event of a total power failure to theQuasar and/or disconnection of the Quasar internal battery.

Internal LogThe Quasar internal NVM will contain the 2000 most recent transmissions that have been received, for up to10 years. Each entry will be time and date stamped. Each entry will include a four digit sequential number toindicate any tampering. Each entry will show if it is to be printed or has been passed to a printer. Each entrywill show if it is to be passed to an AMS or has been passed to an AMS. The log may be viewed on the displayor printed.

Log and Printer TamperingAll log entries and printed reports include a four digit sequential number to indicate any tampering that mayoccur to the printed output.

Resiliance of OutputsDisruption of the output cables to the printer or the AMS will not cause the loss of received alarm information.This information will be stored in the Quasar Internal Log. When those outputs are restored, the information willbe printed and/or passed to the AMS as required by the operational presets.

Alarm ProtocolsThe Quasar is supplied with two alarm transmission protocols that may be received from any data networklisted above. These protocols are Dualcom96 and High Speed Contact-ID. To meet customer’s operationalrequirements Quasar has been designed to include other alarm transmission protocols. Contact Dycon fortransmission protocol options.

Output protocolsThe Quasar is supplied with several output protocols for onward transmission of alarms to other systems, e.g.an Alarms Management System. These protocols are Radionics 6500, Radionics 6500-Extended, Radionics-IE, Ademco High Speed, Ademco $+1, Ademco 4+2 and Contact-ID. To meet customer’s operational require-ments Quasar has been designed to include other output protocols. Contact Dycon for output protocol options.See Appendix 5.

The output port can also carry regular integrity transmissions for AMS monitoring of the Quasar.

PrintersA serial or parallel printer may be connected. All alarm transmissions may be printed, or Quasar fault condi-tions only, or printing may be deferred in favour of the serial output to an AMS.

10

Operational Features (continued)

Battery OperationQuasar includes a 7 amp/hour battery. This will enable full operation for 4 or more hours in the event of failureof all power supplies to the Quasar. The various network termination equipments, e.g. modems that are housedinside the Quasar and output devices, e.g. a printer, may be powered from the Quasar and so remain fullyoperational from the same battery.

With the Quasar operating from an external DC supply, it is possible to disconnect and replace this batterywithout interrupting operation.

MonitoringThe unit includes self test routines that constantly monitor performance and power. Any analogue PSTN,digital ISDN lines or radio networks, GSM or VDN) that are connected to the Quasar are also tested regularlyif no transmissions are received. Failure will be corrected by cycling power to that unit to perform a reset.

All monitoring and fault warnings may be displayed and printed. To allow this monitoring information to bepresented to an operator at an AMS, these reports are available in the same format as a received alarmtransmission and may be output to an AMS in the same manner. This requires that the Quasar is programmedwith an Account Number and the AMS is preset with this Account and the monitoring / channel association.

Power SupplyWhen the Quasar is used with its matching D2065 Power Supply the monitoring features within that powersupply are output to the Quasar. These may be displayed, printed and output to the AMS as described above.

Output RelaysFour output relays are available for connection to lights or sounders to announce incomming alarm calls and/or Quasar fault conditions.

Software UpgradeThe software that enables the Quasar to operate, is contained on a plug-in memory card. This may be removedand replaced to enable other features to be made available. In most cases, this action will not delete or changethe contents of the Internal Log. Where features or operation contained in the new memory card will affect theInternal Log, a note to this effect will be supplied with the new memory card.

Language OptionsWhere a numeric alarm transmission protocol is used, an internal look-up table allows plain text to be addedto the printer and display outputs. This can assist operators who are not using an AMS. These text outputsmay be translated using the front panel keypad.

MaintenanceAll power signal and data connections are made via removable connectors on the case of the Quasar allowingrapid removal and replacement of a whole receiver without access to internal connections.

All internal power signal and data connections are made via removable connectors allowing rapid removal andreplacement of any internal PCB or other item.

Access to any internal item may be achieved via the hinge-down front and rear panels without having toremove the Quasar from the rack.

WarrantyThe Quasar receiver and all of its associated modem and printer kits are covered by a 2 year ‘no quibble’guarantee. Additional warranty may be provided as part of a service/maintenance agreement.

11

Fig 12

DC Power Jumper LinkDC 6 volt position

DC 9 volt position

DC 12 volt position

Channel 1 inputChannel 2 input

Channel 3 inputChannel 4 input

Channel 1 DC power

Channel 2 DC power

Channel 3 DC powerChannel 4 DC power_+

Fig 11

Rear Panel - PTT Board

Channel 1 connectorsChannel 2 connectors

Channel 3 connectorsChannel 4 connectors

Cut-out for external Modemserial lead(s)

12

Radio GSM (SMA)

Radio VDN (TNC)

Analogue PSTN (RJ10)

ISDN (RJ45)

Channel Inputs

Each of the four channel inputs may be connected to a communication network via Network TerminatingEquipment. That equipment must have a serial output of the type that can be connected to a PC serial ’COM’port input.

The Quasar Serial Inputs are configured as a PC DTE serial ‘COM’ ports. See Fig 12. The connection to the9way D connector pins is shown.

1 2 3 4 5o o o o o

o o o o6 7 8 9

The data speed of each input is selected via the Programming Options. This may be 300, 600, 1200, 2400,4800 or 9600 baud.

The communication requires 8 data bits, No parity and 1 stop bit (8N1).

A jumper link and 2pin connector provides a DC supply for each channel that may be individually adjusted to6, 9 or 12 volts. Note: When set to 12 volts, the output voltage is the battery voltage and may be up to 14 volts.Up to 500mA average may be drawn from each of these outputs. See Fig 12.

Fig 13

GSM Radio Moduleon inner shelf

PSTN Modemon inner base

Pin Signal1 n/c2 RD Data to Quasar3 TD Data from Quasar4 DTR From Quasar5 0v6 n/c7 RTS From Quasar8 CTS To Quasar9 n/c

13

Analogue PSTN Modems

Dycon provides an Analogue PSTN Modem Kit suitable for connection to an analogue PSTN termination. Thiskit includes all necessary cables and connectors.

Modems from other sources may be used. All modems must operate with a Hayes command set and beapproved for connection to the PSTN in the country concerned. The data connection must conform to aconventional serial standard as used on a PC serial ‘COM’ port. Operation at data speeds of 9600, 2400,1200 and 300 baud will be required. Auto-answer must be disabled and speed negotiation at data rates above9600 baud may be disabled. ‘Extended result codes’ (ie, enable the "NO DIALTONE" message) are required.This is the default for most modems but if not, refer to the modem manual and add the Hayes command toenable ‘extended result codes’.

Because of the vast range of types, connections, size, power and programming options for modems from othersources, Dycon can not advise on their suitability, configuration or connections. The Quasar can supply themodem with 6, 9 or 12 volts DC supply at 250mA. Modems requiring an AC supply can not receive power fromthe Quasar. See Appendix 5.

To install a modem inside the Quasar case:

1. Unpack the Analogue PSTN Modem Kit and check parts for damage. Ensure that the parts and quantitiesare present. Refer to the leaflet contained in the kit. Leave this leaflet inside the receiver. See Fig 15.

2. Prepare the Modem connections.Connect the 0.6m PSTN network lead with RJ10 & RJ11connectors to the modem’s network socket.Connect the serial data lead to the modem’s data socket. If an adaptor is required it will be supplied in the

Analogue PSTN Modem Kit.Connect the power lead to the modem’s power connector. See fig 14.

Fig 14

3. Loosen the three retaining screws on the top edge of the rear panel of the Quasar and allow it to open onits lower-edge hinge. See Figs 7 & 8.

4. Slide the modem into the case and locate on the base of the case or on the shelf. See Fig 13.

5. Use one of the serial data ribbon leads supplied in the Quasar Fitting Kit. See page 50. Connect this to aspare channel input data socket on the rear panel Processor Board. Note its channel number (1, 2, 3 or 4).See fig 12.

6. Connect the modem serial data lead to this ribbon lead. Do not connect the modem serial lead directlyto the channel data socket on the rear panel Processor Board because it will foul the case when the rearpanel is closed and put undue strain on the Processor Board connector.

7. Connect the modem PSTN network lead to the relevant PSTN (RJ10) socket on the rear panel PTT Board.Ensure this has the same channel number (1, 2, 3 or 4) as step 5 above. See fig 11.

PSTN Modem

Power, data &PSTN lead

14

Analogue PSTN Modems (continued)

8. Each Modem Kit includes a leaflet. This leaflet states the voltage that the modem requires and its currentconsumption. Ensure that this leaflet is left inside the Quasar with the modem.

On the rear panel Processor Board, adjust the voltage jumper link for that channel to suit the modem require-ment. See Fig 12. This jumper link may be adjusted for 6 volts, 9 volts or 12 volts DC.

Warning: Operating the modem on a higher than recommended voltage may cause permanentdamage to the modem and/or Quasar. Lower than recommended voltages may inhibit operation.

9. Connect the modem power lead to to the relevant DC power socket on the rear panel Processor Board.Ensure this has the same channel number (1, 2, 3 or 4) as step 7 above. See fig 12. Note: Ensure that theswitch on the modem side is ON.

10.Close the Quasar case ensuring that no leads become trapped or internal items cause damage to thecomponents on the rear panel.

11.Connect the 3m PSTN network lead to the relevant PSTN (RJ10) socket on the outside of the rear panel.Ensure this has the same channel number (1, 2, 3 or 4) as step 5 above. See fig 11. Connect to the PSTNtelephone line termination.

12.Program the Quasar presets for this channel. Select type PSTN Modem. See pages 42 to 59.Type: PSTN ModemData: Select transmission protocol as requiredBaud: 9600Test: 10 minsSetup String: AT&F0E0S0=0&M0&K0&E0Data bits: 8Parity: None

During installation it is convienent to have the PSTN Modem sounder on to indicate received call progress.When installation is complete this sounder may be turned off by adding M0 to the Setup String, e.g.AT&F0E0S0=0&M0&K0&E0M0.

Modems may be mounted outside the Quasar. Where this is required, on the rear panel carefully remove themetal section next to the PTT Board Channel 1 Radio connector. See Fig 11. Fit the alligator grommetsupplied in the Quasar Fitting Kit to the edge of the hole. Feed the serial data lead through this hole whenclosing the rear panel.

Each Modem Kit includes a leaflet. This leaflet states the voltage that the modem requires and its currentconsumption. Ensure that this leaflet is left inside the Quasar with the modem.

Modem LED IndicationsRefer to the Modem manual supplied in the Modem Kit.

15

Connecting other telecomms equipment IN PARALLEL to the analogue telephone line used by theQuasar can stop the unit receiving alarm calls. Parallel connection is NOT recommended for theQuasar.

The recommended PSTN line for Quasar:A PSTN line is supplied as ex-directory,AND the PSTN line goes to a Quasar PSTN Modem input ONLY.(No other telephone, fax, modem etc. is connected to the same line)

Analogue PSTN Telephone Line

The analogue PSTN is a communication network where the line from the exchange equipment and the servicesupplied to the subscriber is ‘analogue’, i.e. not ‘digital’. See 16.

A telephone line is always terminated at the users premises by an NTP (Network Termination Point) which isprovided by the Telecoms Service Provider. This is a socket or connection where the users equipment can beconnected. Some NTPs provide a socket and terminals for connection. In many cases, the NTP operatesusing power supplied from the exchange equipment via the telephone line.

An analogue PSTN telephone line may be provided by BT or any of the other 44 telecoms service providers inUK. The Control Panel can be connected here. See Fig 16.

Analogue PSTN Telephone LineFig 16

Connecting other telecomms equipment IN PARALLEL tothe PSTN telephone line used by the Quasar can stop theunit receiving alarm calls. See Fig 17.

Parallel connection is NOT recommended for the Quasar

Fig 17

16

ADSL (Asynchronous Digital Subscriber Line) or ‘Broadband’ADSL lines are sometimes called ‘Broadband’. Many ADSL lines are Hybrid lines, i.e. they carry ADSL digitaldata and analogue telephone signals simultaneously. Some ADSL line NTPs provide an analogue socket; theQuasar can be connected here. See Fig 18.

At the ADSL line NTP, a ‘splitter’ or filter is used to separate the low frequency analogue telephone signalsfrom the high frequency ADSL data signals. The ADSL filters may be built into the NTP or they may be plug-in‘inline’ types. See Fig 19.

The NTPs that include ADSL fliters are normally provided with a new installation. The plug-in ‘inline’ filters arenormally provided on an analogue PSTN line that has been converted to an ADSL hybrid line. Contact yourADSL Service Provider for more information on ADSL lines or filters.

ADSL Hybrid Line (Plug-in Filters)Fig 19

ADSL Hybrid Line (Filters in NTP)Fig 18

17

Digital ISDN Terminal Adapters

Dycon provides a Digital ISDN Terminal Adapter Kit suitable for connection to a digital ISDN termination. Thiskit includes all necessary cables and connectors.

Note: Terminal Adapters from other sources may be used. All Terminal Adapters must operate with a Hayescommand set and be approved for connection to the ISDN in the country concerned. The data connectionmust conform to a conventional serial standard as used on a PC serial ‘COM’ port. Operation of a V110 bearerservice will be required.


To install a Terminal Adapter inside the Quasar case:

1. Unpack the Digital ISDN Terminal Adapter Kit and check parts for damage. Ensure that the parts andquantities are present. Refer to the leaflet contained in the kit. Leave this leaflet inside the receiver. SeeFig 21.

2. The Terminal Adapter is preset with factory defaults. These will answer any incoming ringing on the ISDNline. Where it is required that the Terminal Adapter will only respond to one of the telephone numbers that maybe applied to an ISDN line, it will be necessary to programme the Terminal Adapter using a PC prior to itsinstallation in the Quasar. See page 20.

Fig 20

3. Prepare the Terminal Adapter connections. Connect the 0.6m lead with RJ45 connectors to the TerminalAdaptor’s network socket. Connect the serial data lead to the Terminal Adaptor’s data socket. Connect thepower lead to the modem’s power connector. See fig 20.


5. Slide the Terminal Adapter into the case and locate on the base of the case or on the shelf. See Fig 13.

6. Use one of the serial data ribbon leads supplied in the Quasar Fitting Kit. See page 50. Connect this to aspare channel input data socket on the rear panel Processor Board. Note its channel number (1, 2, 3 or 4). Seefig 12.

7. Connect the Terminal Adapter serial data lead to this ribbon lead. Do not connect the Terminal Adapterserial lead directly to the channel data socket on the rear panel Processor Board because it will foul thecase when the rear panel is closed and put undue strain on the Processor Board.

8. Connect the Terminal Adapter network lead to the relevant ISDN (RJ45) socket on the rear panel PTT Board.Ensure this has the same channel number (1, 2, 3 or 4) as step 6 above. See fig 11.

Power, data &ISDN lead

ISDNTerminal Adaprer

18

Reset Push-button

Digital ISDN Terminal Adapters (continued)

9. Each Terminal Adapter Kit includes a leaflet. This leaflet states the voltage that the Terminal Adapterrequires and its current consumption. Ensure that this leaflet is left inside the Quasar with the modem.

On the rear panel Processor Board, adjust the voltage jumper link for that channel to suit the Terminal Adapterrequirement. See Fig 12. This jumper link may be adjusted for 6 volts, 9 volts or 12 volts DC.

Warning: Operating the Terminal Adapter on a higher than recommended voltage may cause per-manent damage to the modem and/or Quasar. Lower than recommended voltages may inhibit op-eration.

10.Connect the Terminal Adapter power lead to to the relevant DC power socket on the rear panel ProcessorBoard. Ensure this has the same channel number (1, 2, 3 or 4) as step 6 above. See fig 12.

11.Ensure that the Terminal Adapter is set with the factory default programming. Ignore this step if specialprogramming was completed at step 2 above. Using the switch on the rear of the Terminal Adapter case,switch the unit off. Press and hold the square push-button on the top of the Terminal Adapter case. With thisbutton pushed, switch the Terminal Adapter on. Release the push button. See fig 16.

12.Close the Quasar case ensuring that no leads become trapped or internal items cause damage to thecomponents on the front or rear panel.

13.Connect the 3m ISDN network lead to the relevant ISDN (RJ45) socket on the outside of the rear panel.Ensure this has the same channel number (1, 2, 3 or 4) as step 6 above. See fig 11. Connect to the ISDNtelephone line termination.

14.Program the Quasar presets for this channel. See page 42 to 59.Type: ISDNData: Select transmission protocol as requiredBaud: 9600Test: 10 minsSetup String: ATB15Data Bits: 8Parity: None

19

Digital ISDN Terminal Adapters (continued)

A Terminal Adapter may be mounted outside the Quasar. where this is required, on the rear panel carefullyremove the metal section next to the PTT Board Channel 1 Radio connector. See Fig 11. Fit the alligatorgrommet supplied in the Quasar Fitting Kit to the edge of the hole. Feed the serial data lead through this holewhen closing the rear panel.

An example of a Terminal Adapter Kit leaflet is shown at Fig 21. Ensure that this leaflet is left inside the Quasarwith the Terminal Adapter.

Programming the Terminal AdapterWhere it is required that the Terminal Adapter will only respond to one of the telephone numbers that may beapplied to an ISDN line, it will be necessary to programme the Terminal Adapter using a PC prior to itsinstallation in the Quasar.

Connect the Terminal Adapter to a PC Serial ‘COM’ port using the serial data lead provided. Connect theTerminal Adapter power lead. Using a suitable program, e.g. Hyperlink or Dynacomm, set the relevant TerminalAdapter parameters for use on the ISDN line as required. Refer to the Terminal Adapter Manual and leaflet(book or on CD) provided in the Terminal Adapter Kit.

Note: This step is best undertaken by an experienced technician who understands ISDN digital com-munication equipment. Terminal Adapter programming instructions can not be provided via thephone from a Help Desk.

LED Indications

Link LED Lights when the ISDN connection is made to the RJ45 connector on the Terminal AdapterThis should be lit to indicate that calls can be received. Note: On some PABX equipment,this may only be lit when a call is being established or is in progress.

B1 LED Lit to indicate that a call is in progress on the B1 channel

B2 LED Lit to indicate that a call is in progress on the B2 channel

RTS LED Lit to indicate that communications between the Terminal Adapter and Quasar is OK

DTS LED Lit to indicate that communications between the Terminal Adapter and Quasar is OK

CTR LED Lit to indicate that communications between the Terminal Adapter and Quasar is OK

CTS LED Lit to indicate that communications between the Terminal Adapter and Quasar is OK

20

21

ISDN (Integrated System Digital Network)The digital ISDN is a communication network where the line from the exchange equipment and the servicesupplied to the subscriber is ‘digital’, i.e. not ‘analogue’.

An ISDN line is a digital telephone line that conforms to the international ISDN standard. It can carry severalcalls simultaneously. Two types are generally available.

Type Name Number of simultaneous calls

ISDN 2 Basic Rate Up to 2 simultaneous callsISDN 2e Basic Rate Up to 2 simultaneous callsISDN 30 Primary Rate Up to 30 simultaneous calls

An ISDN line is always terminated at the users premises by an NTP (Network Termination Point) which isprovided by the Telecoms Service Provider. The NTP is a socket or connection where the users equipment canbe connected.

The service supplied to the user from the NTP may vary. The digital connection on the NTP is called the S-Bus.The S-Bus allows many different types of digital communication equipment to be connected, e.g. an ISDNinterface card in a PC.

In many cases, the ISDN NTP operates using power supplied from the exchange equipment via the ISDNtelephone line, however some types of NTP may require a connection to the mains supply at the userspremises. Some ISDN NTPs include a converter to provide analogue sockets (e.g. Home Highway); See below.

ISDN2e (Integrated System Digital Network, 2 channel)A ‘basic rate’ ISDN telephone line can carry the equivalent of two simultaneous calls. In UK, a ‘basic rate’ ISDNline is called ISDN2 or ISDN2e. Some suppliers call an ISDN2 line ‘Home Highway’ or ‘Business Highway’.See below.

An ISDN2 line can be provided as ‘point-to-point’ or ‘point-to-multipoint’. Where there is only one item con-nected to the S-bus then a ‘point-to-point’ service is OK. Where two or more items are connected to the S-busthen a ‘point-to-multipoint’ must be provided. Contact your telecom Service Provider for details of the ISDNservices that they can provide.

The ISDN Terminal Adapter can be connected to an ISDN2 or ISDN2e line.

Home Highway, Business HighwayHome Highway and Business Highway is the marketing name for a ‘basic rate’ ISDN2 line supplied by BT withan NTE9 NTP.

The NTE9 NTP provides two S-Bus sockets, it includes an ISDN-Analogue converter and two analogue tel-ephone sockets. This type of NTP can have an analogue phone, fax, modem etc.connected at either or both ofthe analogue telephone sockets. See Fig 22.

Power for the NTE9 comes from the exchange equipment via the ISDN line and also from the mains supply atthe users premises. In the event of mains failure, the right-hand analogue telephone socket on the NTE9 willcease to operate but all other functions are powered from the exchange equipment.

A maximum of two calls on an NTE9 may be in progress at the same time. Use of one analogue telephonesocket constitutes one call. Use of the S-Bus on either S-Bus socket constitutes one or two calls (64 or 128K byte bandwidth). If two calls are in progress it is impossible to make or receive another call.

ISDN30 (Integrated System Digital Network, 30 channel)A ‘primary rate’ ISDN line can carry the equivalent of up to thirty simultaneous calls. In UK, a ‘primary rate’ISDN line is called ISDN30.

This is a digital telephone line that conforms to the international ISDN standard. It can carry up to 30 simulta-neous telephone calls. This type of digital teltephone line normally connects directly to a PABX telephoneexchange inside one building or company.

Note: Quasar can not be directly connected to an ISDN30 line.

ISDN2 Home & Business HighwayFig 22

22

ISDN (Integrated System Digital Network) (continued)

GSM Radio Modems

Dycon provides a GSM Radio Modem Kit suitable for connection to a GSM radio network on the 900 and 1800MHz bands. This kit includes all necessary cables and connectors.

A GSM SIM Card and aerial will also be required. For use in UK, Dycon can supply a suitable GSM SIMCard. In other countries contact your Quasar supplier or a GSM Network Provider for sources of suitable GSMSIM Cards. See page 26.

Note: GSM Radio Modems from other sources may be used. All GSM Radio Modems must operate with aHayes command set and be approved for connection to a GSM network. The data connection must conform toa conventional serial standard as used on a PC serial ‘COM’ port. Operation at a 9600 baud data rate will berequired.


To install a GSM Radio Modem inside the Quasar case:

1. Unpack the GSM Radio Modem Kit and check parts for damage. Ensure that the parts and quantities arepresent. Refer to the leaflet in the kit. Leave this leaflet inside the Quasar case. See fig 25.

2. Acquire and fit a SIM card in the GSM Radio Modem. Note: The SIM Card must be enabled for Datatransmission and reception. See page 23. Check if a GSM SIM Card has already been fitted to the GSMRadio Modem by your equipment supplier. Push the ‘eject button’ on the GSM Radio Modem with a biro point.Slide open & remove the plastic SIM Card carrier. Fit the GSM SIM Card in the carrier with the gold connec-tions away from the carrier. Slide the carrier back into its slot in the GSM Radio Modem. See Fig 23.

SIM cards have a Serial Number printed on them and a data telephone number allocated to them. It isstrongly recommended that these numbers are recorded on the Quasar Setup Parameters Form atAppendix 6 and in the installation records that will be stored at your office.

Push button toeject SIM Card SIM Card in carrier

3. Prepare the Modem’s connections. Connect the 0.6m aerial lead with SMA coax connectors to the GSMRadio Modem aerial socket. Note: This lead may have a 90 degree connector on one end. Connect the straightconnector to the GSM Radio Modem. Connect the serial data lead to the GSM Radio Modem data socket.Connect the power lead to the GSM Radio Modem power connector. See fig 24.


5. Where a plastic bag is supplied in the GSM Radio Modem Kit, fit the Modem in this bag. Slide the GSMRadio Modem into the case and locate on the base of the case or on the shelf. See Fig 13.

6. Use a serial data ribbon lead supplied in the Quasar Fitting Kit. See page 61. Connect this to a channelinput data socket on the rear panel Processor Board. Note its channel number (1, 2, 3 or 4). See fig 12.

23

Fig 23

Fig 24

GSM Radio Modems (continued)

7. Connect the GSM Radio Modem serial data lead to this ribbon lead. Do not connect the GSM RadioModem serial lead directly to the channel data socket on the rear panel Processor Board because itwill foul the case when the rear panel is closed and put undue strain on the Processor Board connector.

8. Connect the GSM Radio Modem aerial lead to the relevant GSM (SMA) socket on the rear panel PTTBoard. Where this lead may have a 90 degree connector on one end, connect the 90 degree connector to thePTT Board. Ensure this has the same channel number (1, 2, 3 or 4) as step 7 above. See fig 11.

9. Each Modem Kit includes a leaflet. This leaflet states the voltage that the modem requires and its currentconsumption. Ensure that this leaflet is left inside the Quasar with the modem.

On the rear panel Processor Board, adjust the voltage jumper link for that channel to suit the modem require-ment. See Fig 12. This jumper link may be adjusted for 6 volts, 9 volts or 12 volts DC.


Power, data &Aerial lead

GSM RadioModem

10.Connect the GSM Radio Modem power lead to to the relevant DC power socket on the rear panel ProcessorBoard. Ensure this has the same channel number (1, 2, 3 or 4) as step 7 above. See fig 12.

11. Close the Quasar case ensuring that no leads become trapped or internal items cause damage to thecomponents on the front or rear panel.

12.Install the aerial in a suitable location. See pages 30. Connect the aerial lead to the relevant RADIO (SMA)socket on the outside of the rear panel. Ensure this has the same channel number (1, 2, 3 or 4) as step 7above. See fig 11. An adapter lead is provided in the GSM Radio Modem Kit to enable GSM aerials with FMEconnectors to be used.

13.Program the Quasar presets for this channel. See pages 42 to 59.Type: GSMData: Select transmission protocol as requiredTest: 10 minsBaud: 9600Test: 10 minsSetup String: AT&F0Data Bits: 8Parity: None

A GSM Radio Modem may be mounted outside the Quasar. Where this is required, on the rear panelcarefully remove the metal section next to the PTT Board Channel 1 Radio connector. See Fig 11. Fit thealligator grommet supplied in the Quasar Fitting Kit to the edge of the hole. Feed the serial data lead throughthis hole when closing the rear panel.

24

LED Indications

Red LED On Solid within 20 seconds of power-up. = Unit reading SIM Card and registering

Red LED On solid at any other time. = No GSM radio signal and/or no suitable SIM Card fitted.

Red LED Short flash every 2 seconds. = SIM Card OK, and Registered on GSM Network, andwaiting for a call.

Red LED Short flash every 0.5 seconds. = SIM Card OK, and Registered on GSM Network, anda call is in progress.


An example of a GSM Radio Modem Kit leaflet is shown at Fig 25. Ensure that this leaflet is left inside theQuasar with the Radio Module.

D2016 GSM Radio Modem Kit for use with the D2066 Quasar Receiver

This kit includes all parts requires to connect the Quasar receiver to a900 MHz or 1800MHz GSM network apart from a GSM SIM Card andaerial.

A GSM SIM Card will be required for use with a GSM network.An aerial will be required for use with a GSM network.Ensure that the radio network provides a suitable signal at the aeriallocation.

Refer to the Quasar Manual for GSM SIM Card requirements andinstallation instructions.

PICTURE OF KIT CONTENTS

This kit contains:1 GSM Radio Modem1 0.6m aerial lead with two SMA male connectors.1 Serial data lead with one 15way D pins connector and one 9way

D holes connector.1 Power lead with a connector suitable for the GSM Radio Module

and a 2way terminal-strip plug.

When installing this GSM Radio Modem in the Quasar ensure thatthe voltage jumper link on the Quasar rear panel ProcessorBoard is set to 12 volts before connection of the power lead.This unit requires 150mA when active, 20mA average.

Fig 25

25


Sim Card Details

Each GSM Radio Modem used with the Quasar will require a GSM SIM Card. Check if a GSM SIM Card hasalready been fitted to the GSM Radio Modem(s) by your equipment supplier.

For use in UK, Dycon can supply a suitable GSM SIM Card. In other countries contact your Quasar supplier ora GSM Network Provider for sources of suitable GSM SIM Cards.

Ensure that the SIM Card is enabled for ‘Data Mode Transmission & Reception’. The Quasar will notreceive transmissions if enabled for ‘Speech Mode’ only.

Note: Most SIM Cards are supplied for portable telephones and are only enabled for ‘Speech Mode’ and ‘SMSMode’, as such, they will not allow Quasar to receive alarms. These SIM Cards may be enabled for ‘DataMode’ by your GSM Service Provider.

SIM cards have a number printed on them. This is the SIM Card Serial Number. It is strongly recom-mended that this number is recorded on the Quasar Setup Parameters Form at Appendix 4 and inthe installation records that will be stored at your office.

Fig 26

26

Serial NumberConnections

VDN Radio-PADs

Dycon provides a VDN Radio-PAD fitting Kit suitable for connecting a VDN Radio-PAD to the Vodafone VDNX25 radio network in UK. This kit includes all necessary cables and connectors.

Note: A VDN Radio-PAD (type = RP9) must be sourced via Vodafone in UK. Contact Dycon for details.A VDN aerial will be required.

Note: VDN Radio-PADs from other sources should not be used. Dycon can not advise on the suitability,configuration or use of VDN Radio-PADs from other sources. See Appendix 5 for essential power connectionrequirements.

To install a VDN Radio-PAD inside the Quasar case:

1. Unpack the VDN Radio-PAD Kit and check parts for damage. Ensure that the parts and quantities arepresent. Refer to the leaflet contained in the kit. Leave this leaflet inside the receiver. See Fig 32.

VDN Radio-PADs have an ESN number printed on them. This is the Serial Number (sometimes it isbehind a sliding access flap, see Fig 31). It is strongly recommended that this number is recorded onthe Quasar Setup Parameters Form at Appendix 4 and in the installation records that will be stored atyour office.

2. Prepare the VDN Radio-PAD connections. Connect the 0.6m aerial lead with FME coax connectors to theVDN Radio-PAD’s aerial socket. Connect the serial data lead to the VDN Radio-PAD’s data socket. Connectthe power lead to the VDN Radio-PAD’s power connector. See fig 30.

Fig 30

Power, data &Aerial lead

VDN Radio-PAD

3. Loosen the three retaining screws on the top edge of the rear panel of the Quasar and allow it to open onits lower-edge hinge. See Fig 7 & 8.

4. Slide the VDN Radio-PAD into the case and locate on the base of the case or on the shelf. See Fig 13.

5. Use one of the serial data ribbon leads supplied in the Quasar Fitting Kit. See page 50. Connect this to aspare channel input data socket on the rear panel Processor Board. Note its channel number (1, 2, 3 or 4). Seefig 12.

6. Connect the VDN Radio-PAD serial data lead to this ribbon lead. Do not connect the VDN Radio-PADserial lead directly to the channel data socket on the rear panel Processor Board because it will foul thecase when the rear panel is closed and put undue strain on the Processor Board connector.

7. Connect the VDN Radio-PAD aerial lead to the relevant RADIO (TNC) socket on the rear panel PTT Board.Ensure this has the same channel number (1, 2, 3 or 4) as step 5 above. See fig 11.

8. Each VDN Radio-PAD Kit includes a leaflet. This leaflet states the voltage that the VDN Radio-PAD re-quires and its current consumption. Ensure that this leaflet is left inside the Quasar with the modem.

On the rear panel Processor Board, adjust the voltage jumper link for that channel to suit the VDN Radio-PADrequirement. See Fig 12. This jumper link may be adjusted for 6 volts, 9 volts or 12 volts DC.

27

VDN Radio-PADs (continued)


9. Connect the VDN Radio-PAD’s power lead to to the relevant DC power socket on the rear panel ProcessorBoard. Ensure this has the same channel number (1, 2, 3 or 4) as step 5 above. See fig 11.

10.Install the aerial in a suitable location. See pages 30. Connect the aerial lead to the relevant RADIO (TNC)socket on the outside of the rear panel. Ensure this has the same channel number (1, 2, 3 or 4) as step 5above. See fig 11.

11. It will be necessary to register the VDN Radio-PAD when installation is complete and power has beenapplied.

To register a VDN Radio-PAD, push and hold the black Test button on the Radio-PAD for 5 seconds or untilthe yellow ‘Service’ LED on the Radio-PAD starts to flash slowly. After 40 seconds the LED should be on solidindicating that the Radio-PAD has found a suitable radio signal from a base station and is locked onto it.

If the LED continues to flash after this period, then registration has not completed successfully. The problemmust be resolved and registration completed successfully before any VDN radio signals can be received.

12.Close the Quasar case ensuring that no leads become trapped or internal items cause damage to thecomponents on the front or rear panel.

13.Program the Quasar presets for this channel. See pages 42 to 59.;Type: VDNBaud: 4800Data: Select transmission protocol as requiredTest: 10 minsSetup String: <leave blank>Data Bits: 7Parity: Even

A VDN Radio-PAD may be mounted outside the Quasar. Where this is required, on the rear panel carefullyremove the metal section next to the PTT Board Channel 1 Radio connector. See Fig 11. Fit the alligatorgrommet supplied in the Quasar Fitting Kit to the edge of the hole. Feed the serial data lead through this holewhen closing the rear panel.

Note: It is recommended that VDN Radio-PADs when used with the Quasar are J-masked (locked) onto oneparticular base station. Contact Dycon for details.

Fig 31

Slide open toread the ESNNumber

Black TEST buttonPush to Register

Yellow ‘Service’LED

VDN RP9Radio-PAD

28

ESN Number of thisRadio-PAD

LED Indications

Yellow LED Slow flash within = Unit searching for base stations and registering onto the50 seconds of power-up VDN Network.

Yellow LED Slow flash at = Unit can not hear any base stations and is searching for aany other time useable signal. No communications are possible

Yellow LED on Solid = Unit in contact with a base station and awaiting a call.

VDN Radio-PADs (continued)

An example of a VDN Radio-PAD Kit leaflet is shown at Fig 32. Ensure that this leaflet is left inside theQuasar with the Radio-PAD.

D1016 VDN Radio-PAD Kit for use with the D2066 Quasar Receiver

This kit includes all parts requires to connect the Quasar receiver tothe Vodafone X25 data network (VDN) in UK apart from an aerial.

An aerial will be required for use with the VDN network.Ensure that the VDN radio network provides a suitable signal at theaerial location.

Refer to the Quasar Manual for installation instructions.

This kit contains:1 VDN Radio-PAD1 0.6m aerial lead with FME connectors.1 Serial data lead with one 25way D pins connector and one 9way

D holes connector.1 Power lead with a connector suitable for the VDN Radio-PAD

and a 2way terminal-strip plug.

When installing this GSM Radio Module in the Quasar ensure thatthe voltage jumper link on the Quasar rear panel ProcessorBoard is set to 12 volts before connection of the power lead.This unit requires 1.2A when active, 230mA average.

Fig 32

29

Quasar Power Requirements

Quasar requires a supply of 12-15 volts DC and consumes 3.5 watts of power. The unit incorporates aswitched mode voltage stabiliser . This will stabilise the Quasar power requirement, i.e. when the supply is13.8 volts the current requirement will be 230mA. This will rise as the supply voltage falls. When the supply is12.0 volts the current requirement will be 280mA.

When network terminating equipment, e.g. modems, are installed and powered from the Quasar, these unitswill each draw current and increase the total current required by the Quasar. The leaflet supplied with eachmodem kit states the current requirements of that unit. See pages 14 to 29.

When a printer is powered from the Quasar rear panel DC outputs, the current used will add to and increase thetotal current required by the Quasar. The leaflet supplied with the Printer Kit states the current requirements ofthat unit. See pages 34 and 35.

When power is used from the Quasar rear panel DC outputs, the current used will add to and increase the totalcurrent required by the Quasar. See Fig 37.

The Quasar incorporates a 7amp/hour battery. This will allow the Quasar to operate for two hours (or more) withall power supplies disconnected. See next page. Longer periods of operation must be supported by the exter-nal DC supply.

When the Quasar battery is partially or fully discharged the Quasar operating current will increase while thebattery is recharging. 20 hours should be allowed for a fully discharged battery to charge.

The installer must ensure that the Quasar power supply is rated to provide adequate power for thisapparatus and for any other auxiliary apparatus drawing power from the same power supply.

The installer must ensure that the battery capacity of the Quasar power supply is sufficient to provide adequatepower for this apparatus and for any other auxiliary apparatus that draws power from the same power supplywhen the mains supply has failed for the specified battery-only operating period.

Operating time on batteries (hours) = Battery capacity (amp/hours) x 0.9 /Quasar operating current (amps)

The use of the D2065 battery backed-up (UPS) Power Supply is recommended.

The Quasar supply voltage and internal supplies are monitored constantly. See Appendix 1.

Only power supplies conforming to EN60950, EN41003 or International Safety Standards should be used withthis apparatus.

30

Fig 34

Battery

Battery Clamp

Retaining Screw

Quasar Internal Battery

The Quasar incorporates a 7amp/hour battery. This will allow the Quasar to operate for two hours (or more) withall power supplies disconnected.

This battery may be removed and replaced while the Quasar is operating from an external DC supply withoutloss of operation or internal settings.

The Quasar battery voltage and capacity are tested regularly. If these tests fail then a Power Fault will beindicated. See Appendix 1.

Access to the battery connections is via the hinge-down rear panel.

Access to the battery is via the hinge-down front panel.

To remove the battery:


2. Locate the battery wires and disconnect their connector from the Processor Board that is mounted on theinside of the rear panel. Leave the wires connected to the battery. See fig 33.

Fig 33

3. Loosen the three retaining screws on the top edge of the front panel of the Quasar and allow it to open onits lower-edge hinge. See Figs 2 & 6.

4. Locate the battery on the right-hand inside wall of the Quasar. Undo the single screw retaining clamp andslide the battery out of the case via the front. Ensure that the battery wires and connectors are withdrawn withthe battery and not damaged. See fig 34.

Ensure that the battery terminals or lead wires do not touch the metal case.

_+ Battery Connector

Processor Boardon Rear Panel

31

Quasar Internal Battery (continued)

To install or replace the battery:

1. Check the condition of the battery leads and connectors. Replace if damaged or worn. Check that the2way plug-terminal is correctly fitted on the other ends of the lead. Refer to the polarity markings on theProcessor Board. See fig 33.

2. Connect the battery leads to the battery terminals.


4. Loosen the three retaining screws on the top edge of the front panel of the Quasar and allow it to open onits lower-edge hinge. See Figs 2 & 6.

5. Locate the battery enclosure on the right-hand inside wall of the Quasar. Undo the single screw and removethe battery retaining clamp. Slide the battery into the case via the front with the battery terminals upwards andtowards the front of the case. See fig 34.

Ensure that the battery lead does not foul on the metal guides around the battery.

Ensure that the battery terminals or lead wires do not touch the metal case.

6. Feed the battery lead towards the rear of the case through the battery enclosure.

7. Connect the battery lead plug-terminal to its socket on the Processor Board that is mounted on the insideof the rear panel. See fig 33.

8. Close the Quasar case ensuring that no leads become trapped or internal items cause damage to thecomponents on the front or rear panel.

32

Connecting and Locating Radio Aerials

The aerial(s) used with Quasar should be mounted vertically at the point of strongest signal within the building.This is usually the highest point in the building (often the loft area). ALWAYS do a site survey to find the areaof strongest signal before aerial installation.

Radio signals can not pass through metal sheeting. Large metal structures can affect radio signals therefore,wherever possible, avoid installing the aerial directly under metal roofs or within metal skinned buildings be-cause this will reduce the signal strength and may inhibit operation completely. If this is unavoidable, thestrongest signal will be found away from the metal roof or close to large external windows or skylights. Notethat some plaster-board walls include a metal surface to one face.

Wherever possible do not install the aerial close (1 metre) to cable runs, ducting, structural metalwork, metalpipes, water tank, electronic equipment, e.g. photocopiers, fax machines etc. These can have similar effectsas metal roofs.

Reliable operation is unlikely with a low signal strength. If reception is poor, you should improve the signalstrength. This may be achieved by repositioning the aerial in an area of stronger signal.

VDN AerialsA 10m aerial extension lead is available to aid repositioning of VDN aerials.

For locating VDN aerials, the CS1066 Radio Test Set is ideal for surveying a proposed site for the point ofstrongest signal. See Fig 35. When you have identified the point of the strongest signal, make a note of thispoint and use it when installing VDN aerial(s).

GSM AerialsFor locating GSM aerials, a mobile GSM telephone is ideal to show the GSM signal strength. The signalstrength indicator is normally a bar or line at the side of the display on the portable telephone.

Note: The GSM mobile telephone MUST use the same GSM network as the Quasar Radio Module SIMCard uses. A portable GSM telephone that uses a different GSM network will NOT show the correctsignal strength. There are often two or more separate GSM networks provided by different Service Providers.In UK, GSM networks on 900MHz and/or 1800MHz are operated by Vodafone, O2, Orange and T-Mobile.(O2 was called Celnet, T-Mobile ownes One-2-0ne, Virgin uses the T-Mobile network).

Remember: It is always easier to find the point of strongest signal before the aerials are fitted to a wall.Moving aerials, cables, trunking etc. after installation is wasted time and effort.

33

Serial Printer

Dycon can provide a 40 Column Serial Printer Kit suitable for connection to the Serial Printer port of theQuasar. This kit includes all necessary cables and connectors and a power supply.

This printer may be powered from the mains using the supplied DC Power Supply (12 volts) or from the Quasarusing the supplied lead. Note that when powered from the Quasar rear panel DC output, the current drawn bythe printer will add to the total current required by the Quasar.

Note: Serial Printers from other sources may be used. The data and handshake lines used by serial printersoften vary from published standards. Because of the wide range of types, connections, size, power andprogramming options, Dycon can not advise on the suitability, configuration or use of Serial Printers from othersources.

To connect the Serial Printer to the Quasar:

1. Unpack the Serial Printer Kit and check parts for damage. Ensure that the parts and quantities arepresent. Refer to the leaflet contained in the kit. See Fig 32. Ensure that the printer model number is: 1014.0100.Refer to the label on the printer.

2. The supplied 12 volt Power Supply is fitted with a mains plug suitable for use in UK on 230 volts AC +/-10%. Where connection is required to a mains supply using a different style of plug, remove and replace withthe required type. Consult a qualified electrician if in any doubt.

3. Connect the data and power supply leads to the printer.

4. Fit the paper roll.

5. Connect the power supply to the mains, or supply the printer from the Quasar DC outputs on the rear panelusing the lead supplied.

6. Connect the data lead from the printer to the Serial Printer port on the rear of the Quasar. Ensure that thelead provided is used.

7. Set the position of the CTS jumper to ‘CTS=DSR’. See Fig 41.

Fig 36

Data lead

Printer

Power Supply

34

Blank Programme Button Line Feed Button 1 Button 0 ButtonPower On LED

Serial Printer (continued)

Setting-up the Serial Printer

1. Connect the DC supply to the the printer. Press the 0 button. See Fig 36.

2. Enter Printer Programming Mode by pressing the Blank Programming button and the 1 button together.

3. The printer will start and print the PROGRAMMING MODE header. The Power On LED will flash to indicateProgramming Mode. See Fig 36.

Note that Programming Mode will terminate if no buttons are pushed within 14 seconds and no changes toparameters will be stored.

The PROGRAMMING MODE header will be followed by the various parameters. Ensure that they are:Data: 8Parity: NoneBaud: 9600Country: UKPrint mode: TextAuto-off: DisabledEmulation: StandardDTR: NormalInterface: SerialMechanism: M192Loopback: Not present

When the full list is complete, ‘Data: 8’ will be printed.

4. If the ‘Data’ value is incorrect then press the Blank Programming button once to print the next ‘Data’ value.If this is incorrect, repeat until the correct value is displayed. Refer to the parameters above. See Fig 36.

5. Step onto the next parameter, i.e. ‘Parity’, by pressing the LINEFEED button once. See Fig 36.

6. Repeat 4. and 5. above until all parameters are at the correct value.

7. To permanently store the parameters, press the BLANK Programming button and the LINEFEEDbutton together. Note that Programming Mode will terminate if no buttons are pushed within 14 seconds andno changes to parameters will be stored.

8. Switch off by pressing the 0 button.

35

Fig 37

D0640 Serial Printer Kitfor use with the D2066 Quasar Receiver

This kit includes all parts required to connect the Quasar receiver to aSerial Printer for call logging and settings printing.

This kit contains:1 40 column serial printer1 paper print roll1 Power Supply with leads and mains plug.1 Power lead with a printer connector and a 2way plug-terminal.1 Null Modem data lead with one 25way D pins connector and one 9way

D holes connector.1 User Guide.

Replacement packs of 2 paper rolls and one print ribbon cartridge areavailable. Order part number D0641.

Fig 40

Quasar Output Connections

Remote Display4way connector

Monitored DC inputsupply 4way connector

Un-monitored DC inputsupply input jack

Rear Panel

Serial Output D connector(to AMS PC or server)

Serial PrinterD connector

Parallel PrinterD connector

Auxilliary OutputD connector

DC power output4way connector

4 relay outputs3way connectors

36

12 Volt Power Outputs

Two 12 volt outputs are available on the Quasar rear panel to power printers, sounders, lights etc.

These outputs are supplied by the Quasar battery and will continue to operate when the supply fails to theQuasar. Any current drawn from these outputs will add to the total current required by the Quasar. See Fig 40.

Quasar Output Connections (continued)

Serial Printer Output

The Serial Printer output on the Quasar rear panel is for connection to a printer with a serial input. There areseveral makes of serial printer available and each of these may have a different connection arrangement.

The Quasar Serial Printer output is configured as a DTE PC serial ‘COM’ port. The connection to the 9way Dconnector holes is shown. Seee Fig 40 and 41.

See Programming, page 42 to 59, to select the Serial or Parallel printer and for the list of possible printersettings, e.g. baud rate and parity.

5 4 3 2 1o o o o o

o o o o9 8 7 6

Holes Signal1 n/c2 RD Data to Quasar3 TD Data from Quasar4 DTR From Quasar5 0v6 DSR To Quasar (see note below)7 RTS From Quasar8 CTS To Quasar (see note below)9 n/c

The data speed of this output is fixed at 1200 baud.

The communication requires 7 data bits, Even parity and 1 stop bit (7E1).

Note: Between the rear panel and the Processor Board, next to the Serial Printer D connector is a jumper linkand 3 pin connector. See Fig 42. This allows for non-standard connections that require a CTS handshake lineon pin 6 or pin 8 of the Serial Printer D connector. Ensure that this link is in the correct position.

Select the NORMAL position for the CTS signal on pin 8 (pin 6 = n/c).(The jumper on the 2 pins away from the corner of Connector Board)

Select the CTS=DSR position for the CTS signal on pin 6 (pin 8 = n/c)(The jumper on the 2 pins nearest the corner of Connector Board)This is the correct position for the D0640 Serial Printer.

Fig 42

CTS Handshake Jumperbetween PCB and rear panel

37

Fig 41


Parallel Printer Output

The Parallel Printer output on the Quasar rear panel is for connection to a printer with a parallel or ‘Centronics’input. There are several makes and model of parallel printer available. These use one of two different connec-tion arrangements, a single direction cable or a bi-direction cable. A parallel printer with a single-directioncable must be used. The Epson LX-300+ dot matrix, fan-fold printer is recommended by Dycon.

Printers that require a bi-directional connection cable and require a PC to process some of their printing &control functions are unsuitable for use with Quasar. These are sometimes referred to as ‘Windows Print-ers’.

The Parallel Printer connector operates exactly as a PC DOS parallel printer ‘LPT’ port. See Fig 40 and 43.Connect a parallel printer to this port.

See Programming, pages 42 to 59, to select the Serial or Parallel printer and for the list of possible parallelprinter settings.

The connection to the 25way D connector holes is shown.

13 12 11 10 9 8 7 6 5 4 3 2 1o o o o o o o o o o o o o

o o o o o o o o o o o o25 24 23 22 21 20 19 18 17 16 15 14

Pin Signal Pin Signal1 Strobe 10 Ack2 Data 0 11 Busy3 Data 1 12 n/c4 Data 2 13 Select5 Data 3 14 n/c6 Data 4 15 Error7 Data 5 16 Reset8 Data 6 17 n/c9 Data 7 18 0v

Pin 19 - 25 = 0v

38

Aux Output

The Auxilliary connector operates exactly as a DTE PC serial ‘COM’ port. See Fig 40 and 44.

This connector is unused and provides for future expansion options.

The connection to the 9way D connector pins is shown.

1 2 3 4 5o o o o o

o o o o6 7 8 9

Holes Signal1 n/c2 RD Data to Quasar3 TD Data from Quasar4 DTR From Quasar5 0v6 n/c7 RTS From Quasar8 CTS To Quasar9 n/c

Fig 43

Fig 44


Serial Output

The Quasar Serial Output port allows received and verified transmissions to be passed to other systems, e.g.an AMS. See Fig 40 and 45.

This output is as a serial DCE port (Data Communication Equipment) that may be connected via a ‘straight’serial lead to a serial ‘COM’ port on a PC or server.

Note that Modems that allow PC connection to the telephone network are configured as DCE. Therefore a‘normal’ or ‘straight’ or ‘modem’ serial lead that works with a PC and Modem should be suitable for Quasarconnection to a PC or Server serial COM port. Do not use ‘Laplink’, ‘crossover’ or ‘Null-modem’ cables.

The following information is provided to assist connection to a PC. This will be sufficient in most cases.Where connection can not be made, consult a serial communications expert.

The DSR output signal from the Quasar (pin 6) will be permanently asserted (+12 volts) to indicate connectionto the PC.

The RTS input signal to the Quasar (pin4) needs to be asserted (+12 volts) to enable the Quasar output.Where RTS is disabled ( -12volts) for longer than 1 second then the Quasar will display an AMS Faultmessage. Note that the RTS signal into the Quasar is called the CTS signal where it leaves the PC serial port.

The CTS output signal from the Quasar (pin 5) will be asserted (+12 volts) to indicate that the Quasar willoutput data.

Where the Quasar displays an AMS Fault message and where a printer is enabled for ‘Deferred Printing’then the data will be printed. For all other printer options, then the data will be held in a buffer until the outputis enabled.

See Programming, page 42 to 59, for the list of possible output settings, e.g. protocols, baud rate, parity. TheQuasar is supplied with several output protocols, i.e. Radionics 6500, and Radionics-Extended. To meetcustomer’s operational requirements Quasar has been designed to allow the inclusion of other output protocols.Contact Dycon for output protocol options.

The Quasar Serial Output is configured as DCE. The connection to the 25way D connector holes is shown.

13 12 11 10 9 8 7 6 5 4 3 2 1o o o o o o o o o o o o o

o o o o o o o o o o o o25 24 23 22 21 20 19 18 17 16 15 14

39

Pin Signal Pin Signal 1 0v 5 CTS From Quasar 2 Data To Quasar 6 DSR From Quasar 3 Data From Quasar 7 0v 4 RTS To Quasar 8-25 n/c

Fig 45


Serial Output Cable

Refer to the cable wiring table below for both 25-to-25 serial cables and 25-to-9 serial cables.Note that 9 and 25 pin D connectors do not use the same pin numbers for similar signals.

Quasar D-25 holes D-25 pins - Serial Cable - D-9/25 holes PC D-9 pins PC D-25 pins1 - - - - - - - - - - - 0v - - - - - - - - - - shell 12 < < < < Data to Quasar < < < < 3 23 > > > > Data from Quasar > > > > 2 34 < < RTS to Quasar < < 7 45 > > CTS from Quasar > > 8 56 > > DSR from Quasar > > 6 67 - - - - - - - - - - - 0v - - - - - - - - - - 5 7

Some PCs and/or AMS software do not provide a CTS signal on their serial port. In this case, to permanentlytell the Quasar that it can send data from its serial output port, it will be necessary to provide a positive signalinto the Quasar RTS pin from the positive signal that is output by the Quasar on its CTS pin. Use a serial leadas shown below.

Quasar D-25 holes D-25 pins - Serial Cable - D-9/25 holes PC D-9 pins PC D-25 pins1 - - - - - - - - - - - 0v - - - - - - - - - - shell 12 < < < < Data to Quasar < < < < 3 23 > > > > Data from Quasar > > > > 2 34 to 56 > > DSR from Quasar > > 6 67 - - - - - - - - - - - 0v - - - - - - - - - - 5 7

Relay Outputs

Quasar includes four output relays whose changeover contacts are available to trigger any sounder, light etc.

These relays may be programmed to operate in several different ways. They can energise on receipt of a call,when a monitoring output is given, when Quasar detects an internal fault etc. See the Programming section forthe list of possible output settings. See page 42 to 59.

Connection to each set of contacts is made by a 3way terminal-plug on the rear of the Quasar case. Severalconnectors are supplied with the Quasar in the fitting kit. The terminals are marked with C, NO and NC (forCommon, Normally Open and Normally Closed) and a relay contact symbol to aid correct wiring. See Fig 40and 46

The relay contacts are rated at 24 volt 1 amp. The circuits connected to these relay contacts must notexceede these ratings.

An example is shown below of a 12 volt (1 amp maximum) bell being connected to a relay output and beingpowered by the 12 volt output on the Quasar rear panel for annunciation of incomming alarm calls.

40

Fig 46

QuasarReceiver RearPanel

12 volt output

One of the 4output relayconnections

0 volts

+12 volts

Remote Receiver DisplaySome installations may require the Quasar front panel, display and keypad to be located away from thereceiver.

This may be enabled by removing the two screws that secure the Quasar ‘front panel hinge’ to the case andthen relocating it elsewhere.

The ribbon lead and 10 way connector that is connected to the rear of the Display Board must be discon-nected and left in the Quasar case.

A long connecting lead (up to 20 metres) may be assembled from 4 core cable and two of the 4way plug-terminals supplied in the Quasar Fitting Kit or the Remote Display Kit. 4way sockets are available on the rearpanel of the Quasar and the rear of the Display Board. Connect these with the long connecting lead. See Figs6 & 33.

The blank 3U panel that is supplied in the Remote Display Kit may then fitted to the front of the Quasar case.

Serial Number and Software Version NumberThe Serial Number of the Quasar hardware may be read on a label fixed to the outside of the rear panel.

The Software Version Number may be read on the Access Code screen. To display, ensure that the ACTIV-ITY LED is off, then press the CLEAR key until the ACCESS CODE & ENTER display is seen. The SoftwareVersion Number may be seen on the bottom line of the display for 10 seconds, e.g. Ver 20660023. After 10seconds, the ACCESS CODE & ENTER display will disappear, then the operation screen will be displayed andfurther calls may be received.

Quasar receivers using software that was manufactured before v20660002, 20/8/2001 do not display theversion number as described. Contact Dycon for a software upgrade.

Factory DefaultsTo return ALL of the preset values in the Quasar to the Factory Default values including the Engineering AccessCode to 999999 and to clear all buffers:

1. Unplug the internal battery2. Remove the DC supply voltage to the Quasar.3. Replace the DC supply voltage to the Quasar.4. Within 5 seconds press these keys: 1, 3, 7, 9, ENTER5. Re-connect the internal battery.

To return ONLY the Engineering Access Code to 999999:1. Follow the above sequence using code: 1, 2, 3, 4, ENTER

41

Operational Programming

Quasar requires a 6 digit Security Access Code to be input before any programming presets are changed orany user features are activated. See page 43.

Follow the Main Menu flow chart below for selection of programming options. Key pushes are shown inchevrons, e.g. <CLEAR key>.Refer to the lower line of the display for operation of the ARROW, CLEAR andENTER keys.

To leave the programming menu, return to the menu shown below, then press the DOWN ARROW keyrepeatedly until the QUIT display is seen, then press the ENTER key.

Note: No incoming calls will be received during Programming mode, i.e. from the time that the CLEARkey is pushed (prior to entering an access code) to leaving programming mode via the QUIT display.

< CLEAR key > (may need several pushes)

TYPE CODE & ENTER (This screen also shows the software version - - - - - - number on the lower line)

< 6 Digit Access Code > (e.g. 999999. Enter code within 10 seconds. See page 44)< ENTER key >

ACCESS CODE (press ENTER to change the6 digit access code. See page 44)

< DOWN ARROW key >

TIME & DATE (press ENTER to change the timeand/or date display. See page 44)

< DOWN ARROW key >

PRINTER (press ENTER to select the Serialor Parallel Printer output. See page 45)

< DOWN ARROW key >

RX INPUT 1 (press ENTER to set parameters ofmodem connected to Input 1.Not Used or IN Use will also be displayed. See page 46)

< DOWN ARROW key >


< DOWN ARROW key >


< DOWN ARROW key >


< DOWN ARROW key >

Go to chart on next page42

Operational Programming (continued)

From flow chart on previous page

RECEIVER OUTPUT (press ENTER to set parameters ofthe Serial Output Port (to the AMS)See page 47)

<DOWN ARROW key >

CONTACT ID CONVERT (press ENTER to set parameters ofconversion between ContactID outputand a different protocol input.

<DOWN ARROW key > See page 48)

AMS FAULT REPORTING (press ENTER to set the display andprinter options for this protocol.See page 49 and 50)

<DOWN ARROW key >

DUALCOM-96 MODE (press ENTER to set the display andprinter options for this protocol.See page 51)

<DOWN ARROW key >

PORTALARM-2001 MODE (press ENTER to set the display andprinter options for this protocol.See page 51)

<DOWN ARROW key >

AUXILIARY RELAYS (press ENTER to set the operation ofthe four output relays. See page 52)

<DOWN ARROW key >

SOUNDER MODES (press ENTER to set the operation ofthe internal sounder. See page 53)

<DOWN ARROW key >

SYSTEM DIAGNOSTICS (press ENTER to set the display andprinter options for this protocol.See page 54 and 55)

<DOWN ARROW key >

QUIT ? (press ENTER to leave this menu andreturn to normal receiver operation)

<DOWN ARROW key>

Go to the ACCESS CODEdisplay on the previous page.

43


Type Code & Enter (Engineering Access Security)Quasar requires a 6 digit security access code to be input before any programming presets are changed or anyuser features are activated.

Note: Entry to programming is inhibited when any calls are in progress or during input activity, i.e. the ActivityLED is on. During programming, incomming calls are not answered or processed.

To enter the access code:

1. Ensure that the ACTIVITY LED is off.

2. Press the CLEAR key until the TYPE CODE & ENTER display is seen.(The Quasar software version number may be seen on the bottom line of the display)

3. A 6 digit access code may then be entered.If no key is pressed within 10 seconds, the display will return to the normal operational screen.(The 6 digit access code is set to 999999 when the unit left the factory)

4. Press of the ENTER key.

Program Access CodeThis menu allows the 6 digit Engineering Access Code to be changed. The Factory default number = 999999.To return to the factory default number see the Factory Default instructions on page 41.

Select the ACCESS CODE display. See page 42.

1. Press the ENTER key. Follow the display instructions and options.

2. Enter the required new 6 digit security access code.

3. Press the ENTER key.

4. Enter the required new 6 digit security access code again.

5. Press the ENTER key to store the new 6 digit access code and to return to the PROGRAM ACCESSCODE display on the main menu. See page 42.

Time & DateSet the time and date in the Quasar so that its printer can give an accurate time to the second of eachreceived message.

Select the TIME & DATE display. See page 42.

1. Press the ENTER key. Follow the display instructions and options. (do not use the number keys):

2. Press the LEFT ARROW and RIGHT ARROW keys to position the ‘^’ cursor under the first number in thetime or date that requires changing.

3. Press the UP ARROW key and DOWN ARROW key to change the number to that required (do not use thenumber keys).

4. Repeat step 1 and 2 until the time and date are as required.

5. Press the ENTER key to return to the SET TIME & DATE display on the main menu. See page 42.

44


Printer OptionsA Serial or parallel printer may be connected to the Quasar for logging of received messages and Quasar’sinternal fault detection. This menu allows the printer port(s) to be set to the required parameters. A Serial or aParallel printer may be used.

Select the PRINTER display. See page 42.


2. The first Printer parameter is displayed. This is TYPE and it may be SERIAL or PARALLEL.If this parameter is selected to the correct value then go to step 7.If this parameter requires changing then go to step 3.

3. Press the ENTER key. The parameter shown will have <chevrons> indicating that it can be changed.

4. Press the LEFT ARROW and RIGHT ARROW keys to select the parameter options.

5. Press the ENTER key to confirm this parameter option. The <chevrons> will dissappear.

6. Press the DOWN ARROW key to display the next Printer parameter.

7. Repeat step 1 to 6 until all the Printer parameter options are correct.

Printer parameters are:TYPE Select from: SERIAL or PARALLEL.BAUD SPEED Select from: 1200, 2400, 4800 or 9600PARITY Select from: NONE, ODD or EVENDATA BITS Select from: 7 or 8MODE Select from: ALWAYS, DEFERRED or OFF. The ‘Deferred’ selection will only

enable the printer if the Serial Output can not pass a message to the AMS.It will not print faults.

FILTER Select from: FAULTS ONLY, or ALL.COLUMN WIDTH Select from: 24, 40, 80 or 120 (The Serial Printer must be set to 40).

8. Press the CLEAR key to return to the PRINTER display on the main menu. See page 42.

45


Receiver Input Options

The Quasar has 4 input channels. Each input may be connected via a modem to a communication network.These are:

A GSM Radio modem for connection to a digital GSM Network for SMS Text reception.A PSTN modem for connection to the analogue PSTN (Public Switched Telephone Network).A VDN Radio modem( Radio-PAD) for connection to the digital Vodafone Data Netwotk (Paknet)A GSM Radio modem for connection to a digital GSM Network for data reception.An ISDN Terminal Adapter for connection to the ISDN2 (Integrated Services Digital Network)

The 4 inputs are 9 pin D connectors for RS-232 serial communication. They are configured exactly as a serial‘COM’ port on a PC computer and have similar setup options. Each input channel can receive one Data Formate.g. Contact ID. See Appendix 4 for a description of all Data Formats.

Once the Data Format has been selected for each of the 4 channel inputs, then the Output Protocol may beselected. The Output Protocol will be on the serial output connector for alarm handling by an Alarm Manage-ment System (AMS) on a PC or server. See Appendix 3 for a description of all Output Protocols.

Each of the 4 channels may receive different Data Formats and output different Output Formats. See Appendix5, Networks, Data Format and Output Protocol Associations.

Select the RX CHANNEL (1, 2, 3 or 4) display for channel 1 to 4 as required. Under the Channel number, thedisplay will show if this channel is "Not-Used" or "In-Use". See page 42.


2. The first Receiver Channel parameter is displayed.This is INPUT TYPE and it may be None, SMS, GSM, VDN, PSTN or ISDN.If this parameter is selected to the correct value then go to step 7.If this parameter requires changing then go to step 3.



5. Press the ENTER key to confirm this parameter option. The <chevrons> will dissapear.

6. Press the DOWN ARROW key to display the next Receiver Channel parameter.

7. Repeat step 1 to 6 until all the Receiver Channel parameter options are correct.

Receiver Channel parameters are:INPUT TYPE Select from: NONE, SMS, GSM, VDN, PSTN or ISDN.DATA FORMAT Select from: DUALCOM-96, PORTALARM-2001, SIA-2, SIA-3, CONTACT-IDOUTPUT FORMAT Select from: RADIONICS-STANDARD, RADIONICS-EXTENDED, RADIONICS-IE,

CONTACT-ID1, CONTACT-ID2, ADEMCO4+2, ADEMCO4+1,ADEMCO-HIGHSPEED.

BAUD RATE Select from: 300, 1200, 2400, 4800 or 9600.PARITY Select from: NONE, ODD or EVENDATA BITS Select from: 7 or 8LINE CHECK (hours) Select from: OFF, 3mins, 6mins....up to 99 mins. See Note below.INIT. STRING Enter the required characters. This is described in Appendix 2.

See the data sheet that was supplied with the Modem/Radio modem/TA detailsSee the relevant section in this manual for the correct Initialisation String.

8. Press the CLEAR key to return to the RX CHANNEL display on the main menu. See page 42.

46


Receiver OutputThe Receiver serial output port is for connection to an Alarm Management System (AMS). It is a 25 pin Dconnector for RS-232 serial communication. It is configured exactly as a serial ‘COM’ port on a PC computerand has similar setup options.

This port sends any received data to an AMS. In addition, a regular (every 1 minute) integrity transmission maybe sent from the Quasar to the AMS. These integrity transmissions may be monitored by the AMS to confirmcorrect Quasar connection and operation. See Appendix 3 for a description of all Output Protocols.

This port can also send details of any situation or fault that is detected by the Quasar. See the AMS FaultReporting settings on page 49 and 50.

The Quasar also monitors the ‘acknowledge’ that the AMS sends whenever it receives any message from theQuasar. If these are absent then the Quasar can provide a ‘fault’ output. See the Output Relays on page 40.

To disable this port select the RECEIVER MODE parameter to OFF.

Select the RECEIVER (SERIAL) OUTPUT PORT parameters required. See page 43.


2. The first Receiver Output parameter is displayed. This is BAUD RATE and it may be 1200, 2400, 4800,9600, 19.2K, 38.4K, 76.8K or 153.6K.If this parameter is selected to the correct value then go to step 7.If this parameter requires changing then go to step 3.




6. Press the DOWN ARROW key to display the next Receiver Output parameter.

7. Repeat step 1 to 6 until all the Receiver Output parameter options are correct.

Receiver Output parameters are:BAUD RATE Select from: 1200, 2400, 4800, 9600, 19.2K, 38.4K, 76.8K or 153.6K.PARITY Select from: NONE, ODD or EVENDATA BITS Select from: 7 or 8RECEIVER MODE Select from: OFF, THRU, RADIONICS-STD POLL, RADIONICS-EXT POLL,

RADIONICS-IE POLL, CONTACT-ID1 POLL, CONTACT-ID2 POLL, ADEMCO POLL.See Appendix 3.

RECEIVER NUMBER Select from: 00 to 99. See Appendix 3.PROTOCOL NUMBERSelect from: 00 to 99. See Appendix 3.INTEGRITY TX ACC. Enter a 4, 5 or 6 digit account number. This will be used for the regular integrity

message to the AMS. Leave blank to disable the regular integrity message.Many AMS’ use Account Number 0000 for Receiver integrity checks.

AMS EVENT ACK To acknowledge reception of all messages (except Integrity messages), the AMSwill reply with a single byte.Many AMS’ use 06 hex (an ACK character) for Receiver message acknowledge.

AMS INTEG. ACK To acknowledge reception of Integrity messages, the AMS will reply with a singlebyte. This allows a different acknowledge to be recognised for Integrity messages.Many AMS’ use 06 hex (an ACK character) for Receiver Integrity messageacknowledge.

8. Press the CLEAR key to return to the RECEIVER OUTPUT display on the main menu. See page 43.

47

48


Contact ID ConversionThis menu presets the conversion procedure when the Dualcom-96 protocol is being received (e.g. from aDualcom) and the ContactID protocol is being output from the Quasar to an AMS.

For each received channel (1-16, test & low battery) a 3 digit Contact ID Event Code is associated. E.g.Dualcom-96 Channel 1 = Fire, the associated 3 digit Contact ID Event Code = 110.

Select the CONTACT-ID CONVERT display. See page 43.


2. The first Dualcom-96 channel is displayed. This is CHANNEL 1.If the 3 digit Contact ID Event Code displayed is correct then go to step 7.If this 3 digit Contact ID Event Code displayed requires changing then go to step 3.

3. Press the ENTER key. The current 3 digit Contact ID Event Code shown will have <chevrons> indicatingthat it can be changed.

4. Enter the required 3 digit Contact ID Event Code (this must be 3 digits).

5. Press the ENTER key to confirm the 3 numbers displayed. The <chevrons> will dissapear.

6. Press the DOWN ARROW key to display the next Channel number.

7. Repeat step 1 to 6 until all the Channel Number/3 digit Contact ID Event Codes are correct.

The Dualcom-96 channels are:CHANNEL 1 Fire The default 3 digit Contact ID Event Code = 110CHANNEL 2 PA, Panic The default 3 digit Contact ID Event Code = 120CHANNEL 3 Burglary The default 3 digit Contact ID Event Code = 130CHANNEL 4 Open/Close The default 3 digit Contact ID Event Code = 400CHANNEL 5 System trouble The default 3 digit Contact ID Event Code = 300CHANNEL 6 Line Fail, communications trouble

The default 3 digit Contact ID Event Code = 350CHANNEL 7 Alarm confirm, intrusion verifier

The default 3 digit Contact ID Event Code = 139CHANNEL 8 Alarm mis operation, User on premises

The default 3 digit Contact ID Event Code = 458CHANNEL 9 General alarm The default 3 digit Contact ID Event Code = 140CHANNEL 10 General alarm The default 3 digit Contact ID Event Code = 140CHANNEL 11 General alarm The default 3 digit Contact ID Event Code = 140CHANNEL 12 General alarm The default 3 digit Contact ID Event Code = 140CHANNEL 13 General alarm The default 3 digit Contact ID Event Code = 140CHANNEL 14 General alarm The default 3 digit Contact ID Event Code = 140CHANNEL 15 General alarm The default 3 digit Contact ID Event Code = 140CHANNEL 16 General alarm The default 3 digit Contact ID Event Code = 140LOW BATTERY Low system battery voltage

The default 3 digit Contact ID Event Code = 302TEST CALL Periodic test call The default 3 digit Contact ID Event Code = 602

8. Press the CLEAR key to return to the CONTACT-ID CONVERT display on the main menu. See page 43.

49


Alarm Management System Fault ReportingReceivers are often mounted in a rack away from the Alarm Management System (AMS) operator(s). It isimportant that any faults detected by the Quasar are reported to the operator(s).

This may be done by connecting a light or sounder to an output relay (see page 40) and/or giving the Quasaran ‘account’ on the AMS so that it can send alarms to the operator(s) screen exactly as a Dualcom or anintruder alarm Control Panel does. The Quasar will send these alarms on the Receiver Output Port. See page47.

To disable AMS Fault Reporting, select the AMS FAULT REPORTING parameter to OFF.

The format of the Fault Report that is sent to the AMS may be selected from any of the Output Protocols thatthe Quasar uses, e.g. Contact-ID. Where the Output Protocol is Radionics or Ademco then the channelnumber for each fault may be selected (1 to 16). Where the Output Format is Contact-ID then the code numberfor each fault may be selected (000 to 999). The default values are given in the table on the next page. SeeAppendix 3 for a description of all Output Protocols,

Select the AMS FAULT REPORTING parameters required. See page 43.


2. The first AMS FAULT REPORTING parameter is displayed. This is FAULT REPORTING and it may be:OFF, RADIONICS-STANDARD, RADIONICS-EXTENDED, RADIONICS-IE, CONTACT-ID1,CONTACT-ID2, ADEMCO-4+2, ADEMCO-4+1, ADEMCO-HIGHSPEED.(Each is described in Appendix 3)

If this parameter is selected to the correct value then go to step 7.If this parameter requires changing then go to step 3.




6. Press the DOWN ARROW key to display the next AMS FAULT REPORTING parameter.

7. Repeat step 1 to 6 until all the AMS FAULT REPORTING parameter options are correct.

AMS FAULT REPORTING parameters are:FAULT REPORTING Select from: RADIONICS-STANDARD, RADIONICS-EXTENDED, RADIONICS-IE,

CONTACT-ID1, CONTACT-ID2, ADEMCO4+2, ADEMCO4+1,ADEMCO-HIGHSPEED or OFF.

ACCOUNT NUMBER Enter the required number. 0 to 999999.FAULT or SITUATION There are 22 different faults or situations that may be reported.

Each is listed in the table on the next page.The table also shows the factory default value that will be sent to the AMSdepending upon which Output Protocol is selected.

8. Press the CLEAR key to return to the AMS FAULT REPORTING display on the main menu. See page 43.


Alarm Management System Fault Reporting (continued)

50

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Dualcom-96 Protocol OptionsThese options allow for text to be printed and displayed as well as channel numbers when a transmission isreceived in the Dualcom-96 protocol. Any text that is entered will be used in preference to the default text, e.g.Channel 1 text = Fire, Channel 2 text = PA, Channel 3 text = Intruder. Delete all text to return to the default text.

Select the DUALCOM-96 MODE display. See page 43.


2. The first Dualcom-96 channel is displayed. This is CHANNEL 1.If the text displayed is correct then go to step 6.If this text displayed requires changing then go to step 3.

3. Press the ENTER key. Enter the required characters. This is described in Appendix 2.

4. Press the ENTER key to confirm the text displayed.

5. Press the DOWN ARROW key to display the next Channel number text.

6. Repeat step 1 to 5 until all the Channel number texts are correct.

7. Press the CLEAR key to return to the DUALCOM-96 MODE display on the main menu. See page 43.

PortAlarm-2001 Protocol OptionsThese options allow for text to be printed and displayed as well as channel numbers when a transmission isreceived in the portAlarm-2001 protocol. Any text that is entered will be used in preference to the default text,e.g. Channel 1 text = Fire, Channel 2 text = Tamper, Channel 3 text = Intruder. Delete all text to return to thedefault text.

Select the PORTALARM-2001 MODE display. See page 43.


2. The first Portalarm-2001 channel is displayed. This is CHANNEL 1.If the text displayed is correct then go to step 6.If this text displayed requires changing then go to step 3.

3. Press the ENTER key. Enter the required characters. This is described in Appendix 2.

4. Press the ENTER key to confirm the text displayed.

5. Press the DOWN ARROW key to display the next Channel number text.

6. Repeat step 1 to 5 until all the Channel number texts are correct.

7. Press the CLEAR key to return to the PORTALARM-2001 MODE display on the main menu. See page 43.

51


Auxiliary RelaysThere are 4 relay outputs on the Quasar. These may be connected to lights, sounders, etc. to draw attentionto received messages and Quasar faults. This menu sets which occurences will operate which relays.

Select the AUXILIARY RELAY parameters required. See page 43.


2. The first Auxilliary Relay parameter is displayed. This is RELAY 1 ACTIVATION and it may be NORMALLYOFF or NORMALLY ON.If this parameter is selected to the correct value then go to step 7.If this parameter requires changing then go to step 3.




6. Press the DOWN ARROW key to display the next Auxiliary Relay parameter.

7. Repeat step 1 to 6 until all the Auxilliary Relay parameter options are correct.

Auxilliary Relay parameters are:RELAY 1 ACTIVATION Select from: NORMALLY OFF or NORMALLY ON.RELAY 2 ACTIVATION Select from: NORMALLY OFF or NORMALLY ON.RELAY 3 ACTIVATION Select from: NORMALLY OFF or NORMALLY ON.RELAY 4 ACTIVATION Select from: NORMALLY OFF or NORMALLY ON.ANY ACTIVE TRIGGER Select the relay(s) that will operate for 2 seconds by this occurrence.POWER FAIL Select the relay(s) that will operate for 2 seconds by this occurrence.SYSTEM FAILURE Select the relay(s) that will operate for 2 seconds by this occurrence.AMS FAILURE Select the relay(s) that will operate for 2 seconds by this occurrence.MODEM FAILURE Select the relay(s) that will operate for 2 seconds by this occurrence.

8. Press the CLEAR key to return to the AUXILIARY RELAY display on the main menu. See page 43.

52


Sounder ModesFollowing a fault, the internal sounder will beep to attract attention. Pressing the CLEAR button will silence thesounder. This menu presets the sounder operation when a subsequent transmission is received. With FaultRe-sound set to on, any incoming message will re-activate the sounder. With Fault Re-sound set to off, thesounder will remain silent until the fault is restored.

Select the SOUNDER MODE parameters required. See page 43.


2. The first Sounder Mode parameter is displayed. This is FAULT RE-SOUND and it may be OFF or ON.If this parameter is selected to the correct value then go to step 7.If this parameter requires changing then go to step 3.



5. Press the ENTER key to confirm this parameter option. The <chevrons> will disappear.

6. Press the DOWN ARROW key to display the next Sounder Mode parameter.

7. Repeat step 1 to 6 until all the Sounder Mode parameter options are correct.

Sounder Mode parameters are:FAULT RE-SOUND Select from: OFF or ON.

8. Press the CLEAR key to return to the SOUNDER MODE display on the main menu. See page 43.

53


System DiagnosticsThis menu option allows various measurements to be made within the Quasar. These are the supply andbattery voltages, and the radio modem signal strength and interference readings.

Select the SYSTEM DIAGNOSTICS parameters required. See page 43.


2. The first SYSTEM DIAGNOSTICS parameter is displayed. This is POWER SUPPLY STATUS.

3. Press the ENTER key. The REMOTE KEYPAD VOLTAGE will be displayed.

4. Press the DOWN ARROW key to display the next POWER SUPPLY STATUS parameter.

5. Repeat step 4 until all the POWER SUPPLY STATUS parameter options have been displayed.

POWER SUPPLY STATUS parameters are:REMOTE KEYPAD VOLTS, LOCAL BATTERY VOLTS, INTERNAL PSU VOLTS,QUASAR INPUT VOLTS, MODEM 1 SUPPLY VOLTS, MODEM 2 SUPPLY VOLTS,MODEM 3 SUPPLY VOLTS, MODEM 4 SUPPLY VOLTS.

6. Press the CLEAR key to return to the SYSTEM DIAGNOSTICS display on the main menu. See page 43.

7. The first SYSTEM DIAGNOSTICS parameter is displayed. This is POWER SUPPLY STATUS

8. Press the DOWN ARROW key to display the next SYSTEM DIAGNOSTICS parameter.This is RADIO SIGNALS.

9. Press the ENTER key. The SELECT CHANNEL question will be displayed.

10.Press 1, 2, 3 or 4 to select an Input channel that has a POWER SUPPLY STATUS connected.

11. The Radio Modem will initialise, register and then measure its radio path parameters.These will then be displayed.

12.Press the CLEAR key to return to the SYSTEM DIAGNOSTICS display on the main menu. See page 43.

54

to 60 INTENTIONALLYLEFT BLANK

Testing the Quasar Using a GSM Dualcom

To ensure that the Quasar is correctly installed and programmed, test calls should be sent through eachnetwork from which the Quasar can receive transmissions. This may be done with any equipment thattransmits using Dualcom96 protocol.

It is recommended that this is done for each type of transmission in each protocol on each network that isused to ensure full operation of the networks, Quasar, programming, printers etc.

GSM Dualcom will transmit using Dualcom96 protocol. This describes a GSM Dualcom test. Refer to theGSM Dualcom Installation Manual for full details.

1. Select Quasar to Dualcom96 protocol on the channels that are in use.

2. Setup a GSM Dualcom with GSM SIM Card enabled for Data Mode, a 12 volt 0.3 amp power supply andan NVM programmed to report to the telephone number of the channel on the Quasar that you wish to test.The NVM of the GSM Dualcom should be preset to transmit on the GSM path only thus reducing thetesting time.

3. Power up the GSM Dualcom, the unit will initialise. This will take 20 seconds with the GSM LED On, thePSTN LED Off, and the Signal Strength LEDs Off. When complete the GSM LED will be off.

4. To test the reporting path to the Quasar, momentarily short the test pins on the GSM Dualcom or triggerone or more of the input terminals (1 to 8). This will cause Dualcom to send a transmission.

Once the test pins are shorted the yellow communication LED will illuminate. During communication theLED will flash to indicate the progress of the call. When a path has successfully communicated with theQuasar it’s associated LED will go off.

5. Check the Quasar display and printer output(s) for data received.

61

Quasar Fitting Kit

When supplied, the Quasar contains a kit of connectors. See Fig 50. The kit contains:

4 off 0.6m serial data lead with 9way D connector, one male, one female. Use these for connection toeach of the 4 input channel connectors.

4 off 4way plugable screw-terminal strip. These allow connection to the rear panel power and remotecontrol panel connectors.

4 off 3way plugable screw-terminal strip. These allow connection to the rear panel relay contact outputs.

4 off 2way plugable screw-terminal strip. These allow connection to the internal power sockets to powernetwork termination equipment, e.g. modems.

2 off 0.6m PSTN lead with one 4/4 way RJ10 connector and one 4/6way RJ11connector. This allows therear panel PSTN network connector to be connected to an internal PSTN modem that has a 6way RJ11socket.

1 off 0.6m ISDN lead with RJ45 connectors. These allow the rear panel ISDN network connector to beconnected to internal ISDN Terminal Adapters.

1 off 80mm Alligator grommet. When external modem devices are used with serial leads that exit theQuasar rear panel, this grommet protects those cables from the edges of the rear panel knock-out.

Fig 50

Serial data leads

Plug-terminals

PSTN leads

ISDN leads

62

D2065 Power Supply

The Quasar matching Power Supply is a mains powered, battery backed-up UPS in a 19 inch rack housing.It is designed specifically to accompany the D2066 Quasar Receiver but may be used as a general purposePSU if required. See Fig 51.

The unit incorporates a 6 amp switched-mode mains supply and 34 amp/hours batteries.

Assuming that the Quasar and its Modems / Terminal Adaptors / Radio Modules consume no more than 1 ampthen the D2065 Quasar Power Supply will allow the Quasar to operate for more than 30 hours without a mainssupply.

At any time up to 4.0 amps may be drawn from the unit.

The output voltage is a nominal 13.8 volts when the mains supply is connected. When mains is absent, theoutput voltage will fall as the battery voltage falls.

The equipment conforms to the requirements of EN60950, an International electrical safety standard.

When the Quasar Power Supply battery is partially or fully discharged the mains supply current will rechargethe batteries and provide power to the output. 20 hours should be allowed for a fully discharged battery torecharge.

This Power Supply includes comprehensive monitoring circuits. These will provide an output to the QuasarReceiver so that faults may be indicated exactly as other Quasar monitoring outputs. Any detected fault willalso illuminate the PSU front panel Fault LED and operate a relay that is available on the rear panel.

63

Software Replacement

Quasar is designed to have its operational software specification updated easily. This may be to provide agreater range of receiving and output protocols or other operational features. Dycon can provide software pre-loaded into a D3040 Memory Card that may be plugged into Quasar.

It is strongly recommended that a note of all programmable parameters is made before changingthe version of software. After the software change, the Quasar should be returned to its factorydefaults and reprogrammed with the same parameters.

To change the D3040 Memory Card:

1. Enter Engineering Mode and make a note of every preset value. See page 41.

2. Remove the power from Quasar.

3. Open the rear panel and disconnect the battery connector from the Processor board.

4. The D3040 Memory Card may be unplugged and the replacement item fitted.See Fig 60.Note: Quasar will not operate without a D3040 Memory Card being fitted.

A D3041 Updater Card can not be used with Quasar.

5. Return the Quasar to its factory Defaults by:Reconnect the power to the Quasar. Within 5 seconds, enter 1, 3, 7, 9, ENTER on the keypad.

6. Reconnect the battery. Close the rear panel.

7. Enter Engineering Mode. See page 41.

8. Reprogramme the Quasar using the preset values recorded at step 1 above.

64

Printed Circuit Board Replacement

Quasar is designed to have any of its Printed Circuit Boards removed and replaced for servicing or repair. To aidremoval and replacement, all PCB connections are by plug and socket. All PCBs are secured in the case byscrews.

Processor boards that are version 003 or later include components that provide data protection for the ‘batterybacked RAM’ memory. Boards with this feature will not operate with software that is version 0021 or earlier.Ensure that software version 0022 or later is used with version 003 or later Processor boards.

Fig 60

D3040 Memory Card

APPENDIX 1

LED and Sounder indicators on the Quasar. See Fig 2.

These indications are for situations requiring attention. Full details are given on the display, printer andpassed to an AMS.

Power LED Off = No DC power is supplied to the Quasar Receiver.Active Display = Quasar is operating on its internal battery only.Blank Display = Quasar unpowered.

On = DC power is supplied to the Quasar. It is greater than 9 volts.

Activity LED Off = No incoming calls and no input channel activity.

On = An incoming call (1 or more) is in progress or the Quasar is polling theModem / Terminal Adapter / Radio modem(s) connected to the channel inputs.

Power Fault LED Off = No power faults.

On = One or more power faults, e.g. the input voltage is below 11 volts and theinternal battery is not charging. See the Display for fault description.

System Fault LED Off = No system faults

On = One or more system faults, e.g. failed polling of a modem on an inputchannel. See the Display for fault description.

Sounder Single short beep = Keypad button pushed

2 tone rapid alternating = warning, see LEDs above and the display.

To silence the sounder press the 0 key

To clear the warning display, first correct the fault then press the 0 key.

Relay Outputs. See page 40 and 50.

Relays may be programmed as Normally Energised or Normally De-energised.

A 2 second operation will occur (as selected in programming) for:Any Active trigger = A successfully received call.Power Fault. = Any supply fault.System Failure = A fault detected by the continuous self-test routines.AMS Failure = Failure to send an output to an AMS (requires 1 or more successful outputs before

a failure can be indicated.Modem Failure = Failure to communicate with a modem or other device connected to one of the

Channel Inputs (1, 2, 3 or 4). The Self-test routines will attempt to recover the modem by removing power to the modem for 2 seconds before re-testing

65

APPENDIX 1

Display Warnings

Modem x Not responding Communications between Channel X input and the Modem / Terminal Adapter / Radio module has stopped

Check cables to ModemCheck power to modemCheck modem power is switch onIf this channel unused then enter programmingand turn it off.

Incorrect Access Code The access code used is not recognised. Obtain the correct number and retry. Alternatively, return the codes to the factory default values and use this number

66

67

APPENDIX 2

Text Entry on Keypad

Where text requires changing (See pages 42 to 59), select the Text Entry procedure by pressing the ENTERkey when the text that is to be changed is displayed.

Text is entered using the same convention used on most mobile telephones, i.e. multiple presses of each ofthe keys enters text as defined below:

Key Displayed

1 A B C a b c 1

2 D E F d e f 2

3 G H I g h i 3

4 J K L j k l 4

5 M N O m n o 5

6 P Q R p q r 6

7 S T U s t u 7

8 V W X v w x 8

9 Y Z y z 9 ! # $ % & , ( ) *

0 0 + ‘ - . / : ; < = > ? @ ^ [ \ ] _ { | } ! # $ % & ,

CLEAR space (blank character)

1. Press the LEFT ARROW and RIGHT ARROW keys to position the ‘^’ cursor under the next characterthat requires changing.

2. Press the Numbers keys repeatedly to select that number or the associated letters. Refer to the tableabove. Punctuation and similar characters are associated with the 9 and 0 keys.

3. Repeat steps 1 and 2 until the new text is entered as required.

4. Press the ENTER key to confirm this text.

Note: The backslash character ( \ ) is displayed as Y__

68

APPENDIX 3

Radionics-Standard Protocol

This protocol may be selected as an Output Protocol on the Quasar receiver Serial Output port. Refer to the CSLprotocol document for full information about this protocol.

The protocol data format is 8 data bits. The baud rate, the use of parity and the number of stop bit is not defined butneeds to be compatible at each end of the link.

The Receiver sends the following string to the AMS whenever it receives a message. Spaces shown in the se-quences below are for printing clarity and do not form part of the message.

AAAAAA B C <14><06>

The message is as follows :

AAAAAA Account Number. 4, 5 or 6 ASCII characters. Each character = 0-9 or A-F.For values less than 1000 leading zeroes will be inserted to make a minimum of 4 characters.

B Event Type. A single ASCII character. The character will be one of the following capital letters:A = AlarmR = RestoreO = OpenC = CloseT = Test channel action

C Channel Number or Status Channel. A single ASCII character. The character = 0-9 or A-F.

When the Network Transmission Protocol is DTMF Fast Format, Dualcom 96, PortAlarm2001or asimilar structured protocol then that protocol’s Channel Number indicates the Event.Refer to the table below.

Channel Number = 1 to 9 ASCII 1 to 9Channel Number = 10 ASCII 0Channel Number = 11 to 16 ASCII A to F

Where the Event Type = T = Test channel action, the channel number is significant.Channel Number = 0 = Low-battery or power failureChannel Number = 8 = A monitoring function.Channel Number = 9 = A test call.

<14> Termination Byte. A single byte = Control Character DC4 = 14 hex.

<06> Reception Acknowledgement. The Alarms Management System will reply with a single byte of06 hex. The Quasar expects the acknowledgement within 1 second.

APPENDIX 3

Radionics-Standard Protocol

Integrity Poll Message

It is important that the Alarms Management System is quickly aware of any breach in the integrity of the serial datacable to each Receiver, and that the receiver itself is operating correctly.

This is achieved by the Receiver sending an integrity message if it has not sent any data for a period, typically oneminute. Spaces shown in the sequences below are for printing clarity and do not form part of the message.

The integrity message is:

0000 T 8 <14><06>


0000 Account Number. 4 ASCII characters. Each character = 0 = 30 hex.

T Event Type. A single ASCII character = T = 54 hex.

8 Channel Number, Monitoring Function. A single ASCII character = 8 = 38 hex.



69

APPENDIX 3

Radionics-Extended Protocol


The protocol data format is 7 or 8 data bits. The baud rate, the use of parity and the number of stop bit is not setbut needs to be compatible at each end of the link.


AAAAAA B C D <14><06>



B Event Type. A single ASCII character. The character will be one of the following capital letters:A = AlarmR = RestoreO = OpenC = CloseT = Test action

When the Network Transmission Protocol is DTMF Fast Format, Dualcom 96, PortAlarm2001 or asimilar structured protocol then the data in that protocol’s Channels indicates the Type of Event.Refer to the table below.

C Channel Number or Status Channel. A single ASCII character. The character = 0-9 or A-G.


Channel Number = 1 to 9 ASCII 1 to 9Channel Number = 10 ASCII 0Channel Number = 11 to 16 ASCII A to FStatus Channel = 17 ASCII G


D Zone Number. A single ASCII character. The character = 0-9 or A-F.

Zone Number = 0 to 9 ASCII 0 to 9Zone Number = 10 to 15 ASCII A to F



70

71

APPENDIX 3

Radionics Extended Protocol (continued)





0000 T 8 0 <14><06>


0000 Account Number. 4 ASCII characters. Each character = 0 = 30 hex.



0 Zone Number. A single ASCII character = 0 = 30 hex.



APPENDIX 3

Radionics-IE Protocol


The protocol data format is represented by ASCII characters and control codes as shown. The baud rate, the useof parity and the number of stop bit is not defined but needs to be compatible at each end of the link.


N RR L <SP> AAAAAA B C D <14><06>


N Protocol Number. One ASCII character. The character = 1-9.This will be the L.S.Digit of the 2 digit number used in Quasar.

RR Receiver Number. Two ASCII characters. Each character = 0-9.“00” will be used where no Receiver Number is assigned.

L Line Number. One ASCII character. The character = 1-4.“0” will be used where no Line Number is assigned.

<SP> A Space character. A single byte = 20 hex.

AAAAAA Account Number. 4, 5 or 6 ASCII characters. Each character = 0-9 or A-F.For values less than 1000 leading zeroes will be inserted to make a minimum of 4 characters

B Event Type. One ASCII character. The character will be one of the following capital letters:A = AlarmR = RestoreO = OpenC = CloseT = Test action

When the Network Transmission Protocol is DTMF Fast Format, Dualcom 96, PortAlarm2001or asimilar structured protocol then the data in that protocol’s Channels indicates the Type of Event.Refer to the table below.

C Channel Number or Status Channel. A single ASCII character. The character = 0-9 or A-G.


Channel Number = 1 to 9 ASCII 1 to 9Channel Number = 10 ASCII 0Channel Number = 11 to 16 ASCII A to FStatus Channel = 17 ASCII G


72

APPENDIX 3

Radionics I E Protocol (continued)

D Zone Number. A single ASCII character. The character = 0-9 or A-F.

Zone Number = 0 to 9 ASCII 0 to 9Zone Number = 10 to 15 ASCII A to F







N RR 0 <SP> AAAAAA T 8 0 <14><06>


N Protocol Number. One ASCII character. The character = 1-9.This will be the L.S.Digit of the 2 digit number used in Quasar.


0 Line number. One ASCII character = 0 = 30 hex.


AAAAAA Account Number. 4, 5 or 6 ASCII characters. Each character = 0-9.For values less than 1000 leading zeroes will be inserted to make a minimum of 4 characters.



0 Zone Number. A single ASCII character = 0 = 30 hex.



73

APPENDIX 3

Contact-ID 1 Protocol




N RR L <SP> 18 AAAAAA Q EEE GG CCC <14><06>


N Protocol Number. One ASCII character. The character = 1-9. Normally set to 5.This will be the L.S.Digit of the 2 digit number used in Quasar.




18 Message Type = Contact-ID. Two ASCII characters = 18 = 31 hex, 38 hex.


Q Qualifier. One ASCII character. The character will be one of the following capital letters:E = New event or openingR = New restore or closingP = Previous event

EEE Event Code. Three ASCII characters. Each character = 0-9 or A-F.

GG Group Number. Two ASCII characters. Each character = 0-9 or A-F.Leading 0’s will be used. “00” will be used where no group number is assigned

CCC Zone or User Number. Three ASCII characters. Each character = 0-9 or A-F.Leading 0’s will be used. ”000” will be used where no Zone Number is assigned.



74

75

APPENDIX 3

Contact-ID 1 Protocol (continued)





N RR 0 <SP> 18 AAAAAA E 602 00 000 <14><06>


N Protocol Number. 1 character, range 1 - 9. Normally set to 5.This will be the L.S.Digit of the 2 digit number used in Quasar.

RR Receiver number. 2 characters, range 00 – 99, “00” will be used where no line number isassigned

0 Line Number. A single ASCII character = 0 = 30 hex.




E Qualifier. One ASCII character = E = 45 hex.

602 Event Code. Three ASCII characters = 602 = 36 hex, 30 hex, 32 hex.

00 Group Number. Two ASCII characters = 00 = 30 hex, 30 hex.

000 Zone or User Number. Three ASCII characters = 000 = 30 hex, 30 hex, 30 hex.



APPENDIX 3

Contact-ID 2 Protocol




<LF> R L <SP> AAAA <SP> 18 <SP> Q EEE <SP> GG <SP> I CCC <SP> <CR><06>


<LF> A Line Feed character. A single byte = 0A hex.

R Receiver Number. One ASCII character. The character = 0-9.“0” will be used where no Receiver Number is assigned.This will be the L.S.Digit of the 2 digit number used in Quasar.



AAAA Account Number. 4 ASCII characters. Each character = 0-9 or A-F.For values less than 1000 leading zeroes will be inserted to make a minimum of 4 characters.




GG Group Number. Two ASCII characters. Each character = 0-9 or A-F.Leading 0’s will be used. “00” will be used where no Group Number is assigned .

I Contact Type. Zone = Z = 5A hex, or User = U = 55 hex.

The Contact Type is derived within the Quasar and is Event Code dependent.Contact Type = 'Z' unless the Event Code is one of the following, in which case it will be 'U'.

"121" "313" "400" "401" "402" "403" "404" "405" "406" "407" "408" "409" "441""442" "450" "451" "452" "453" "454" "455" "456" "457" "458" "459" "462" "463""464" "466" "411" "412" "413" "414" "415" "421" "422" "424" "425" "429" "430""431" "574" "604" "607" "625" "642"


<CR> A Carriage Return character. A single byte = 0D hex.


76

77

APPENDIX 3

Contact-ID 2 Protocol (continued)





<LF> R 0 <SP> AAAA <SP> 18 <SP> E 602 <SP> 00 <SP> Z 000 <SP> <CR><06>




0 Line Number. A single ASCII character = 0 = 30 hex.




E Qualifier. One ASCII character = E = 45 hex.

602 Event Code. Three ASCII characters = 602 = 36 hex, 30 hex, 32 hex.

00 Group Number. Two ASCII characters = 00 = 30 hex, 30 hex.

Z Contact Type. One ASCII character = Z = 5A hex.

000 Zone or User Number. Three ASCII characters = 000 = 30 hex, 30 hex, 30 hex.



APPENDIX 3

Ademco 4+2 Protocol




<LF> R L <SP> AAAA <SP> B C <CR><06>








C Channel Number. A single ASCII character. The character = 0-9 or A-F.


Channel Number = 1 to 9 ASCII 1 to 9Channel Number = 10 ASCII 0Channel Number = 11 to 16 ASCII A to F




78

APPENDIX 3

Ademco 4+2 Protocol (continued)





<LF> 00 OKAY @<06>



00 Two ASCII characters = 00 = 30 hex, 30 hex.

OKAY Four ASCII characters = OKAY = 4F hex, 4B hex, 41 hex, 59 hex.

@ An AT character. A single byte = 40 hex.


79

APPENDIX 3

Ademco 4+1 Protocol




<LF> R L <SP> AAAA <SP> B <CR><06>










80

APPENDIX 3

Ademco 4+1 Protocol (continued)





<LF> 00 OKAY @<06>







81

APPENDIX 3

Ademco High Speed Protocol




<LF> R L <SP> AAAA <SP> 1234 <SP> 5678 <SP> S <CR><06>







1234 Channels 1, 2, 3 and 4. Four ASCII characters. Each character may be 0-9.

5678 Channels 5, 6, 7 and 8. Four ASCII characters. Each character may be 0-9.

S Status Channel. One ASCII character. The character may be 0-9 or A-F.



82

APPENDIX 3

Ademco High Speed Protocol (continued)





<LF> 00 OKAY @<06>







83

84

APPENDIX 4

Input Data Format Descriptions

Fast Format (Dualcom-96)

This protocol may be selected as the received Data Format on any of the 4 Quasar input channels. Refer to theCSL protocol document for full information about this protocol.


The Quasar receives the following string. Spaces shown in the sequences below are for printing clarity and do notform part of the message.

HS1 <CR> from Quasar<01> AAAAAA 12345678 T <CR> to Quasar, 8 channel format<06> <CR> from Quasar

ORHS1 <CR> from Quasar<01> AAAAAA 12345678 9ABCDEFG T <CR> to Quasar, 16 channel format<06> <CR> from Quasar


HS1 Handshake. Three ASCII characters = HS1 = 48 hex, 53 hex, 31 hex.


<01> A Start of Header character. A single byte = 01 hex.


12345678 Channels 1, 2, 3, 4, 5, 6, 7 and 8. Eight ASCII characters. Each character may be 1-6.Channel 1 = Fire (Smoke Alarm)Channel 2 = TamperChannel 3 = Intruder AlarmChannel 4 = Panel status - SET / UNSETChannel 5 to 8 = spare, undefined.

1 = New alarm event2 = Opening event3 = New alarm restoral4 = Closing event5 = No event, input is in the quiescent state. Alarm channel = no alarm, Open/close channel = Closed6 = No event, input is in the active state. Alarm channel = Alarm, Open/close channel = Open

9ABCDEFG Channels 9, 10, 11, 12, 13, 14, 15 and 16. Eight ASCII characters. Each character may be 1-6.Channel 9 to 16 = spare, undefined.As described for channels 1-8 above.

T Test Channel. One ASCII character. The character will be one of the following numbers:7 = Quiescent state8 = Low battery9 = Test transmission and Lo Battery restore

<06> Acknowledge character. A single byte = 06 hex.

APPENDIX 4


PortAlarm 2001




HS1 <CR> from Quasar<01> AAAAAA 12345678 9ABCDEFG Z <CR> to Quasar<06> <CR> from Quasar





AAAAAA Account Number. Six ASCII characters. Each character = 0-9 or A-F.Leading zeroes will be inserted to make a total of 6 characters.

12345678 Channels 1, 2, 3, 4, 5, 6, 7 and 8. Eight ASCII characters. Each character may be 1-6.Channel 1 = Fire (Smoke Alarm)Channel 2 = TamperChannel 3 = Intruder AlarmChannel 4 = Panel status - SET / UNSETChannel 5 = Mains FailChannel 6 = TestChannel 7 = Battery LowChannel 8 = Battery Fail

1 = Alarm event2 = UNSET event (Standby)3 = Restore event4 = SET event (Armed)5 = restore condition (normal)6 = alarm condition

9ABCDEFG Channels 9, 10, 11, 12, 13, 14, 15 and 16. Eight ASCII characters. Each character may be 1-6.Channel 9 = PAChannel 10 = SupervisoryChannel 11 = JammingChannel 12 to 16 = spare, undefinedAs described for channels 1-8 above.

Z Zone Channel. One ASCII character. The character = 0-9 or A-F.0 = Panel1 = Zone 12 = Zone 2etc. Up to a maximum of 15 zones, (F hex).

<06> Acknowledge character. A single byte = 06 hex.85

APPENDIX 4


Contact-ID




HS1 <CR> from Quasar<01> AAAAAA 18 Q EEE GG CCC S <CR> to Quasar<06> <CR> from Quasar









GG Group Number. Two ASCII characters. Each character = 0-9 or A-F.Leading 0’s will be used. “00” will be used where no group number is assigned


S Checksum. Modulo 15. One ASCII character. The character = 0-9 or A-F.

<06> Acknowledge character. A single byte = 06 hex.

86

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APPENDIX 4


SMS

The Fast Format and the Contact-ID alarm reporting protocols can be received by Quasar from any GSM radionetwork when encoded as ‘data’ or as SMS Text. The Fast Format alarm reporting protocol is also known asDualcom-96. These alarm reporting protocols are described on the preceding pages.

When SMS Text is received,1. A GSM Radio modem must be connected to a Quasar input channel.2. The Input Type for that channel must be selected to SMS.3. The SMS Text must conform to the following standard.

In an SMS Text message, Fast Format and the Contact-ID alarm reporting messages can be embedded withintext.

In an SMS Text message, Fast Format and the Contact-ID alarm reporting messages must be preceeded bya non-ASCII-hex character ie <SP>.

In an SMS Text message, there is no limit to the number of alarm reporting messages or the amount of text.

As the Quasar receives each character in the SMS Text message, each non-ASCII-hex character is ignored.Each ASCII-hex character is shifted into a buffer. The Buffer is checked after each received character and if allchecks are ok then the data is actioned.

sretcarahcforebmuNreffuBni noitcA

51ot31 egassemtamroFtsaFlennahc8narofkcehC

81ot61 egassemDI-tcatnoCarofkcehC

32ot12 egassemtamroFtsaFlennahc61arofkcehC

Example of a 16 channel Fast Format alarm & a follow-on message that is embedded in SMS Text:

"Here comes an alarm on channel 1 123456155555557 oh no! the channel seemsto have restored 123456355555557"

APPENDIX 5

Data Format and Output Protocol Associations

Each of Quasar’s 4 channels receives alarm messages from the one network to which it is connected.

The networks are:

devieceRtamroFataD locotorPtuptuO

69moclauD/tamroFtsaF

dradnatS-scinoidaRdecnetxE-scinoidaR

EI-scinoidaR1+4ocmedA2+4ocmedA

deepShgiHocmedA)retrevnocaiv(1DI-tcatnoC

1002mralAtroP

dradnatS-scinoidaRdecnetxE-scinoidaR

EI-scinoidaR1+4ocmedA2+4ocmedA

deepShgiHocmedA)retrevnocaiv(1DI-tcatnoC

DItcatnoC 1DI-tcatnoC2DI-tcatnoC

Each of Quasar’s 4 channels can receive alarm messages in one Data Format, and can output that messageto an Alarm Management System (AMS) using one Output Protocol.

There are several Output Protocols available depending upon the received Data Format. Not all Output Protocolsare available for every received Data Format.

The received Data Formats and Output Protocols are:

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krowteNsnoitacinummoC tnempiuqEgnitanimreTkrowteN rasauQepyTtupnI

enohpeleTNTSPeugolanAehTkrowteN tiKmedoMNTSPeugolanA8602D NTSP

krowteNoidaRMSGA tiKmedoMMSG6102D MSG

ataDtekcaPenofadoVehT)tenkaP(krowteN tiKDAP-oidaRNDV6101SC NDV

NDSIlatigiDehTkrowteNenohpeleT retpadAlanimreTNDSIlatigiD7602D NDSI

krowteNoidaRMSGA tiKmedoMMSG6102D SMS

Channel 2 informationNetwork Termination Equipment PSTN Modem

ISDN Terminal adaptor(tick one) GSM Radio Module

VDN Radio-PAD Type of

Network Termination Equipment(model name / number)

Network connection number (telephone number of PSTN / ISDN line)

(data telephone no. of GSM SIM Card)(ESN number of VDN Radio-PAD)(NUA number of VDN Radio-PAD)

VDN or GSM Radio Signal strength

Serial number of GSM SIM Card

Initialisation string

APPENDIX 6

Quasar Setup Parameters Form

It is recommended that this Manual with the completed Setup Parameters Form is kept with theQuasar and that a copy of this Setup Parameters Form is kept with your documentation that relatesto this installation.

Quasar information

Quasar Receiver Serial Number

Software version number (see page 41)










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APPENDIX 6 (continued)



















Installation Notes

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Channel 1 DC Power Jumper LinkDC 12 volt position

_+

APPENDIX 7

Using other ModemsOther modems than those supplied with the Quasar may be used. The installer must ensure suitability of themodem selected.

Some modems must be used with their own power supply because they can not use the DC 6, 9 or 12 voltsupply inside the Quasar. In these cases, the Quasar must still be able to switch the modem off and on. Usea small 12 volt relay connected as shown.

This example shows a modem connected to the Quasar Channel 1 input.

Quasar Channel Connectors

Channel 1 DC power

12 voltRelay

Serial Data Cable

Modem Power supply

Modem

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APPENDIX 8

Specification

Model D2066 Quasar ReceiverDimensions (h x w x d) 135 x 432 x 370 mmWeight 12Kg (including battery)Power Requirement 12.0 - 15.0 volts DC, 0.1volt max rippleCurrent Consumption 230mA min quiescent, 1 Amp max. Discharged battery = 2 Amp max.Battery 13.8 volt 7 amp/hour lead-acid gelLow Battery 10.8-11.0 volts falling, 11.8-12.0v recoveryInputs 4 serial inputs for modems etc.Outputs 4 changeover relays (24v 1A contacts)

Serial and Parallel printersSerial for Alarm Management System

Alarm Protocols Dualcom96 and Portalarm2001Output Protocol Radionics 6500Display 4 line 80 character back-lit LCDMonitoring DC voltage, current and temperature

Input, printer and output data connections

Temperature -20C to +60C transit, -4C to +40C operatingHumidity 0 - 80% non-condensingMounting Any orientationWarranty 2 years

European Approval

The D2066 meets the requirements of the European Directives governing EMC and safety for electronic equip-ment operating on SELV voltages.

The equipment carries the CE mark.

Other equipment that may be used with the Quasar is not included as part of the Quasar approval.

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APPENDIX 9Glossary of Terms

ADSL Asynchronous Digital Subscriber LineA ‘wideband’ digital communication service from a network provider to a subscriber that carries a highvolume of digital data, most commonly for internet access. Sometimes called ‘Broadband’. An ADSLservice is often provided with a simultaneous analogue PSTN service on a Hybrid line.

AMS Alarms Management SystemEquipment (normally a Server & terminals) and documentation system to display received transmissions tooperators (normally alarm information) for despatching to other services, e.g. fire, police, to record thosereceived transmissions and to store details of the actions taken by the operators. The equipment anddocumentation system is normally contained within an ‘ARC’.

Analogue PSTN Analogue Public Switched Telephone Network.The analogue national telephone system. Often just called the PSTN. Service is available to customers ontwisted-pair wires that carries a DC supply provided from the network telephone exchange.

ARC Alarm Receiving CentreSee ARS

ARS Alarm Receiving StationA 24 hour manned centre (often privately owned & operated) capable of receiving & logging calls of alarmand forwarding them to security authorities and other relevant services. Often called a Central Station.

BroadbandSee ADSL

Digital PSTN Digital Public Switched Telephone Network.The digital national telephone system. Service is available to customers on twisted-pair wires that carries aDC supply provided from the network telephone exchange, on optical fibre or other digital transmissionmedium. The digital service may be in ISDN format or another digital format.

DTMF Dual Tone Multi FrequencyThe series of tones used by telephones to send dialling information to an analogue PSTN exchange. Thesetones are also used by the DTMF Fast Format Alarms Reporting Protocol.

DTMF Fast Format Alarms Reporting ProtocolA protocol that is a sequence of analogue tones (push-button telephone tones) used to send via telephonelines a transmission to receiving equipment at an ARC, and to receive checking and acknowledgementreplies from that receiving equipment. 8 or 16 channel DTMF Fast Format protocol is commonly used inburglar or intrusion alarm equipment.

Dualcom96 Alarms Reporting ProtocolA digital protocol that is a sequence of ASCII characters used to send via telephone, radio or other datanetwork a transmission to receiving equipment at an ARC, and to receive checking and acknowledgementreplies from that receiving equipment. 8 or 16 channel Dualcom96 protocol is commonly used in burglar orintrusion alarm equipment.

GSM Global System for Mobile Communications.Digital telephone service particularly (but not exclusively) for users that may be mobile for carrying digitaldata, speech or fax, where the path from the user is by a radio link to one (or more) fixed sites.

Hybrid LineA line that carries digital data and analogue signals simultaneously. Most commonly this is an ADSL digitalservice and an analogue telephone service on one line from a Service Provider to a subscriber.

ISDN Integrated Services Digital NetworkA digital communication network where services are provided via electrical or optical cables. This may alsobe a digital PSTN. The network is usually provided as a 2 channel or 30 channel ISDN service.

93

APPENDIX 9Glossary of Terms (continued)

ISDN 2 2 Channel ISDNAn ISDN communication service where two simultaneous channels may be used. Each channel is normallya 64 KiloBit/sec serial data path. Each path may typically carry one speech telephone call, or an internetconnection or a fax call.

ISDN 30 30 Channel ISDNAn ISDN communication service where thirty simultaneous channels may be used. Each channel is nor-mally a 64 KiloBit/sec serial data path. Each path may typically carry one speech telephone call, or aninternet connection or a fax call.

NTP Network Termination PointA telephone line is terminated at the users premises by a Network Termination Point which is provided by theTelecomms Service Provider. This is a socket or connection where the users equipment can be connected.

NVM Non Volatile Memory.An integrated circuit memory device that does not need any power to remember data.

PABX Private Automatic Branch ExchangeA small telephone exchange for use within one building or group of buildings. Commonly used in busi-nesses where each phone in that business is an extention on that PABX. Ususlly connects to one or moreanalogue PSTN or ISDN telephone lines.

PAKNET Packet data Network.See VDN

PortAlarm 2001A digital protocol that is a sequence of ASCII characters used to send via telephone, radio or other datanetworks a transmission to receiving equipment at an ARC, and to receive checking and acknowledgementreplies from that receiving equipment. 16 channel PortAlarm2001 protocol is used in burglar or intrusionalarm equipment.

PSTN Public Switched Telephone Network.A national telephone system. This may be analogue and/or digital. See Analog PSTN.

Radionics 6500A digital protocol that is a sequence of ASCII characters used to send data via a serial lead betweenequipment (typically a Quasar receiver and an AMS PC or server). The protocol is structured specifically tocarry alarm data and equipment identity.

SIM Card Subcriber Identification Module CardA card or chip that contains data for use by a unit that communicates via the GSM network, e.g. a portabletelephone. The data contained identifies the subscriber to that network allowing billing and other userrelated services to be associated with an indivudual or company.

Terminal AdapterA Device that connects to the S-bus connection of an ISDN Network Termination Point and adapts thedigital S-bus data, i.e.protocol, data speed, structure, to that required. In this document it describes adevice that provides a serial port for cable connection to a PC serial ‘COM’ port.

VDN Vodafone Data Network (Paknet)An X25 communication system operated by Vodafone in UK for users that are not mobile, for carrying digitaldata (not speech) where the path from the user is by a radio link to one (or more) fixed sites.

WEB SITE The Dycon Internet Web SiteThe Dycon web site: www.dyconsecurity.com contains the latest copies of all manuals for all Dyconproducts. Please ensure that you are working from the latest version. You can also download associatedinformation and software samplers. Dycon sales, shipping and contact information is here too.

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