Technical/Programming Manual
FT1020G3
Rev 2.2.1
For Software V2.2.x
FT1020G3 CIE
M435 February 2016
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Technical Manual
FT1020G3 Rev 2.2.1
Table of contents
1 Introduction _____________________________________________________________ 9
1.1 General introduction ................................................................................................. 9
1.2 Definitions / Explanations ......................................................................................... 9
2 Overview ______________________________________________________________ 10
2.1 The FT1020G3 system ........................................................................................... 10
2.1.1 Printer .............................................................................................................. 10
2.1.2 Expansion boards............................................................................................. 10
2.1.3 Power supply.................................................................................................... 10
2.2 Software (S/W) versions ......................................................................................... 10
2.3 Documents ............................................................................................................. 12
2.4 Applications............................................................................................................ 12
2.5 PC software (S/W).................................................................................................. 12
2.5.1 EBLWin ............................................................................................................ 12
2.5.2 TLON Manager ................................................................................................ 13
3 TLON Network __________________________________________________________ 14
3.1 FT1020G3 TLON network ...................................................................................... 14
3.2 Redundant TLON Network ..................................................................................... 14
3.3 Routers .................................................................................................................. 14
3.4 Network connections .............................................................................................. 15
3.4.1 Twisted pair TLON network .............................................................................. 15
3.4.2 Fibre optic TLON network ................................................................................. 15
3.4.3 TCP/IP TLON network ...................................................................................... 16
4 Control & Indicating Equipment ___________________________________________ 17
4.1 FT1020G3 Specifications ....................................................................................... 17
4.2 FT1020G3 CIE Layout............................................................................................ 19
4.2.1 Mounting plates ................................................................................................ 21
4.2.2 Mounting plate for 19" mounting rack ................................................................ 21
4.3 COM loops ............................................................................................................. 22
4.4 Programmable voltage outputs (S0-S3) ................................ ................................ .. 22
4.5 Programmable relay outputs (R0-R1) ..................................................................... 22
4.6 Programmable inputs (I0-I3) ................................................................................... 23
4.7 Relay outputs for routing equipment (TX)................................................................ 23
4.7.1 Fire alarm output .............................................................................................. 23
4.7.2 Fault condition output ....................................................................................... 23
5 Expansion boards 458x __________________________________________________ 24
5.1 8 zones expansion board 4580 ............................................................................... 25
5.1.1 Type of zone line input ..................................................................................... 25
5.1.1.1 Zone line input (EOL capacitor) ................................ .................................... 26
5.1.1.2 EX zone line input (EOL resistor) .................................................................. 26
5.1.1.3 Zone line input (EOL resistor) ....................................................................... 26
5.1.2 Input states ...................................................................................................... 27
5.1.2.1 Normal state ................................................................................................. 27
5.1.2.2 High current state ......................................................................................... 27
5.1.2.3 Alarm state ................................................................................................... 27
5.1.2.4 Short-circuit state ......................................................................................... 27
5.1.2.5 Open circuit state ......................................................................................... 27
5.1.2.6 Disconnected state ....................................................................................... 27
5.2 8 relays expansion board 4581 ............................................................................... 27
5.3 Inputs and outputs expansion board 4583 .............................................................. 28
5.4 I/O Matrix board 4582 ............................................................................................. 29
5.4.1 I/O Matrix jumper link setting ............................................................................ 29
6 Optional Modules _______________________________________________________ 31
6.1 AS1668 Fan control ................................................................................................ 31
6.1.1 Mode Control.................................................................................................... 31
6.1.2 Fan Status ........................................................................................................ 31
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6.1.3 Configuration and Programming ....................................................................... 32
6.1.4 Fan Reset ........................................................................................................ 34
6.1.5 Fan Front Display ............................................................................................. 35
6.1.6 Supply Air Fan .................................................................................................. 35
6.1.7 Smoke Exhaust Fan ................................ ......................................................... 36
6.2 Zone control ................................ ........................................................................... 37
6.2.1 Controls & Indications ....................................................................................... 37
6.2.2 Zone Control Configuration ............................................................................... 38
6.3 Generic Applications .............................................................................................. 39
6.3.1 Overview .......................................................................................................... 39
6.3.2 New mimic options ........................................................................................... 39
6.3.3 Configuration and programming........................................................................ 40
6.4 Occupant Warning System (OWS) ......................................................................... 41
6.4.1 Overview .......................................................................................................... 41
6.4.2 Audio Amplifiers ............................................................................................... 42
6.4.2.1 60/120 Watt Amplifier Module ....................................................................... 42
6.4.2.2 250 Watt Amplifier Module............................................................................ 44
6.4.3 OWS Volume Adjustment ................................................................................. 45
6.4.4 Auxiliary Audio inputs ....................................................................................... 45
6.4.5 OWS Dual Strobe Output ................................................................................. 45
6.5 Gaseous extinguishing system control module ....................................................... 46
6.5.1 Overview .......................................................................................................... 46
6.5.2 Display board (SUB929) & decal ...................................................................... 46
6.5.3 Control board (SUB928) ................................................................................... 48
6.5.4 CIE interface board (SUB943) .......................................................................... 48
6.5.4.1 Inputs from FT1020G3 to CIE interface board (SUB943) .............................. 48
6.5.4.2 Outputs from CIE interface board (SUB943) to FT1020G3 ............................ 48
7 Printer 49
8 TLON connection board 5090 _____________________________________________ 50
8.1 Single TLON Network (not recommended) ............................................................. 50
8.2 Redundant TLON network ...................................................................................... 50
8.3 Network programming ............................................................................................ 50
9 Peripheral devices ______________________________________________________ 51
9.1 COM loop units ...................................................................................................... 51
9.1.1 Input units ........................................................................................................ 53
9.1.1.1 Analogue Sensor Bases (ASB) ..................................................................... 54
9.1.1.2 Addressable Manual Call Points ................................................................... 54
9.1.1.3 Analogue Detectors ...................................................................................... 55
9.1.1.4 Conventional Detector Bases (CDB) ............................................................. 59
9.1.1.5 Conventional Detectors ................................................................................ 59
9.1.1.6 Accessories.................................................................................................. 60
9.1.2 Addressable I/O units ....................................................................................... 61
9.1.3 Alarm devices (addressable sounders) ............................................................. 62
9.1.4 Short circuit isolators (addressable) .................................................................. 64
9.1.5 Built-in Isolators ................................................................................................ 65
9.1.6 Units for Hazardous (Ex) areas ......................................................................... 65
9.1.6.1 Galvanic isolators / IS barrier units ............................................................... 65
9.1.6.2 Intrinsically Safe mounting bases.................................................................. 65
9.1.6.3 Intrinsically Safe photoelectric smoke detectors ............................................ 66
9.1.6.4 Intrinsically Safe heat detectors .................................................................... 66
9.1.7 Intrinsically Safe Manual Call Points ................................................................. 66
9.1.8 Other COM loop units ....................................................................................... 66
9.2 Units connected to the RS485 interface .................................................................. 68
9.2.1 Alert Annunciation Units ................................................................................... 68
9.2.2 External Presentation Units .............................................................................. 69
9.3 Units connected to the RS232 interface J7 ............................................................. 70
9.3.1 Web-servers ..................................................................................................... 70
9.4 Other units ............................................................................................................. 70
9.4.1 External LEDs .................................................................................................. 70
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9.4.2 Alarm Devices (sounders, etc.) ......................................................................... 71
9.4.3 Magnetic Door Holders ................................ ..................................................... 71
9.4.4 Duct Detector Chambers .................................................................................. 71
10 Programmable inputs ____________________________________________________ 72
10.1 Control Unit Inputs I0-I3 .......................................................................................... 73
10.2 Inputs 0-4 on expansion board 4583 ....................................................................... 73
10.2.1 Not supervised ................................................................................................. 73
10.2.2 Supervised ....................................................................................................... 73
10.3 The 3361 unit Inputs In0 / Z & In1 ........................................................................... 73
10.3.1 Input In0 ........................................................................................................... 74
10.3.2 Input In1 ........................................................................................................... 74
11 Input programming ______________________________________________________ 75
11.1 Trigger conditions ................................................................................................... 75
11.2 Logic ................................................................................................ ...................... 78
11.2.1 Non-Supervised (Default) ................................................................................. 78
11.2.2 Supervised ....................................................................................................... 78
12 Programmable outputs __________________________________________________ 79
12.1 Control Unit outputs S0 – S3 .................................................................................. 80
12.2 Control Unit outputs R0 & R1.................................................................................. 81
12.3 8 relays expansion board 4581 Output 0 – Output 7 ............................................... 81
12.4 Inputs and Outputs expansion board 4583 Output 0 - 1 .......................................... 81
12.5 The 3361 unit's Outputs Re0 & Re1 ........................................................................ 81
12.6 The 3364 unit's VO0 – VO2 .................................................................................... 81
12.7 The 4477 unit's Output (siren) ................................................................................ 82
12.8 The 3379 unit's Output (sounder) ........................................................................... 82
12.9 The 4380 unit's Output (beacon) ............................................................................. 82
12.10 The 4383 unit's Output (light indicator).................................................................... 82
13 Output programming ____________________________________________________ 83
13.1 Type of output ................................................................................................ ........ 83
13.2 Logic ................................................................................................ ...................... 83
13.3 Supervised / Non-supervised .................................................................................. 84
13.4 Output signal period ............................................................................................... 84
13.5 Control expression ................................................................................................. 86
13.5.1 Trigger conditions ............................................................................................. 86
13.5.1.1 Alarm ....................................................................................................... 87
13.5.1.2 Interlocking ............................................................................................... 87
13.5.1.3 Disablement ............................................................................................. 88
13.5.1.4 Other ........................................................................................................ 88
13.5.1.5 Comments to the trigger conditions (functions): ........................................ 88
13.5.2 Logical operators .............................................................................................. 92
13.5.3 Control expression examples ............................................................................ 92
13.5.3.1 AND ......................................................................................................... 92
13.5.3.2 OR ........................................................................................................... 92
13.5.3.3 NOT ......................................................................................................... 92
13.5.3.4 Parentheses ............................................................................................. 93
13.5.3.5 Control expressions .................................................................................. 93
14 Short circuit isolators____________________________________________________ 94
15 Interlocking function ____________________________________________________ 96
15.1 Programming of interlocking function ...................................................................... 96
15.1.1 Interlocking output ............................................................................................ 97
15.1.2 Interlocking input .............................................................................................. 97
15.1.3 Interlocking combination ................................................................................... 97
15.2 Interlocking indications ........................................................................................... 99
15.3 Interlocking outputs and inputs (H9) ....................................................................... 99
15.3.1 Activated interlocking outputs / inputs (H9/C1) .................................................. 99
15.3.2 Activate / deactivate interlocking output (H9/C2) ............................................. 100
15.3.3 Disable / re-enable interlocking output (H9/C3) ............................................... 100
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15.4 Interlocking control expressions ............................................................................ 100
16 Fire Door Closing (MDH) ________________________________________________ 101
17 Functions / Services / Features ___________________________________________ 102
17.1 Sensor value ........................................................................................................ 102
17.2 Week average sensor value ................................................................................. 102
17.3 Decision value ...................................................................................................... 103
17.4 Alarm algorithms for smoke detectors / Detection levels / Offsets ......................... 103
17.4.1 Alarm algorithm / Alternative alarm algorithm ................................ .................. 103
17.4.2 Filtering algorithm ........................................................................................... 104
17.4.3 Smouldering smoke algorithm ........................................................................ 106
17.4.4 Performance factor ......................................................................................... 107
17.5 Algorithms for Analogue heat detectors ................................................................ 107
17.5.1 Class A1 algorithm ......................................................................................... 108
17.5.2 Class A2 S algorithm ...................................................................................... 108
17.5.3 Class B S algorithm ........................................................................................ 108
17.6 Self verification ..................................................................................................... 109
17.7 Minimum / Maximum sensor values ...................................................................... 109
17.8 2-zone / 2-address dependence (Co-incidence alarm) ................................ .......... 110
17.8.1 2-zone dependence ........................................................................................ 111
17.8.2 2-address (-unit) dependence ......................................................................... 111
17.8.3 Reset of 2-zone / 2-address dependence (co-incidence alarm) ....................... 112
17.9 Delayed alarm ...................................................................................................... 112
17.9.1 General time delay application ........................................................................ 112
17.9.2 Specific time delay application ........................................................................ 113
17.10 Selective Alarm Presentation ................................................................................ 113
17.11 Alarm Verification Facility (AVF) ........................................................................... 113
17.12 Alert Annunciation ................................................................................................ 114
17.13 Alert Annunciation Applications ............................................................................ 115
17.13.1 Alarm Acknowledgement Facility (AAF) .......................................................... 115
17.13.2 Local Alarm Acknowledgement (LAA) ............................................................. 117
17.14 Quiet alarm .......................................................................................................... 118
17.15 Fire alarm type A and Fire alarm type B ................................................................ 118
17.15.1 Fire alarm type B ............................................................................................ 119
17.15.2 Fire alarm type A ............................................................................................ 119
17.16 Disable zones, alarm points, outputs, etc. ............................................................. 119
17.16.1 Disable / Re-enable zone ............................................................................... 120
17.16.2 Disable / Re-enable zone - address ................................................................ 120
17.16.3 Disable / Re-enable output type ...................................................................... 120
17.16.4 Disable / Re-enable alarm devices.................................................................. 120
17.16.5 Disable / Re-enable interlocking output ........................................................... 120
17.16.6 Disable / Re-enable outputs for routing equipment .......................................... 120
17.16.7 Disable / Re-enable alert annunciation function .............................................. 120
17.16.8 Disconnect & Re-connect loop / zone line input .............................................. 120
17.17 External time channels ......................................................................................... 121
17.18 Test mode ............................................................................................................ 121
17.19 Test alarm devices ............................................................................................... 121
17.20 Test of outputs ..................................................................................................... 122
17.21 Test of routing equipment ..................................................................................... 122
17.22 Calibration of supervised outputs .......................................................................... 122
17.23 Service signal ....................................................................................................... 122
17.24 Fault signal (fault condition) .................................................................................. 123
17.25 Alarm texts ........................................................................................................... 123
17.25.1 Creating the alarm texts via EBLWin ............................................................... 123
17.25.2 Downloading alarm texts to the Display Units 1728 / 1736 .............................. 125
17.26 Real time clock (RTC) .......................................................................................... 126
17.26.1 Daylight saving time ....................................................................................... 126
17.27 Loss of main power source ................................................................ ................... 126
17.27.1 Fault: Loss of main power source ................................................................... 126
17.27.2 LCD backlight ................................................................................................. 126
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17.28 Zone Groups ........................................................................................................ 126
18 Special New Zealand functions ___________________________________________ 127
18.1 Alarm devices ...................................................................................................... 127
18.1.1 Silence Alarms (inside switch) ........................................................................ 127
18.1.2 New Zealand FB Bulgin Silence switch (outside switch) .................................. 127
18.1.2.1 Isolated alarm ......................................................................................... 128
18.2 Battery faults ........................................................................................................ 129
18.2.1 FAULT: Battery .............................................................................................. 129
18.2.2 FAULT: Low battery capacity (Auto battery test) ............................................. 129
18.3 Routing equipment isolate (disable) ...................................................................... 129
18.4 Acknowledged alarm ............................................................................................ 129
19 Advanced mode _______________________________________________________ 131
19.1 Pulse up – down counter ...................................................................................... 132
19.1.1 Pulse up – down counter for smoke ................................................................ 132
19.1.2 Pulse up – down counter for temperature ....................................................... 132
19.1.3 Pulse up – down counter for smoke & temperature ......................................... 133
19.2 Fire judgement ..................................................................................................... 133
19.3 Alarm threshold levels .......................................................................................... 133
19.4 Alarm Delay Time ................................................................................................. 133
19.5 Learning function / Learning conditions ................................................................. 135
19.5.1 Area Alarm algorithms .................................................................................... 135
19.5.1.1 Smoke - Steam area, level 1 ................................................................... 135
19.5.1.2 Heating area, level 2 ............................................................................... 136
19.5.1.3 Cooking – Welding Area, level 3 ............................................................. 136
19.5.1.4 Clean Area, level 1, 2 & 3 ....................................................................... 136
19.5.1.5 Learning function summary ..................................................................... 136
19.6 Analogue data output ........................................................................................... 136
19.7 Sensitivity compensation ...................................................................................... 136
19.8 Self-diagnosis of internal devices.......................................................................... 137
19.9 Address setting check .......................................................................................... 137
19.10 Polling LED ................................ ................................................................ .......... 137
20 Control Unit Properties _________________________________________________ 138
20.1 Control Unit properties dialog box ......................................................................... 138
20.1.1 General Information ........................................................................................ 138
20.1.2 Peripherals ..................................................................................................... 138
20.1.3 Misc. .............................................................................................................. 138
20.2 EBLWin Control Unit pop-up menu ....................................................................... 139
20.2.1 Reset alarm counter ................................ ....................................................... 139
20.2.2 Software version............................................................................................. 139
20.2.3 Upgrade number of alarm points ..................................................................... 139
20.2.4 Show event log ............................................................................................... 140
20.2.5 Restart ................................................................................................ ........... 141
20.2.6 Delete ............................................................................................................ 141
20.2.7 Properties....................................................................................................... 141
20.2.8 Add Web-server ............................................................................................. 141
21 System properties (settings) _____________________________________________ 142
21.1 System properties dialog box................................................................................ 142
21.1.1 Name ............................................................................................................. 142
21.1.2 User definable text ......................................................................................... 142
21.1.3 System properties, Page 1 ............................................................................. 142
21.1.3.1 Alert Annunciation .................................................................................. 142
21.1.3.2 Alarm Acknowledgement Facility ............................................................ 143
21.1.3.3 Disable routing equipment by door switch ............................................... 143
21.1.3.4 Alarm reset method ................................................................................ 143
21.1.3.5 Alarm delay time (seconds) .................................................................... 144
21.1.4 System properties, Page 2 ............................................................................. 144
21.1.4.1 Door closing by time ............................................................................... 145
21.1.4.2 Main power loss fault delay time (minutes) .............................................. 145
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22 EBLWin menus ________________________________________________________ 146
22.1 The file menu ....................................................................................................... 146
22.1.1 New ............................................................................................................... 146
22.1.2 Open .............................................................................................................. 146
22.1.3 Import from Win512 ........................................................................................ 146
22.1.4 Report ............................................................................................................ 146
22.1.5 Save .............................................................................................................. 147
22.1.6 Save As ......................................................................................................... 147
22.1.7 Print labels ..................................................................................................... 147
22.2 The View menu .................................................................................................... 148
22.2.1 Filter Box ........................................................................................................ 148
22.2.2 Tree view ....................................................................................................... 148
22.2.3 Deviations ...................................................................................................... 148
22.2.4 Selected loop ................................................................................................. 149
22.2.5 Alarm points ................................................................................................... 149
22.2.6 Interlocking combinations ............................................................................... 150
22.2.7 External faults ................................................................................................ 150
22.2.8 Technical warnings ......................................................................................... 150
22.2.9 External time channels ................................................................................... 151
22.3 The System menu ................................................................................................ 151
22.3.1 Properties....................................................................................................... 151
22.3.2 Time channels ................................................................................................ 151
22.3.3 Alarm algorithms ............................................................................................ 153
22.3.3.1 Parameters for smoke algorithms ........................................................... 154
22.3.3.2 Parameters for heat algorithms ............................................................... 155
22.3.3.3 Parameters for combined decision algorithm........................................... 155
22.3.4 Output Signal Periods ..................................................................................... 156
22.3.5 National holidays ............................................................................................ 157
22.3.6 Two zone dependence ................................................................................... 158
22.3.7 Zone groups ................................................................................................... 158
22.3.8 System information ......................................................................................... 159
22.3.9 Edit Alarm texts .............................................................................................. 159
22.3.10 User data ....................................................................................................... 159
22.4 The Tools menu ................................................................................................... 160
22.5 Web-server .......................................................................................................... 161
23 Download SSD ________________________________________________________ 162
23.1 COM loop menu ................................................................................................... 163
23.1.1 Check Loop .................................................................................................... 163
23.1.2 Auto generate loop ......................................................................................... 163
23.2 SSD Download ..................................................................................................... 164
23.2.1 SSD Download to Single Control Unit ............................................................. 164
23.2.2 SSD Download to Control Units in a TLON Network ....................................... 164
23.3 User definable text messages download ............................................................... 164
24 Download software (System Firmware) ____________________________________ 165
24.1 Single Control Unit (CIE.) ..................................................................................... 165
24.1.1 Establish communications between PC and CIE for software download .......... 165
24.1.2 Download the Software .................................................................................. 166
24.2 Control Units in a TLON network .......................................................................... 167
25 Cable types ___________________________________________________________ 168
25.1 TLON Network cables .......................................................................................... 168
25.2 COM loop cables .................................................................................................. 168
25.3 Remote Display Units cables ................................................................................ 168
25.4 Conventional zone line cables .............................................................................. 168
25.5 Alarm device cables ............................................................................................. 168
25.6 Other equipment cables ....................................................................................... 169
26 FT1020G3 cable length calculation ________________________________________ 170
26.1 COM loop Cable length ........................................................................................ 170
26.2 Cable Length Calculations for 1728 and 1736 ....................................................... 172
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27 Current consumption ___________________________________________________ 174
28 Power supply _________________________________________________________ 177
28.1 Charger functions ................................................................ ................................. 177
28.1.1 Battery charging ............................................................................................. 177
28.1.2 Battery charging functions: ............................................................................. 178
28.1.3 Battery protection functions ............................................................................ 178
28.2 Current consumption calculations ......................................................................... 178
28.3 Main power source (power supply) ....................................................................... 179
28.4 Standby power source (Batteries) ......................................................................... 179
28.5 Fuses ................................................................................................................... 180
28.6 Current consumption measurement ...................................................................... 180
29 S/W versions __________________________________________________________ 181
30 National regulations ____________________________________________________ 182
30.1 Conventions ......................................................................................................... 182
30.2 Language ............................................................................................................. 182
31 Drawings / Connection Diagrams _________________________________________ 183
32 Revision history _______________________________________________________ 187
32.1 Revision History Table.......................................................................................... 187
32.2 Software Revision V2.2.0 Modifications ................................................................ 187
32.2.1 New common features and additions .............................................................. 187
32.2.2 New or modified features in EBLWin only ....................................................... 188
32.2.3 New or modified feature in system software EBL only ..................................... 188
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Table of Figures
Figure 1 FT1020G3 System Overview ..................................................................................... 11
Figure 2 Redundant fibre optic network for more than 3 control panels .................................... 16
Figure 3 Redundant fibre optic network for up to 3 control panels ............................................ 16
Figure 4 The FT1020G3 Control Unit, with printer .................................................................... 19
Figure 5 FT1020G3 front display ............................................................................................. 20
Figure 6 Expansion boards 4580, 4581 and 4583. ................................................................... 24
Figure 7 I/O Matrix board 4582. ............................................................................................... 24
Figure 8 Expansion board top side differences ........................................................................ 26
Figure 9 I/O Matrix board application overview ........................................................................ 29
Figure 10 I/O Matrix PCB layout .............................................................................................. 29
Figure 11 Supply air time delay setting .................................................................................... 35
Figure 12 Smoke exhaust or spill fan timing ............................................................................ 36
Figure 13 AS1668 Fan Control Example ................................................................................. 37
Figure 14 Zone Control Connection ......................................................................................... 38
Figure 15 Mimic Board Options ............................................................................................... 40
Figure 16 Generic application, NZ Index panel ........................................................................ 41
Figure 17 Occupant Warning Display Module .......................................................................... 41
Figure 18 Class-D 60W / 120W Audio Amplifier Board Layout ................................................. 43
Figure 19 60W / 120W Audio amplifier photos ......................................................................... 43
Figure 20 Class-D 250W Audio Amplifier Board Layout ........................................................... 44
Figure 21 Typical OWS Dual Strobe Control Circuit ................................................................. 45
Figure 22 Gas Extinguishing Display Layout ............................................................................ 47
Figure 23 Assembled Control & Interface Boards .................................................................... 48
Figure 24 EBLWin properties dialog box for 4301 / 4401(Normal Mode) .................................. 54
Figure 25 Decision algorithm ................................................................................................... 57
Figure 26 Connection example of 2A MDH power supply ........................................................ 71
Figure 27 EBLWin "Input" dialog boxes ................................................................................... 72
Figure 28 EBLWin Voltage & Relay Output dialog boxes ......................................................... 79
Figure 29 EBLWin 3379 and 4477 dialog boxes ...................................................................... 80
Figure 30 EBLWin output signal period dialog box. .................................................................. 84
Figure 31 Signal period set up options..................................................................................... 85
Figure 32 EBLWin control expression ...................................................................................... 86
Figure 33 Short circuit isolators example in FT1020G3 ............................................................ 94
Figure 34 Filter function........................................................................................................... 96
Figure 35 EBLWin "Interlocking Combination" dialog box......................................................... 98
Figure 36 Basic working principle for Analogue smoke sensor ............................................... 103
Figure 37 Filtering algorithm example for analogue smoke detector ....................................... 105
Figure 38 Smouldering smoke algorithm example for 4301. ................................................... 106
Figure 39 Sensor log in graphical form .................................................................................. 110
Figure 40 Sensor Log in Tabulated Form............................................................................... 110
Figure 41 Alert Annunciation function flow chart. ................................................................... 114
Figure 42 Alarm Acknowledgement Facility units ................................................................... 115
Figure 43 Alarm Acknowledgement Facility (AAF) flow chart ................................................. 116
Figure 44 Local Alarm Acknowledgement Facility Connection Diagram ................................. 118
Figure 45 The EBLWin "Control Unit properties" dialog box ................................................... 138
Figure 46 EBLWin "System properties" dialog box, Page 1 and 2 .......................................... 142
Figure 47 Time Channel Alarm Points Report ........................................................................ 147
Figure 48 Deviation Tab ........................................................................................................ 149
Figure 49 Selected Loop Tab ................................................................................................ 149
Figure 50 Time channels configuration .................................................................................. 152
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Figure 51 Time Channel Setting ............................................................................................ 152
Figure 52 Editing Time Channel Intervals .............................................................................. 153
Figure 53 Alarm Algorithms Dialog Box ................................................................................. 154
Figure 54 Smoke / heat algorithms example .......................................................................... 154
Figure 55 Example setting for national holidays ..................................................................... 157
Figure 56 COM Loop Current Consumtion vs. Cable Length.................................................. 171
Figure 57 Access to COM loop units current consumption ..................................................... 176
Figure 58 FT1020G3 power supply block diagram ................................................................. 177
Figure 59 EBLWin Settings Dialog Box .................................................................................. 182
Figure 60 FT1020G3 General arrangement ................................................................ ........... 184
Figure 61 FT1020G3 Block Wiring Overview ................................................................ ......... 185
Figure 62 FT1020G3 Standard Block Wiring Diagram ........................................................... 186
List of Tables
Table 1 Control Panel Specifications ....................................................................................... 17
Table 2 Control Panel Limitation .............................................................................................. 18
Table 3 Expansion boards address (jumpers) setting............................................................... 25
Table 4 4580 Versions with EOL Values to Use ....................................................................... 26
Table 5 I/O Matrix board 4582 type setting .............................................................................. 30
Table 6 OWS 60/120W amplifier specifications ....................................................................... 43
Table 7 OWS 250W amplifier specifications ............................................................................ 44
Table 8 Connection of the Audio Amplifier 60W, 120W and 250W ........................................... 45
Table 9 Gas Front Status LED Indication and flash Pattern...................................................... 47
Table 10 State of the Supervised Inputs 0-4 ............................................................................ 73
Table 11 Output signal period for programmable output........................................................... 85
Table 12 Smoke Detector Alarm Algorithms .......................................................................... 104
Table 13 Alarm acknowledgement function ........................................................................... 117
Table 14 Summary of Recommended Cables........................................................................ 169
Table 15 Maximum display units cable length ........................................................................ 173
Table 16 FT1020G3 and CIE options current consumption .................................................... 174
Table 17 COM loop units current consumption ...................................................................... 175
Table 18 Other units current consumption ............................................................................. 176
Table 19 Valid S/W versions ................................................................................................. 181
Table 20 List of FT1020G3 block wiring diagrams ................................................................. 183
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1 Introduction
1.1 General introduction
FT1020G3 Technical / Programming Manual is a document with information of special
interest for planning engineers as well as service / commissioning engineers.
This document should be read in conjunction with FT1020G3 Operation Manual since most
of the information in one of the documents is not found in the other document and vice
versa.
It should also be read in conjunction with the FT1020G3 connection diagrams according to
the drawings / connection diagram list on Table 20 page 183.
When planning a fire alarm installation, the Australian standard AS1670.1 requirements
must be followed. Detector type, detector coverage area, detector spacing and special
applications in the building, etc. are concerns for the planning engineers and are not
covered in this document.
Due to continual development and improvement, different S/W versions are to be found.
This document is valid for S/W version V2.2.x. On the date / revision date of the document
x = 0.
Technical/Programming Manual
FT1020G3 Rev 2.2.1
A product may be one of the following:
FT1020G3 CIE Configured for 510 or 1020 alarm points and with or without printer.
FT1020G3 CIE without front configured for 510 or 1020 alarm points.
FT1020G3 CIE with 2 x 5010 and one front to increase the number of COM loops
to 8 and optional I/O matrix board applications.
Hardware H/W:
A H/W (e.g. a printed circuit board) has:
a part number (e.g. 5010)
a product name (e.g. FT1020G3 Main Board 512 alarm points)
a PCB number (e.g. 9290-2B) and can also have a configuration (e.g. CFG: 2)
and a revision (e.g. REV: 1)
sometimes a S/W
Software S/W:
A S/W has:
A version number (e.g. V2.2.x)
Sometimes additional information, such as Convention (different functions /
facilities), Language, etc. added.
PC S/W:
A PC S/W is a program used for programming, commissioning, etc. e.g. EBLWin. It has a
version number e.g. V2.2.0.
1.2 Definitions / Explanations
Definitions / explanations / abbreviations / etc. frequently used, refer to FT1020G3
operation manual.
Refer to FT1020G3 Operation Manual for more details.
9
FT1020G3 Rev 2.2.1
Product type no.
Product name
4580
8 zones expansion board
4581
8 relay outputs expansion board
4583
Inputs and outputs expansion board
1
2 Overview
2.1 The FT1020G3 system
FT1020G3 is a microprocessor controlled intelligent fire alarm system, intended for
Analogue addressable smoke detectors, as well as conventional detectors and manual call
points. Programmable control outputs and output units are available. Up to 1020
addresses can be connected to each Control Unit (CIE). Figure 1 presents an overview of
the FT1020G3 System.
FT1020G3 is available in several types, versions and configurations. It can be used as
stand-alone Control Unit or connected to a TLON network, i.e. in a "system" with up to 30
Control Units. Each Control Unit has access to all information.
FT1020G3 is designed and assessed to the Australian Standard AS7240.2, AS7240.4 and
NZS4512:2010. The Fire Brigade Panel controls and indicators are incorporated as part of
the faceplate and conform to AS4428.3:2010.
2.1.1 Printer
Technical/Programming Manual
The Control Unit FT1020G3 can be fitted with an optional printer1.
2.1.2 Expansion boards
Up to six expansion boards can be mounted in FT1020G3 CIE. The following expansion
board types are available:
For more details, refer to chapter "Expansion boards 458x”, page 24 and drawings F728,
F729 and F731.
2.1.3 Power supply
The primary power source is a switch mode power supply, 230 VAC / 24 VDC, 6.5 A (150
Watt).
The standby power source is a backup batteries (2 x 12 V). In the standard cabinet, up to
24 Ah batteries can be fitted. Larger batteries (up to 65 Ah) require additional battery box.
The batteries and the switch mode power supply are connected to the Main board (5010).
See chapter "Power supply", page 177 for more information.
2.2 Software (S/W) versions
Due to continual development and improvement, S/W versions are being updated from
time to time. When a new FT1020G3 Control Unit is required to be installed in a network
system with "older" Control Units, the software in the older Control Units must be updated
(or download an older version in the new Control Unit). The S/W version must be the
same in all Control Units in a TLON network.
Printer 5058 is a spare part for the FT1020G3 with a printer, i.e. it comes without a mounting frame etc.
10
Technical/Programming Manual
4380
Addr.
Becon
3379 Addr.
Sounder Base
with
430x Analog
Detector
3377
Addr. Siren
BARIL
Remote
Indicator RIL
3314
Address
Setting
Tool
1736 Alert
Annunciation
Unit
1728 Ext.
Presentation
Unit
3333NZ
NZ Addr.
MCP
NZ/Remote
Mimic Panel
4582 I/O
Matrix
Board
SUB927
NZ Mimic
Board
3366 Ext. Power Supply
DC
AC
24V DC
230V AC
3364 Addr.
2 Voltage
Outputs
Unit
4301
Analogue
Photoelectric
Smoke
Detector
3308
Analogue Heat
Detector
4300
Analogue
Multi
Detector
M5411D
Magnetic
Door
Holder
3339
Enclosed
MCP
1598
Web-
Server II
6377
Duct
Detector
3340
AAF Alarm
Acknowledgement Facility
Horn - B24VHHorn - B24VH
2 Outputs
2 Programmable
Inputs
COM Loop (4x)
1590 TLON Board (0)
1590 TLON Board (1)
TLON Network
WebG3 Config via USB cable
VISIODOCUMENT Date: 12/19/2011
Drawn by: Edwin Thein
Pre 2003 NZ
Heat Detectors
4352
Photoelectric Smoke
Detector
Pre 2003 Devices
Conventional Devices
Post 2003 Devices
SUB947
3361
Multipurpose I/O
1590 TLON Board (0)
1590 TLON Board (1)
1590 TLON Board (0)
1590 TLON Board (1)
1590 TLON Board (0)
1590 TLON Board (1)
4352
Photoelectric
Smoke
Detector
4318
Combination
Heat
Detector
4375
Heat
Detector
Conventional Detectors & MCPs
EOL 4K7
4580 TLON Board (0)
4580 TLON Board (7)
4350 Multi Detector
6295 IP67 Heat Detector
30 Units
For NZ
ONLY
FT1020G3 Rev 2.2.1
Figure 1 FT1020G3 System Overview
11
2.3 Documents
The following documents are available:
Technical / Programming Manual (this document)
Operation Manual
Connection diagrams
Information found in one document is normally not to be found in another document, i.e.
the documents complement each other. Product Leaflet for FT1020G3 and other units
are available on Brooks web site: http://www.brooks.com.au.
Some important information might be exist in the operation manual as well as this
manual e.g. specifications / limitation, SSD and software download, etc.
2.4 Applications
The FT1020G3 system is intended for small, medium and large size installations. The
intelligent Control Units offer the system designer and end user a technically sophisticated
range of facilities and functions. Programming (PC software EBLWin and TLON Manager)
and commissioning of the Control Units / system is very easy.
Technical/Programming Manual
FT1020G3 Rev 2.2.1
Start with one Control Unit and then when it is required, add more units. The TLON network
makes it possible to install the Control Units in one building or in many buildings.
Separate documents are available for TLON Manager, Web-server, etc.
2.5 PC software (S/W)
The following PC programs are used together with the FT1020G3 system. For standalone
FT1020G3, the TLON Manager is not used.
2.5.1 EBLWin
The PC program EBLWin is used for programming and commissioning of one or more
Control Units, i.e. to:
Autogenerate, i.e. to identify the units connected on a COM loop and make default
settings, which can be edited, saved and used as site specific data (SSD).
Create, download and backup (upload) of site specific data (SSD)
Download new system software version, settings, conventions, configurations,
Control Unit & system properties, etc.
Create and download the user definable alarm text messages shown in the display
in the Control Units and other Display Units (1728 & 1736).
Display the fire alarms, faults and disablements as well as reset, acknowledge and
re-enable, etc.
Configure the Web-server II (5098); create and download / make a backup (upload)
of the configuration data as well as download of Web-server software.
The EBLWin must have the same version number as the system software EBL512 G3
version number e.g. 2.2.x and 2.2.x respectively. Only x may be different, it indicates a
small correction and is not required to be the same.
Old SSD files can be opened in a newer (higher) version of EBLWin, saved, edited and
thereafter downloaded to an FT1020G3 units with the corresponding version.
EBLWin key 5094 is a USB dongle that is required on your PC in order to gain access to
log on and download SSD files.
12
Notes: The SSD files saved in one version of EBLWin is not backward compatible with
any other earlier versions of PC configuration e.g. WinG3.
It is highly recommended to backup (upload) the SSD file before the system
software (EBL512 G3) can be downloaded,
2.5.2 TLON Manager
The PC program TLON Manager is used for the TLON Network programming, installation,
etc. (TLON Manager 1.2 and TLON Manager 2.0.x can be used).
For more information refer to the TLON Manager technical manual and the next chapter.
Technical/Programming Manual
FT1020G3 Rev 2.2.1
13
FT1020G3 Rev 2.2.1
3 TLON Network
For further details refer to “TLON Technical / Operation Manual” M437, see also chapter
“TLON connection board 5090” page 50.
3.1 FT1020G3 TLON network
FT1020G3 system can be one Control Unit (CIE) or up to 30 Control Units connected in
a TLON Network.
In a TLON Network, each Control Unit operates independently but has nevertheless total
access to all information in the system.
In a system with two or more Control Units in a TLON Network, pay attention to the
following:
A zone must not be distributed over the system, i.e. all alarm points in a zone
have to be connected to one CIE
When the "Fire door closing" function is used, the alarm points and the outputs
activated by these alarm points must be connected to the same CIE
Technical/Programming Manual
When the interlocking function is used, the input, output and the Interlocking
Combination (area-point) must be connected to one CIE. An input and an output
can only be used in one Interlocking combination.
When the AAF function is used, all devices within the same AAFC zone must be
connected to the same CIE.
3.2 Redundant TLON Network
The FT1020G3 system can be build up as a single TLON Network or as a redundant
TLON Network.
A single TLON Network is only allowed when more than one main board (5010) are
mounted in the same cabinet. In this case, only one TLON connection board (5090) is
required to be plugged in the main board. Whereas in a distributed systems, redundant
TLON Network must be used, 2 TLON connection boards (5090) have to be used in each
Control Unit.
In the single TLON Network, only one network (Network no. 0) connection is used but in a
redundant TLON Network, two networks connections (Network no. 0 and Network no. 1)
must be used. In normal conditions, Network no. 1 is only supervised / monitored until
Network no. 0 fails to establish the communications between the control panels.
The redundant TLON Network supports full functionality. In case of a network fault (i.e.
open circuit or short circuit) in one of the TLON networks, a fault for this TLON Network is
generated as shown in the following fault message:
Where network x = Network no. 0 or Network no. 1.
3.3 Routers
In a TLON network, it is recommended to use TP/FT routers in order to split the TLON
network into separate FTT-10 channels / segments with the following objectives:
Provide galvanic isolation between TLON segments.
FAULT: Control Unit xx has no contact
With control unit xx, network x
14
Technical/Programming Manual
FT1020G3 Rev 2.2.1
Increase the maximum cable length between TLON segments.
Reduce unnecessary communications traffic on the respective network links.
Improve efficiency of the communications channel.
Up to 6 control panels can be connected to one channel i.e. one segment.
When the TLON is divided into more than one segment, the short circuit will affect the
communication between the Control Units in this segment only, the communication
between Control Units in other segments are not affected. The fault messages will be
generated in every Control Unit. However In a redundant system, the network will continue
to communicate via the second TLON network.
Dividing the TLON network into segments may assist in fault finding, faults on the network
e.g. disturbances etc., will be easier to locate and service.
Note: In retrofit network application where the cable integrity is uncertain, routers may
also be required to improve the communications between the TLON segments.
The recommended TP/FT10 router is LPR10, Brooks stock number FTG3 ROUTER. It is
also recommended to use the DIN rail mounting plate, stock number FTG3 ROUT PLATE.
3.4 Network connections
The communications between control panels in a network system can be established using
one of the three following options:
3.4.1 Twisted pair TLON network
The twisted pair cable connection between control panels and cable specifications are
shown in drawings F738-01, F738-02 and F738-03.
The recommended cable is twisted pair 1.5 mm², Brooks stock number BCA0898 or
equivalent. 1 mm² Twisted pair cable can also be used depending on the distance between
the control panels. If a screened cable is used, the shield must be connected to the CIE
earth point.
3.4.2 Fibre optic TLON network
Third party TP/FT10 to fibre optic routers have become obsolete e.g. LRW112 series.
However LRW102 series repeaters are still available.
It is possible to connect a TP/FT10 channel to a fibre optic channel using a Fibre Optic to
TP/FT10 repeater.
A fibre optic network communications can be achieved by using fibre optic repeater e.g.
LRW102 in conjunction with a TP/FT10 router e.g. LPR10. This combination replaces the
fibre optic routers LRW112 series when more than 10 control panels connected in a TLON
network. Great care shall be taken during planning, installation and commissioning.
The fibre optic link offers an easy way to extend the distance between TLON network
segments using high speed back bone fibre optic network link. The maximum distance
between the fibre optic routers varies between 5 Km to 30 Km depending on the type of
fibre.
The fibre optic solution to network FT1020G3 control panels is shown in Figure 2 and
Figure 3 below. The LPR10 router must be used when the number of networked control
panels is more than 10 panels as shown in Figure 2.
15
Technical/Programming Manual
FT1020G3 Rev 2.2.1
Figure 2 Redundant fibre optic network for more than 10 control panels
When a number of control panels less than 10 is required in a TLON network, the traffic
will not be very heavy and the LPR10 router may not be required as shown in Figure 3
Figure 3 Redundant fibre optic network for up to 10 control panels
The type of fibre optic repeater is dependent on the cable type e.g. single or multi-mode,
distance between C.U.’s, etc. Care must be taken when selecting the repeater type.
Note: A TLON network of FT1020G3 control panels may consist of fibre optic segments
and twisted pair segments.
3.4.3 TCP/IP TLON network
LonWorks Internet server such as iLon 600, can be used as an internet (or any IP-based
LAN or WAN) pathway for TLON.
The transition from TP/FT10 to IP network opens the opportunity to use a large range of
infrastructure products e.g. fibre optic converters.
Note: a network of fire alarm system is always connected via a dedicated network wiring,
great attention must be taken when choosing an IP network as a pathway for TLON
should be used for autonomous Control Units only. The efficiency of the IP based
communication is dependent on the efficiency of the infrastructure of the IP network.
16
Technical/Programming Manual
Item
Specifications
Mains Voltage
230VAC (176-264), 1.6A
System Voltage
24VDC @ 6.5A
Current Consumption
Quiescent / alarm current is dependent on other equipment fitted
in FT1020G3, type and number of expansion boards, connected
external equipment, etc.2.
Ambient Temperature (⁰C)
Operating 0 to + 40, Storage -40 to +70
Ambient humidity (%RH)
Maximum 90, non-condensing
Size (mm)
Standard cabinet 920H x 450W x 210D (with metal door closed)3
Enclosure Material
1.5 Zinc anneal steel
Enclosure Colour
Oyster, powder coated, ripple finish
Approvals
AS7240.2, AS7240.4, AS4428.3:2010 and NZS4512:2010
Standard Inputs / Outputs4
Four COM loops (0-3), each loop can connect up to 255 devices
Four non-supervised inputs
Four programmable Supervised voltage outputs, 0.75 Amp each
Two programmable relay outputs, contact rating 2 Amp
Four programmable clean contact (N/O or N/C) inputs (I0-I3)5
Two non-programmable relay outputs for ASE (fire & fault)
Six x 24V outputs for Web server, ASE, remote display units,
external applications 2-4 Amp.
Expansion Boards
Max. 6 of 4580, 4581 or 45836
I/O Matrix 4582 board
Max. 24, 6 per COM loop if no expansion boards on Loop 07 fitted.
Up to 6 modules can be used as zone or generic + 18 Fan control
modules (4 fans per module)8
2
3
4
5
6
7
8
FT1020G3 Rev 2.2.1
4 Control & Indicating Equipment
4.1 FT1020G3 Specifications
The specifications of FT1020G3 Control Panel are shown in Table 1 below and the system
limitations are shown in Table 2 next page.
Table 1 Control Panel Specifications
Refer to chapter “Current consumption” page 173 and the current calculation spread sheet.
Medium size enclosure 630H x 450W x 210D can be used to fit limited number of options. A combination of large and medium
size enclosures can be used if more options required. In 19” rack cabinets, a series of 19” face plates are also available.
Refer to G3 block wiring diagram, drawing no. F765
First input I0 cannot be used in NZ convention, only 3 programmable inputs are available.
Expansion boards are internally connected to COM loop 0, ensure total number of expansion boards and I/O matrix boards
connected to COM loop 0 does not exceed 6. Software 2.1.1 allows to use 6 x 4583.
Reduce the number of 4582 connected to COM loop 0 by one for every expansion board used.
If no expansion boards fitted, up to 24 fan control modules can be used i.e. 96 individual fans
17
Table 2 Control Panel Limitation
Item
C.I.E.
Network System
General fire alarm via programmable input
100 External fault via programmable input
50
30 x 50
Programmable inputs
512
Programmable outputs (= control expressions)9
512
Technical warnings
100
30 x 100
Addressable 2 voltage outputs unit 3364
40 External display units
16
30 x 16
Interlocking Combinations
400
400010
Presentation numbers / alarm points11 that can be presented
in the display(s) in case of fire alarm
512
512
Presentation numbers8 that can be programmed
512
30 x 512 = 15 360
Zones that can be programmed
51212
999 Faults
300
Disabled zones
512
Disabled alarm points (zone/address) + Disabled COM loops
20013
Disabled outputs
20014
Disabled interlocking outputs
20015
Sensors activating SERVICE signal
200
AAF zones (Max. 5 detectors per AAF zone.)16
100
30 x 100
Total number of expansion boards 4580, 4581 and 458317
6
30 x 6
Number of I/O matrix boards 458218
24
30 x 24
Total number of 4582 for zone control and generic applications
6
30 x 6
Number of user definable text message programmed per 1728
and 1736
617
9
10
11
12
13
14
15
16
17
18
Technical/Programming Manual
FT1020G3 Rev 2.2.1
Approx. 4000 trigger conditions can be used in these control expressions, more outputs can be used without control expression
(V2.1.1 and higher).
Max. 100 user definable texts can be displayed "at the same time".
Presentation number is a ZONE only or ZONE – ADDRESS.
Any zone number between 001 and 999 can be used for the 512 zones.
Zone/address disabled via time channel not included.
Control outputs disabled via menu H2/B3 and Alarm devices disabled via menu H2/B4 are not included.
Interlocking outputs disabled via menu H2/B3 are not included.
Used in conjunction with the Alarm Acknowledgement Module (AAM).
Expansion boards 4580, 4581 and 4583 are physical connected to COM loop 0
Reduce no. of 4582 boards by one for every expansion board used (4580, 4581 or 4583).
18
FT1020G3 Rev 2.2.1
4.2 FT1020G3 CIE Layout
The FT1020G3 available in many configurations depending on the number of options fitted
in the CIE.
Technical/Programming Manual
Figure 4 The FT1020G3 Control Unit, with printer
The FT1020G3 control and indicating equipment (CIE) shown in Figure 4 is housed in a
powder coated metal cabinet, colour is oyster. The cabinet has an inner and outer door.
The outer door is fitted with 003 keys to provide access level 1 and is made of tinted high
impact plastic and allows easy viewing of all indicators and controls.
Access to the inner door is gained by opening the outer door which then provides access
to the inner door fixing screws. Opening the inner door allows access to the Control Unit
hardware for the purpose of maintenance or servicing
The fire brigade panel (FBP) forms integral part of the control panel (CP) as shown in
Figure 5 below, it is used by the fire brigade or fire services personnel to see which alarm
point(s) / zone(s) having activated fire alarm and to take required operational control of the
system. In the graphical display, the information displayed in the upper part is dependent
on how many alarm points / zones having activated fire alarm. In the middle part, the fire
alarms will be shown, i.e. one alarm point or one zone together with a user definable alarm
text (if programmed) plus some other information.
19
Technical/Programming Manual
19
20
FT1020G3 Rev 2.2.1
Figure 5 FT1020G3 front display
The CP is used to "communicate" with the system, i.e. for commissioning, routine tests,
maintenance, etc. Access codes for different access levels are required. A keypad is used
to get access to the system (a menu tree with main and sub menus) and for operational
control of the system. Up to ten User names can be used for three different User level
types. A Password (six digits) for each User name is required19.
The CP has several system status LEDs and a keypad.
Note: Regarding LED indicators, keypad / push buttons / soft keys, user level types and
for more information, see FT1020G3 Operation Manual.
Each FT1020G3 Control Unit has the following basic configuration:
Oyster metal cabinet with acrylic door
MMI board (5011), see drawing F727
FT1020G3 front with display
Main board (5010), see drawing F726
Four COM loops (0-3) to which the loop units are connected, for
connections and more information, see drawing F784-01, F784-02 and
F733.
Four programmable supervised voltage outputs (S0-S3), for connections
and more information, see drawing F732-02.
Two programmable relay outputs (R0-R1), for connections and more
information, see drawing. F732-02.
Four programmable inputs (I0-I3)20, for connections and more information,
see drawing F732-02.
The same User names and Passwords (for the different user levels) can be used for logon to the Web-server.
In NZ convention, only I1, I2 and I3 are available i.e. Input I0 cannot be used
20
Technical/Programming Manual
FT1020G3 Rev 2.2.1
Six x 24 VDC power supply outputs for Web-server II (1598), routing
equipment and external equipment requiring battery backed supply.
Connections and more information, see Drawing F732-01.
Two non-programmable relay outputs for routing equipment (Fire alarm
output for Fire Brigade TX and Fault output for Fault TX). For connections
and more information, see drawing F732-02.
Space and connectors for two TLON connection boards 5090, See
drawing F726 and F732-03.
RS485 and 24VDC outputs for Display Units (1728 & 1736), for
connections and more information, see drawing F765.
Connector for expansion boards (4580, 4581 & 4583), for connections and
more information, see drawing F728, F729 and F731.
Connectors for Web-server (1598), for connections and more information,
see drawing F734.
Connectors for Battery charger DC in and battery termination.
Power supply, see chapter "Power supply", page 177. Connections and more
information, see drawing 765.
Switched mode supply, 230VAC / 24VDC (150 Watt).
Space and connection cables for two Sealed Lead-Acid backup batteries.
Battery temperature sensor.
Space for up to six optional expansion boards (458x) mounted on two expansion
boards mounting kits.
Space for different brigade (ASE) interface brackets e.g. Romtec, Tyco ASE, etc.
Depending on the system requirements and the space available, the following
options can be added to FT1020G3:
Occupant Warning System, 60W, 120W or 250W
AS1668 Fire Fan Control Card
Zone status indications and control card
Gaseous Extinguishing System
NZ Fire Brigade mimic display
MDH control
See following chapters for more and detailed information.
4.2.1 Mounting plates
The FT1020G3 control panels are equipped with different front and rear mounting plates
to suit mounting of compatible equipment, optional application boards and the optional
printer.
4.2.2 Mounting plate for 19" mounting rack
When FT1020G3 units are required to be mounted in a 19" mounting rack or cabinets, the
standard mounting plates can be replaced with 19” rack mounting plates.
21
4.3 COM loops
21
22
Each FT1020G3 has four COM loops (0-3) to which the loop units are connected.
Connections according to drawing F733.
On each COM loop, up to 255 COM loop units can be connected (COM loop address 001
– 255). The exact number of loop units and the cable length are dependent on the cable
type (cable resistance) and the total COM loop unit current consumption (i.e. the type and
number of loop units). Regarding type and number of COM loop units in relation to the
cable length / type, see drawing F733 and chapters "FT1020G3 cable length", page 170
and "Current consumption", page 174.
NOTE: In total, up to 1020 (4 x 255) COM loop units can be used.
Each COM loop unit has a COM loop address (e.g. 123) and depending on the loop number
(e.g. 0) and the Control Unit number (e.g. 04), each COM loop unit has a technical number
(04 0 123). Each alarm point and zone line input has a fire alarm presentation number
(Zone-Address), e.g. 001-01. See FT1020G3 Operation Manual for more information.
Normally the communication (and power supply) direction alternates every 22 second.
When the communication is in the COM loop A-direction, the COM loop voltage is checked
when the COM loop cable returns to the Control Unit. The voltage has to be > 12 V DC. If
not, a fault will be generated.
Technical/Programming Manual
FT1020G3 Rev 2.2.1
4.4 Programmable voltage outputs (S0-S3)
The 24VDC outputs S0-S3 are supervised (monitored)21. One to five 33K resistors can be
connected, for connection diagram, refer to drawing F732-02. When all connections are
completed, a calibration has to be performed, see chapter "Calibration of supervised
outputs" (menu H5/A1)", page 122 and the FT1020G3 Operation Manual. The calibration
value should be 1K-50K.
Each output has to be programmed via EBLWin for the following:
Type of output (Control, Alarm devices, etc).
Output signal period (steady, pulse, delay, etc.).
Supervised / non-supervised.
Logic, i.e. normally low (default) or normally high (24VDC).
Control expression (contains one or more trigger conditions).
See also chapter "Programmable outputs", page 79.
4.5 Programmable relay outputs (R0-R1)
Connections according to drawing F732-02. Each output has to be programmed (via
EBLWin) for the following:
Type (Control, Alarm devices, etc.).
Output signal period (steady, intermittent, pulse, delay, etc.)
Logic, i.e. normally open (NO) or normally closed (NC) contacts22.
Control expression (one or more trigger conditions).
The outputs in EBLWin are set by default as supervised however, it is possible to change the setting of S0-S3 individually to be
not supervised.
A normally high output cannot be supervised. The supervision voltage is 1.5 – 3.6 VDC (depending on the number of supervision
resistors) and the polarity is reversed compared to activated output.
22
Technical/Programming Manual
23
24
25
26
FT1020G3 Rev 2.2.1
See also chapter "Programmable outputs", page 79.
4.6 Programmable inputs (I0-I3)
Connections according to drawing F732-02. Each input has to be programmed (via
EBLWin) for the following:
Type (trigger condition).
Logic, i.e. normally open (NO) or normally closed (NC) contacts.
Additional information when required, depending on the selected trigger condition
(Fault no., Zone, Address, Fault message (Error text), etc.)
Open = R > 20K. Closed = R < 500.
An input has to be activated > 0.5 sec.
See also chapter "Programmable inputs", page 72.
4.7 Relay outputs for routing equipment (TX)
Two dedicated non-programmable relay outputs are used for routing equipment. The
outputs can be tested via menu H1. For more information refer to the FT1020G3 Operation
Manual. Connections according to drawing F732-02.
4.7.1 Fire alarm output
This output is normally used for fire alarm routing equipment (Fire brigade TX). It is a
change-over relay contact that is activated when a fire alarm is generated in the system 23.
De-activated output is (normally) indicated by the LED "Fire brigade TX” 24.
When a specific zones or alarm points required to call the brigade, any programmable relay
can be used and type should be “Fire Brigade TX”.
4.7.2 Fault condition output
This output is normally used for fault warning routing equipment (Fault TX). It is a changeover relay contact that is normally activated and will be de-activated in case of a fault 25 in
the Control Unit (CIE) 26. De-activated output (i.e. fault condition) is indicated by the LED
Routing equipment "Fault TX activated".
The output can be disabled via "door open" (not recommended) or via menu H2/B5. See also chapter "Alert Annunciation",
page 115.
This output and programmable outputs with type of output = Fire brigade TX, will normally turn on the LED but a programmable
input with trigger condition = Activated routing equipment, can turn on the LED instead.
Also when the control unit is powered down (i.e. power supply and batteries are disconnected) or Watch-dog fault.
The output can be disabled via "door open" or via menu H2/B5.
23
FT1020G3 Rev 2.2.1
5 Expansion boards 458x
FT1020G3 cabinet provides space for expansion boards holder, up to 4 boards can be
mounted on one holder. Another holder can be mounted inside the cabinet for the additional
2 expansion boards. The maximum number of the expansion boards of types 4580, 4581
and 4583 used in each FT1020G3 is six. An expansion board connection cable is to be
used to connect expansion boards (connector “J12”) to the main board 5010 (connector
“J9”). See drawing F728, F729 & F730.
Figure 6 Expansion boards 4580, 4581 and 4583.
Technical/Programming Manual
I/O Matrix board 4582 is a special type of expansion boards that plugs (piggy
back) onto an Application board (Fan, Generic or Zone). The Application board is
connected to the COM loop and to 24 VDC. On each COM loop 0-3, up to six 4582
boards can be used (i.e. up to 24 boards in total per FT1020G3 control panel). Refer to
drawing F730 for more details.
Note: COM loop 0 is however a special loop, since the expansion boards 4580, 4581 and
4583 are internally connected on this loop. On COM loop 0, up to a total of six 4580, 4581,
4583 and 4582 boards can be used. This means that for each expansion board 4580, 4581
or 4583 used, the number of 4582 boards is reduced by one.
Figure 7 I/O Matrix board 4582.
Maximum six of the I/O Matrix boards 4582 can be programmed as type Generic and/or
Zone control.
Note: Maximum 512 programmable outputs per CIE can be used.
Each expansion board 4580-4583 must have an expansion board address (0-5) set via
jumpers on the expansion board. The jumpers "JP2-JP4" are used on boards type 4580,
4581 and 4583, and jumpers "JP1-JP3" are used on board type 4582, see Table 3 page
25. Refer to drawings F728, F729, F730 and F731.
EBLWin is used for all expansion board programming.
The expansion board address is set via jumpers on the expansion board as shown in Table
3 below.
24
FT1020G3 Rev 2.2.1
Board no.
(address)
4580, 4581 and 4583
4582
JP2
JP3
JP4
JP1
JP2
JP3
0
1
X X
2 X X
3 X X X X
4
X X 5
X X X
X
6
7
Table 3 Expansion boards address (jumpers) setting
X=Shunted, Blank = Open
Address 6 & 7 are not currently used
Technical/Programming Manual
5.1 8 zones expansion board 4580
Each board has to be programmed via EBLWin with an address (Board no.) which is set
via the jumpers "JP2-JP4", see Table 3 above.
The 4580 board has eight conventional zone line inputs (0-7) intended for conventional
detectors, MCP, flow switch input or any N/O clean contact. The end-of line device must
be connected in the last alarm point on each zone, depending on the selected "Type of
zone line input", see below.
Connections to "J1:1-16" and "J2" according to drawing F728.
Each zone line input has to be programmed via EBLWin for the following:
Type of zone line input (see below), depending on detectors / end-of-line device
(capacitor or resistor), i.e. different threshold levels etc.
Alarm at short circuit i.e. whether a short- circuit on the zone line input generates
a fault or a fire alarm.
Zone number (address optional)
AVF (Alarm Verification Facility), if required
Text (Alarm / fault text when required)
Alert annunciation time channel
Disable time channel
5.1.1 Type of zone line input
Two-unit dependency time channel
Type of detectors connected to the zone line input (see “Fire alarm type A and Fire
alarm type B” page 118 for an explanation of A and B)
The terminals support a wire size up to 1.13 mm2 (1.2 mm).
Each input must be selected either as ”Not used” or as one of the following types / modes.
25
FT1020G3 Rev 2.2.1
4580
SW Version
EOL Resistor to Use
Version 1
9287-2B
1.0.x
10KΩ
Version 2
9287-3A
2.0.x
4K7Ω
5.1.1.1 Zone line input (EOL capacitor)
This mode should normally be used. It has the lowest zone line current consumption since
the End-Of-Line device is a capacitor, 470 nF (±10 %).
Maximum allowed cable resistance is 50 ohm.
Maximum allowed cable capacitance is 50 nF.
Maximum allowed zone line current consumption is 1.5 mA.
5.1.1.2 EX zone line input (EOL resistor)
This mode must be used when the zone line input is intended to be connected to
intrinsically safe devices e.g. intrinsically safe detectors or manual call points via the
Galvanic isolator MTL5061 (2820). The end-of-line device is a resistor, 10K (±5 %) with a
body surface area > 230 mm2 (supplied with the Galvanic isolator).
Maximum allowed cable resistance is 40 ohm.
Maximum allowed cable capacitance is 70 nF.
Total zone line current consumption is < 1.0 mA.
5.1.1.3 Zone line input (EOL resistor)
Technical/Programming Manual
This mode is typically used in New Zealand where only EOL resistors are allowed. It has
to be used when any of the other types cannot be used (e.g. for some older type of
detectors and not Panasonic detectors). The EOL resistor has the highest zone line current
consumption since the end-of-line device is a resistor, 4K7 (±5 %).
Maximum allowed cable resistance is 50 ohm.
Total zone line current consumption is 2.0 mA.
Note: Older version of 4580 boards PCB9287-2B requires 10K end-of-line resistor while
the newer version PCB9287-3A requires 4K7. Table 4 and Figure 8 illustrate the two
distinctive differences between the two PCB versions in both hardware and software.
Table 4 4580 Versions with EOL Values to Use
Figure 8 Expansion board top side differences
26
5.1.2 Input states
27
27
28
29
30
Each input will be in one of six different states.
5.1.2.1 Normal state
The normal zone line input state, i.e. no alarm, no fault, etc. and the nominal voltage is
24V
. From this state any other state can be reached / activated.
DC
5.1.2.2 High current state
The maximum current consumption limit28 for the zone line input is exceeded, which is
indicating that e.g. too many alarm points are connected. This state generates a fault
condition in FT1020G3. From this state any other state can be reached / activated except
the open circuit state.
5.1.2.3 Alarm state
One alarm point (or more) on the zone line is in alarm state and the alarm limit28 for the
zone line is exceeded which activates a fire alarm in FT1020G3. In this state short-circuit,
open circuit, high current and low voltage states cannot be reached / activated. After alarm
reset, the zone line input will return to the normal state.
Technical/Programming Manual
FT1020G3 Rev 2.2.1
5.1.2.4 Short-circuit state
The short circuit current limit 28 is exceeded, indicating short-circuit on the zone line which
normally generates a fault condition in FT1020G3 but instead, a fire alarm can be activated,
if this option is selected via EBLWin.
5.1.2.5 Open circuit state
The open circuit current limit 28 is passed, indicating very low zone line current consumption
or no current, i.e. the End-Of-Line device is not detected which generates a fault condition
in FT1020G3. From this state any other state can be reached / activated.
5.1.2.6 Disconnected state
Via menu H8/S1 (Disconnect loop / zone line input) the zone line input can be
disconnected29, i.e. there is no voltage on the zone line. From this state no other state can
be reached / activated.
5.2 8 relays expansion board 4581
Each board has to be programmed via EBLWin for Address (Board no.), set via jumpers
"JP2-JP4" as shown in Table 3 page 25.
The 4581 board has eight programmable relay outputs (Output 0-7).
Connections to "J1:1-16" and "J2" according to drawing F729.
Each output has to be programmed via EBLWin for the following:
Type, i.e. output for Control, Alarm devices, etc.
Output signal period (steady, pulse, delay, etc.)
Logic, i.e. normally open (NO) or normally closed (NC) contacts30
Control expression (contains one or more trigger conditions)
Voltage range 15-28 V DC.
This limit is dependent on the selected input mode.
This is indicated in FT1020G3 by the LED Fault / Disablements "General disablements".
Relay contact ratings: Max. 2A @ 30 V DC.
27
Technical/Programming Manual
31
FT1020G3 Rev 2.2.1
For more information, see chapter "Programmable outputs", page 79. The terminals
support a wire size up to 1.13 mm2 (1.2 mm).
5.3 Inputs and outputs expansion board 4583
Since the maximum current consumption for this type of boards can be up to 400 mA, only
two 4583 boards should be used however up to six boards can be configured (EBLWin
V2.1.1 or higher) with a warning if more than two are used when the SSD is validated in
EBLWin. Care must be taken to avoid overloading the fuse (F13) on the main board when
more than two boards are used.
Each board has to be programmed via EBLWin for Address (Board no.) set via the jumpers
"JP2-JP4", see Table 3, page 25.
The I/O expansion board 4583 has two programmable supervised / non-supervised voltage
outputs (Output 0-1), one special programmable output (Output 2) intended for German
extinguishing system and five programmable supervised / non-supervised inputs (Input 0-
4).
Connections to "J1:1-16" and "J2" according to drawing F731.
Output 0-1 has to be programmed via EBLWin for the following:
Type, i.e. output for Control, Alarm devices, etc.
Output signal period (steady, pulse, delay, etc.)
Supervised / Non-supervised 31
Logic, i.e. normally low (default) or normally high (24VDC) 22.
Control expression (contains one or more trigger conditions)
One to five 33K resistors can be connected. When all connections are completed, perform
a “calibration of supervised output” via menu H5/A1. Calibration value has to be in the
range 4K7-50K. See also the FT1020G3 Operation Manual chapter "Calibration of
supervised outputs (menu H5/A1)".
Voltage Output 0 (J1:1-2): Max. 200 mA (Fuse F1).
Voltage Output 1 (J1:5-6): Max. 200 mA (Fuse F2).
See chapter "Programmable outputs", page 79.
Output 2 has to be programmed via EBLWin for the following:
Type of output, i.e. output for Control, Alarm devices, etc.
Output signal period (steady, pulse, delay, etc.)
Logic, i.e. normally open (default) or normally closed.
Control expression (one or more trigger conditions)
Output 2 (J1:11-12): Normally Open (high resistance, 3K3) or Normally Closed (low
resistance, 680R). See drawing F731.
See also chapter "Programmable outputs", page 79.
Input 0-4 have to be programmed via EBLWin for the following:
Trigger condition (Triggered by)
A normally high output cannot be supervised. The supervision voltage is 1.5 – 3.6 VDC (depending on the number of supervision
resistors) and the polarity is reversed compared to activated output.
28
FT1020G3 Rev 2.2.1
SUB900
Supervised / Non-supervised
Logic, i.e. Normally open (high resistance, 3K3, when supervised) or Normally
closed (low resistance, 680R, when supervised)
Additional information depending on the selected type
See chapter "Programmable inputs", page 72.
5.4 I/O Matrix board 4582
The I/O matrix is a special type of expansion boards, it can only be used in conjunction with
an Application board. Three types of application boards are available; AS1668 Fan
control, Zone control and NZ Generic mimic for index panels, see Figure 9.
The I/O Matrix board (80 x 63 mm) is plugged to the application board ("piggy back"
connection) and has 16 switch inputs and 48 LED outputs which can be individually
programmed (generic application only).. The COM loop and 24 VDC is connected to the
Application board.
Technical/Programming Manual
Figure 9 I/O Matrix board application overview
5.4.1 I/O Matrix jumper link setting
Figure 10 I/O Matrix PCB layout
The PCB layout of the I/O matrix board is shown in Figure 10, jumper links are shown in
red circle. Ensure that JP7 is not fitted, this is used for production purposes only. Three
different options for application board types can be selected via jumpers (JP4 & JP5) on
the I/O Matrix board as shown in Figure 10 and Table 5
29
Technical/Programming Manual
Type (mode)
Application Board
JP4
JP5
JP6
Brooks Application
Board Part No.
Fan Control
SUB902
Zone Control
X
SUB900
Generic33
X
SUB985-SUB98834
32
33
34
FT1020G3 Rev 2.2.1
The three configuration options for the I/O matrix board are:
Generic, normally used for any special applications e.g. NZ index panel, mimic or
relay boards, pump status indications, etc. Maximum of six generic options can be
used, if no zone control is not used.
Fan Control, up to 6 fan modules can be used for each loop if no other applications
or expansion boards used. Four fans are the maximum number allowed per
module.
Zone Control, only six zone control options can be selected to provide a maximum
of 64 zones32 for each FT1020G3 system, if no generic options are used.
There is no COM loop address to be set. Instead, the expansion board no. / address (0-
5) is set with jumpers (JP1-JP3) on the I/O Matrix board. See Table 3, page 25.
A total of up to 512 outputs can be used in FT1020G3, including all types of outputs.
The application board type can be selected via jumpers JP4-JP5 as shown in Table 5.
Table 5 I/O Matrix board 4582 type setting
Note: Jumper “JP6” is for future use
Each I/O Matrix board 4582 has to be programmed via EBLWin according to its
application.
Set the address on the 4582 via jumpers "JP1-JP3", see Table 3, page 25.
Right click on the respective Loop and select “Add I/O Matrix Board 4582” to bring
up the context menu to select the type of Application Board to be added as shown
below:
....and programmed for the following:
Address (must be the same board no. as set via jumpers "JP1-JP3").
Name (I/O Matrix Board # - normally not changed)
Due to the space limitation, only 12 zones are available in every zone control module
When SUB900 or SUB902 is used as a Generic application board, the Type of Inputs and Outputs can be customised by
programming in the EBLWin configuration software.
The new versions of NZ mimic boards SUB985, SUB986, SUB987 & SUB988 replace the discontinued SUB927 and SUB927R,
for more details refer to chapter “New mimic options” page 39
LED test on Input 15 (selected or not selected)
30
FT1020G3 Rev 2.2.1
35
6 Optional Modules
6.1 AS1668 Fan control
Used for Application board type Fan control (SUB902) which has a front decal label to
indicate and control up to 4 fans. Typical fan control front is shown in Figure 13 page 37.
Each fan control module consists of a universal I/O matrix 4582 specifically configured for
fan control applications and application board SUB902. Different Programming options are
simplified through the EBLWin configuration software.
Each fan control module has controls and fan status indicators for 4 fans, each fan status
is indicated by six LEDs (On / Auto / Off / Running / Stopped / Fault) and controlled via
three push buttons (On / Auto / Off). One "Fan Reset" button is provided in every AS1668
fan module. A LED test button is also provided to test LED’s for each fan module (if
programmed).
In EBLWin, the functionality of the fan control relays Re0 & Re1 in “3361 for fan” module
has been improved35. New “Enhanced mode” is added to 3361 configuration to enable the
programmer to configure Re0 and Re1 independently i.e. start relay and stop relay are now
configured separately. The monitored input In0 is in use when the fan is only controlled
from the CIE. External control from Mechanical Services Switch Board (MSSB or via time
clock will indicate the fan status without generating a fan fault.
Technical/Programming Manual
6.1.1 Mode Control
The buttons / LEDs On, Auto and Off are used to manually override the fan mode of
operation. The switches are non-latching and the mode of operation will be indicated by
the corresponding LEDs.
On Fan is running in manual override mode independent of fire mode in the CIE or
any external control e.g. MSSB. “On” and “Fan Running” LED’s are lit. “On”
control has higher priority over alarm and external control.
Auto Fan either be running or stopped depending on the CIE alarm condition. The
fan may also be controlled externally (less priority than alarm) from mechanical
services e.g. time clock. LED “Auto” is lit and either “Fan Running” LED or “Fan
Stopped” LED is also lit. The “Auto” LED flashes during the time that the fan is
changing status (running to stopped or stopped to running) then becomes
steady.
Off Fan is stopped in manual override mode independent of any alarm condition in
the CIE. “Off” and “Fan Stopped” LED’s are lit. “Off” control has the highest
priority over fire mode or external control.
6.1.2 Fan Status
Running Indicates fan running, red
Stopped Indicates fan stopped, green
Fault Indicates fan fault, yellow
The fan fault LED is lit if the control from the CIE to change the fan status (via
3361 relay contacts) is not verified via input In0. The request to change the fan
status from the CIE can be due to one of the following:
In the older PC configuration software WinG3, the two relays Re0 and Re1 have toggle action i.e. cannot be controlled
independently, both activated at the same time but with different contacts (Re0 is normally open & Re1 is normally closed).
31
FT1020G3 Rev 2.2.1
1. Manual operation of the manual override switch (On or Off) for a fan or
2. In Auto mode, a fire alarm that controls the fan is activated.
In both cases, if the feedback signal confirming the change of state has not
been received by input In0 in 3361 within 30 seconds (default), the fan fault LED
will be lit.
If also In0 is configured to be supervised and there is an open circuit fault in the
input wiring, the fan fault LED will also lit.
6.1.3 Configuration and Programming
For each fan, a field module (3361) is required and has to be configured in EBLWin as
“3361 I/O unit for fan control”. The AS1668 fans can be configured as follow:
Each Fan (0-3) (i.e. each Fan control) has to be added and programmed via EBLWin.
1. Right click on a COM loop and “Add I/O matrix board 4582”, the following dialog box
appears:
Technical/Programming Manual
Select the I/O matrix board address (0-5) and change the name to “AS1668 Fan
Control”. If the LED test function is required, mark the check box “LED test on input
15”.
Note: The address selected in EBLWin (0-5) must match the address of the I/O matrix
board which is set by jumpers JP1-JP3 as per Table 3 page 25. The type of board is
automatically selected.
2. Right click on the configured “I/O Matrix Board” and select “Add Fan” as shown below
3. The Fan control dialog box appears for the 1st fan to be added. Repeat adding the fans
as required, maximum 4 (0-3).
32
Technical/Programming Manual
FT1020G3 Rev 2.2.1
4. For each added fan, a “3361 I/O Unit for fan control…” must also be added. To do this,
right click on a COM Loop to Add loop unit and select “3361 I/O Unit for fan control..”
5. When the 3361 dialog box appears, select from the pull down menu under the Fan
control information area, one of the fans that was added in the previous steps as shown
below. The final tree view should look like the right side as shown below.
6. On the 3361 properties shown above, select the required configuration as follow:
Select whether In0 required to be supervised or non-supervised.
Relay output Re0 and Re1 output to be latched or non-latched.
33
Technical/Programming Manual
36
37
38
FT1020G3 Rev 2.2.1
Enhanced mode for independent configuration of Re0 and Re136 .
Enhanced mode for independent configuration of Re0 and Re137 .
Write the logical expression for Re0 and Re1 (enhanced mode only38).
Fault detection time is set to 30 seconds by default, change time if required.
Select Re0 and/or Re1 type “Fire ventilation” (default).
If a supply air fan is to be configured, on the “Output signal period” on Re0 and/or
Re1 dropdown menu select “Supply Air Fan” as shown in step 7.
7. For supply air fan applications, set the post timing required to reset the duct detector
as follow:
On the “System” tab, select “Output signal period”.
In the displayed dialog box shown below, select one of the “Undefined” options
Re-name the “Undefined” to Supply Air Fan or any other name then click edit as
shown below.
On the drop down menu, select “Steady, delayed de-activation”
In the de-activation box, enter 75, this will set the post timing of the duct smoke
detector to 60 seconds i.e. the duct detector will reset after 60 seconds of clearing
up the smoke.
Click ok.
6.1.4 Fan Reset
A fan reset button is added to the front display of the fan control module to comply with the
requirements of AS1668.2 and used to independently reset 3361 relays Re0 and Re1 in
fire mode conditions. The two relays should be programmed in EBLWin to be “Latched” i.e.
resetting the alarm in the CIE will not bring the fans to the non-fire mode condition until the
reset button is pressed. If the alarm remains active in the CIE, the fan reset button will not
function. The fan reset function can be selected in EBLWin to be either local reset or global
(Default) reset.
To change this setting in EBLWin select, System I Properties which will bring up the System
Properties dialog box then select the “Page 2” tap. Check/uncheck the box against “Global
Reset of Fan Control Outputs” accordingly
In non-enhanced mode, if Re0 is normally open, Re1 will automatically be normally closed and vice versa. If "Enhanced fan
control” function is selected, Re0 and Re1 tabs will be available for individual programming.
In non-enhanced mode, if Re0 is normally open, Re1 will automatically be normally closed and vice versa. If "Enhanced fan
control” function is selected, Re0 and Re1 tabs will be available for individual programming.
In non-enhanced mode, only Re0 requires logical expression hence Re1 will follow same logical expression.
34
Technical/Programming Manual
FT1020G3 Rev 2.2.1
By unchecking this box option, local reset will be selected. This means that the reset
control will reset only fans connected to the same fan module. If more than one fan control
module is used within the CIE and the “Global Reset…” is selected, pressing any reset
button on any fan control module will reset all fans controlled by any CIE in a network
system.
CAUTION: Global reset should only be selected where the management in use plan
considers the network control as a whole.
6.1.5 Fan Front Display
The fan control and display module is normally mounted in the CIE but it is also possible
to remotely install the module and connect it to a COM loop and 24VDC supply. The fan
operation is controlled by Re0 and Re1 relay outputs on the 3361 unit. The feedback signal
from the fan pressure switch is connected to the supervised input of 3361 to provide the
required indications of the fan status.
The typical front display of AS1668 module and connection diagram are shown in Figure
13, page 37.
Two typical fan application examples are shown in the following sections.
6.1.6 Supply Air Fan
A supply air fan is normally running in the non-fire mode condition and stops when smoke
is detected in the air supply duct. Timing sequence is shown in Figure 11 below.
Figure 11 Supply air time delay setting
35
When the smoke is no longer present in the supply air duct, a time delay (45-75 Sseconds)
starts, the fan remains in the shutdown mode until the time delay is elapsed, then the duct
detector resets and causes the fan to restart. The presence of smoke in the supply air does
not initiate a Fire Brigade TX signal or any other alarm output (type, quiet alarm). The
Occupant Warning System does not sound. Only the “FIRE’ and general alarm indicators
will be flashing and a quiet alarm message displayed.
Notes related to supply air fan applications:
1. Only analogue smoke detectors can be used in supply air fan applications.
2. The detector used in supply air fan applications must be selected as a “Quiet
Alarm” i.e. check box in EBLWin program is ticked.
3. One detector, several detectors or a zone can be programmed to control the
supply air fan.
4. A time signal period output must be configured in EBLWin as shown in section
6.1.3, step 7 to set up time delay (post timing) which is normally 60 seconds
6.1.7 Smoke Exhaust Fan
Technical/Programming Manual
FT1020G3 Rev 2.2.1
Figure 12 Smoke exhaust or spill fan timing
The smoke exhaust fan is normally controlled by general fire alarm, single device or a zone.
Both analogue detectors and conventional zones can be configured to control the fan.
Standard time signal period output can be used.
Typical AS1668 fan example is shown in Figure 13
36
Technical/Programming Manual
C OM C OM
N /O N /O
N /O N /O
C OM C OM
LOOP IN LOOP IN
LOOP O U T LOOP O U T
R e0 Re0
R e1 Re1
Z Z
0V 0V
MO N ITOR E D
IN P U T
MO N ITOR E D
IN P U T
FA N S TOP
R E LAY
FA N S TART
R E LAY
R L1 RL1
R L2
E OL
CAP
E OL
CAP
470n 470n
470R 470R
I/O MODULE
3361
I/O MODULE
3361
24V DC / AC 24V DC / AC
STANDARD MODE
FA N S TART / S TOP
R E LAY
P R E S . S W ITCH OR C T
FA N S TATUS
P R E S . S W ITCH OR C T
FA N S TATUS
ENHANCED MODE
I/O Matrix
board
COM loop
24VDC
3361
Fan
3361
Fan
3361
Fan
3361
Fan
Fan control
board
Or 24VDC from
external source
FaultFault Fault Fault
RunningRunning Running Running
Stopped Stopped Stopped
FF F F
AA A A
NN N N
On OnOnOn
Auto AutoAutoAuto
Off OffOffOff
Fan
Reset
LED
Test
Stopped
1668 FAN CONTROL
FT1020G3 Rev 2.2.1
Figure 13 AS1668 Fan Control Example
6.2 Zone control
The Zone Control Module provides a simplified indication of zone status without the need
for a liquid crystal display. The disable control allows a specific zone to be temporarily
disabled without the need to access the CIE menu. This is typically used where building
works or maintenance procedures are being carried out in a localised area of a building.
The front display layout is shown as part of Figure 14 below.
Each zone control module consists of a universal I/O matrix 4582 plugged in a display
board SUB900 specifically configured to provide up to 12 individual zone indicators and
controls. The module is normally mounted in the CIE. but it is also possible to connect the
module externally via a COM loop and 24VDC supply.
6.2.1 Controls & Indications
Alarm LED (Red) – Illuminates when an alarm from a conventional zone, an addressable
device or group of addressable devices designated as a zone enters into an alarm state.
Fault LED (Amber) – Illuminates when either a short circuit or open circuit fault on a
conventional zone line input or any fault that prevents an addressable alarm point in a
designated zone to operate properly.
37
Technical/Programming Manual
Or 24VDC from
external source
COM Loop
24VDC
Zone Control & indicating board
SUB900
I/O Matrix Board
4582
Disable DisableDisableDisable
Disable DisableDisableDisable
Disable DisableDisableDisable
LED
Test
DS DSDSDS
DS DSDSDS
DS DSDSDS
AL ALALAL
AL ALALAL
AL ALALAL
FT FTFTFT
FT FTFTFT
FT FTFTFT
ZONE CONTROL
FT1020G3 Rev 2.2.1
Disabled LED (Amber) – Illuminates when a zone is disabled either by the disable switch
on the zone control card or where the zone is disabled via menu H2/B1.
Disable Switch –Pressing the disable switch will disable the specific zone selected.
Pressing the switch a second time will re-enable the zone. Functions are the same as menu
H2/B1.
LED Test Switch – Pressing the LED test switch illuminates all indicators, if Input 15” is
selected when programming the zone control function.
Figure 14 Zone Control Connection
6.2.2 Zone Control Configuration
When the I/O Matrix board is selected in EBLWin to “Zone Control” type, up to 16 zones
[0-15] can be configured. The display Board is limited to only 12 zones and one additional
switch for LED test. The following procedures are used to configure the zone control
module:
1. Right click on a COM loop and “Add I/O matrix board 4582” then select “Add zone
control”. The following dialog box will be showing.
38
2. Select the zone control module address (0-5) and zone control name (if required). If
the LED test function is required on input 15, tick the check box.
Note: The address selected in EBLWin (0-5) must match the address of the I/O matrix
board which is set by the jumpers JP1-JP3 as per Table 3 page 25. The type of board is
automatically selected.
3. Select the check box “LED test on Input 15” if this button is to be used for LED tests
or uncheck the box if LED test facility is not required.
4. Assign the zone number in the corresponding Zone control boxes.
5. Click OK.
6.3 Generic Applications
6.3.1 Overview
The generic feature in the FT1020G3 software supports the remote mimic applications of
the I/O matrix board 4582. Currently, this feature is used in the New Zealand Fire Brigade
mimic and index panels as well as other products e.g. remote generic inputs / outputs
termination 2212, remote inputs / outputs and relay output, and ASE interface for the NZ
applications. This section describes one of the main applications of the generic option, the
popular NZ index panel. Refer to Brooks technical datasheet TDS019 for other
applications.
Technical/Programming Manual
FT1020G3 Rev 2.2.1
Each master NZ mimic board provides 12 LED indications and screw terminals for 4 inputs
(switches). The first 3 LEDs used for Common Alarm (red). Normal (green) and Defect
(yellow). The remainder 9 LEDs (red) used to indicate separate zone indications or sprinkler
flow switch indication. Two of the four inputs are used to interface the NZ Fire Brigade
bulgin keys to the CIE. Additional slave mimic boards can be added to provide up to 36
additional red LED indicators.
Up to 4 mimic boards can be used to indicate maximum of 48 individual zone indications,
only one I/O matrix is required for every 4 mimic boards, up to six I/O matrix boards can be
used in the NZ mimic applications if no zone control modules are used. Refer to drawing
F781 for connection diagram. A typical NZ mimic application is shown in Figure 16 page
41.
6.3.2 New mimic options
The new design of the mimic boards allows for either LED indicators or screw terminals for
graphic or remote LED’s. Four new boards are now available as shown in Figure 15 below:
1. Master LED mimic Board SUB985: This must be the first board and to be fitted
with the I/O matrix board 4582. The board contains the first 3 common indicators
and additional 9 red indicators. It also contain terminals to connect the Bulgin keys.
All outputs / inputs are fully programmable.
2. Slave LED mimic board SUB986: contains 12 fully programmable red indicators,
no provision for terminals or connectors for the I/O matrix. Up to 3 slave boards
can be connected to the master board via plug-in connectors.
3. Master terminals mimic board: In addition to the connector for the I/O matrix
board and Bulgin keys terminals, it also contain terminals to connect 12 remotely
located LED’s (on-board LED’s are not fitted). The I/O matrix board is to be fitted
to this master board. The board can be utilised to connect existing LED mimics to
new FT1020G3 in retrofit applications.
4. Slave terminals mimic board: Up to 3 slave boards can be connected to the
master board via the plug-in connectors to provide terminals for additional 36 LEDs.
39
Technical/Programming Manual
FT1020G3 Rev 2.2.1
Master LED mimic board SUB985 Slave LED mimic board SUB986
Master Terminal mimic board SUB987 Slave terminal mimic board SUB988
Figure 15 Mimic Board Options
Note: Mounting holes of the new series of mimic boards are slightly different to the
mounting holes of the previous version (SUB927) i.e. new mimic LED boards must be
used in the new index cabinets.
6.3.3 Configuration and programming
The following procedures are used to configure the NZ mimic or index panel:
1. Select a COM loop then “Add I/O matrix board 4582” and select “Add generic”. The
following dialog box will appear:
2. Enter the generic address (0-5) (usually automatically assigned) in the general
information area and give it an application name e.g. NZ Index panel.
3. Select the check box “LED test on Input 15” if this button is to be used for LED test
or uncheck the box if not required.
4. Right click on the Generic Board (i.e. NZ Index
Panel as a given example) that was added in step
1 and choose from the context menu
as required (0-47) and enter the fields in the
40
Technical/Programming Manual
Or 24VDC from
external source
COM Loop
24VDC
Mimic board
SUB927
I/O Matrix Board
4582
FT1020G3 Rev 2.2.1
properties dialog box with its logical expression (similar to programmable relay
output).
5. Add input 0 and input 1 to program the Bulgin keys. Select type “NZ Silence switch”
for input 0 and assign the name to “Silence Alarms”. Select type “Evacuate” for
input 1 and assign the name to “Evacuate”.
A typical NZ mimic application is shown in Figure 16 below.
Figure 16 Generic application, NZ Index panel
6.4 Occupant Warning System (OWS)
6.4.1 Overview
Brooks OWS is an intelligent occupant warning system that can be incorporated in
FT1020G3 with number of options depending on the available space in the cabinet, larger
enclosures can be used to allow for more options.
Figure 17 Occupant Warning Display Module
41
Technical/Programming Manual
40
39
40
41
FT1020G3 Rev 2.2.1
The OWS is supplied with a wide range of high efficiency class-D audio amplifiers: 60, 120
or 250 Watts. A basic OWS system fitted in FT1020G3 supports the following standard
Features:
Digital voice messages for alert and T3 (or AS2220 evacuation tone)39.
Supervised trigger Input (short/open circuit fault)
Supervised dual Strobe 24VDC output for alert and evacuation strobes.
Supervised 100V speaker line output (open/short circuit fault).
Fault Relay output (changeover contacts)
Fault indicators for strobe output, trigger input and speaker circuit on OWS main
board. Only one common fault indicator on the front display.
Built in electret microphone.
Auxiliary input to connect to Brooks single or multiple zone remote microphones
Auxiliary audio enable/disable switch input.
An optional expansion 4 zone splitter board can be fitted with the standard OWS, maximum
of 4 boards can be used to provide up to 16 fully supervised speaker zone circuits.
The four zone splitter boards can be used to individually select one of the four zones (or all
zones) for PA announcement purposes only41. The PA front display can select up to 8 PA
zones and requires 2 x 4 zone splitter board.
6.4.2 Audio Amplifiers
60 Watt audio amplifier SUB865
120 Watt audio amplifier SUB866
250 Watt audio amplifier SUB867
Standard 60W OWS can be powered from the FT1020G3 power supply (battery backup
must be upgraded). When larger OWS is required e.g. 120W or 250W, separate power
supply and power supply supervision must be used. Larger amplifiers may require larger
cabinets depending on the space available.
6.4.2.1 60/120 Watt Amplifier Module
Features:
High energy efficiency class D amplifier design.
Available in 60W and 120W configuration.
Standby function to reduce power consumption.
Designed to mount on top of the main control OWS module to save space
In NZ applications, the OWS has to be configured to provide AS2220 tones and voice messages.
OWS faults are hardwired via this common fault relay to input I0 - 13 in FT1020G3 to display OWS fault on the LCD. In NZ
convention, I0 cannot be used, it has to be I1 - !3.
The tone / message is common for all zones, only PA can select one or multiple zones for announcement.
42
Technical/Programming Manual
AUDIO O UT
AUD IO I N
CAL .
STDBY
PCB218R1
SUB865/SUB866
(TX SEC)
VOL UM E
24Vdc
D12
R16
C13
R10
R8
R3
Q 20
Z1
VR2 VR1
U6
U4
U3U2
U1
R60
R59
R58R57
R56
R55
R54
R53
R51
R49 R48R45
R43
R42R41 R40R38
R37
R34 R33
R32
R31
R15
R13
R9
R7 R6R5 R4
R2 R1
Q 19
Q 18
Q 17
Q 16 Q 15Q 14 Q13Q 12 Q 11
Q9Q8 Q7Q6
Q4 Q3Q2 Q1
L2
L1
F1
D5 D4D3D2
D1
CON3
CON2
CON1
C34
C33
C31
C30
C29
C25
C24C23
C22
C21
C20
C19C18 C17C15
C12
C11
C10
C9
C8
C6
C5
C4
C3
C2
C1
C35
C36
C37
R12
D6 D7D8 D9
D10
D11
D13
D14
BROOKS AUSTRALIA
C7
FU SE
POWER
INPUT
STA N D B Y
AUDIO
INPUT
VOLUME ADJU C TMENTCALIBERATION
(FA C TO R Y U SE ON LY)
TO SPEAKER /
100V AU D IO TRANSFORMER
Function
60W version
120W version
Voltage input range
20 to 32VDC
Fuse rating
5 A (blade fuse)
7.5 A (blade fuse)
Low voltage shutdown
15 V (approx)
Audio input impedance
10 kΩ
Output load
4 Ω
2 Ω
Amplifier quiescent Current 42
40 mA
Total OWS quiescent current) 42
118 mA
119 mA
Total OWS active current – full load 42
2.8 A
5.17 A
42
FT1020G3 Rev 2.2.1
Figure 18 Class-D 60W / 120W Audio Amplifier Board Layout
60 Watt 120 Watt
Figure 19 60W / 120W Audio amplifier photos
Table 6 OWS 60/120W amplifier specifications
Current measured at 27V supply
43
6.4.2.2 250 Watt Amplifier Module
AUDIO OUT
O VER- CURRE NT
AUDI O I N
CAL.
ST D BY
VO LUM E
PO W E R I N ( 2 4V dc )
C1 5
Z3
Z2
U5
R2 9
R2 8
R2 7
R2 6R25
R2 4
R2 3
R2 2
R2 1 R 20
R1 9
Q 2 6
Q 2 5
Q 2 4 Q 2 3
L ED 1
D1 9D1 8
C2 6
C1 6
C1 4
D1 2
R1 6
C1 3
R1 0
R8
R3
Q 2 0
Z1
VR 2 V R1
U6
U4
U3U2
U1
R6 0
R5 9
R5 8R57
R5 6
R5 5
R5 4
R5 3
R5 1
R4 9 R4 8R4 5
R4 3
R4 2R4 1
R4 0
R3 8 R3 7
R3 4
R3 3
R3 2
R3 1
R1 5
R1 3
R9
R7 R6R5R4
R2
R1
Q 1 9
Q 1 8
Q 1 7
Q 1 6
Q 1 5
Q 1 4 Q 1 3Q 1 2Q 1 1
Q9Q8 Q7Q6
Q4 Q3Q2Q1
L2
L1
F1
D5 D4D3 D2
D1
CO N 3
CO N2
CO N1
C3 4
C3 3
C3 1
C3 0
C2 9
C2 5
C2 4 C2 3
C2 2
C2 1
C2 0 C1 2
C1 1
C1 0
C9C8C6
C5
C4
C3
C2
C1
C3 5
C3 6
C3 7
R1 2
D6 D7D8 D9
D1 0 D1 1D1 3
D1 4
BRO O KSAUST RAL I A
C7
D1 5D 16 D17
Q5 Q 1 0Q 2 1 Q 2 2
R1 1 R1 4R1 7 R1 8
SUB867PCB219R2
TO SPEA K ER /
100 V A U D IO TR A N SFO R MER
VO LU ME A D JU C TMEN T
A U D IO IN PU T
PO WER IN PU T
STA N D B Y
C A LIB ER A TIO N
( FACTORY USE O NLY)
FU SE
(15A )
Function
Rating
Voltage input range
20 – 32 VDC
Fuse rating
15 A (automotive blade fuse)
Low voltage shutdown
19 V (approx.)
Audio input impedance
10 kΩ
Output load
1 Ω
Amplifier Quiescent Current
42
40 mA
Total OWS quiescent current 42
119 mA
Total OWS active current – full load 42
10 A
High energy efficiency class D amplifier design.
Low voltage protection.
Over current protection
Standby function to reduce power consumption.
Technical/Programming Manual
FT1020G3 Rev 2.2.1
Table 7 OWS 250W amplifier specifications
Figure 20 Class-D 250W Audio Amplifier Board Layout
44
FT1020G3 Rev 2.2.1
Designator
Type
No.
Label
Pin
Description
CON1
Screw
terminal
1
24Vdc
+
Power input. 19V - 32V, 2.8A (60W), 5.2A
(120W), 10A (250W) 42
2
-
CON2
Screw
terminal
1
AUDIO IN
+
Audio input <=1 V
RMS
. Input impedance:
10K.
2
-
3
STDBY
Audio amplifier enable/disable input, logic
5V, <= 5mA. It is to minimize the unit power
consumption.
The amplifier output will be disabled when
the input is high.
CON3
Screw
terminal
1
AUDIO
OUTPUT
+
Audio output to the transformer secondary
side on the main control board. 16V
RMS
to
the associated different transformer.
2
-
Table 8 Connection of the Audio Amplifier 60W, 120W and 250W
6.4.3 OWS Volume Adjustment
All volume adjustments are made on the Audio Amplifier Module via the trimpot VR1 only.
This volume adjustment is given a reference designator, VR1 and named “VOLUME” on all
amplifier boards. This trimpot, VR1, is shown in both Figure 18 page 43 and Figure 20 page
44. Do not use VR2 for adjusting the volume at any time, VR2 is only used for factory
calibration purposes.
Technical/Programming Manual
The following procedures describe how to adjust the volume.
1. Manually turn on the evacuation tone.
2. Adjust the trimpot clockwise a little at a time to increase the volume on the audio
amplifier.
3. Then test or measure if the required audio level is met. Specious
4. Repeat 1 to 3 as necessary.
6.4.4 Auxiliary Audio inputs
The OWS provides an auxiliary audio input controlled by a supervised auxiliary enable
input. The auxiliary audio input can be connected to a background music source and
enabled via the auxiliary input. The auxiliary inputs are also used to connect the Brooks
remote desktop microphones. When the CIE is in quiescent conditions and the auxiliary
enable input is activated, the auxiliary audio is activated and remote PA announcement or
background music will be broadcasted across the speakers.
Note: Shielded cables must be used for Audio signals and its shielding should be
connected to the CIE EARTH terminal, this is to reduce disturbances.
6.4.5 OWS Dual Strobe Output
The OWS Dual Strobe output circuit is shown in Figure 21. A small current flows through
one of the two strobes constantly, which is normally too small to activate the strobes in
normal conditions. The EOL resistor of the output is 47K, however, the EOL resistance may
vary based on the strobe model connected. Multiple dual strobes can be used.
Figure 21 Typical OWS Dual Strobe Control Circuit
45
Technical/Programming Manual
FT1020G3 Rev 2.2.1
6.5 Gaseous extinguishing system control module
6.5.1 Overview
The gaseous extinguishing system control module is provided for use as an option in
FT1020G3. The module comprises the following:
Control Board (SUB928) with software for CIE interface.
Display Board (SUB929)
CIE interface board (SUB943).
Front panel decal with interconnection cable
The gaseous extinguishing system provides outputs to the following Brooks gas ancillary
equipment:
A series of Brooks Warning Signs
Brooks Local Control Station (LCS)
Voice / Tone Electronic Sounder
Dual Strobe Module
The control module combined with other Brooks system components is designed to provide
the monitoring and control functions of a complete gaseous extinguishing system that
meets the requirements of the relevant clauses 7.1 to 7.6 of the Australian Standard
AS4214-2002 (including amendment 1). For more details, refer to FT2GAS Operation /
technical manual MA400.
The control module provides the following inputs / outputs:
Fully supervised gas release 24VDC output rated @ 5A maximum.
Fully supervised input circuits e.g. gas lock-off valve input, manual release input
and gas discharged sensor input.
Fully supervised system warning sign 24VDC output rated @ 0.5A maximum.
Fully supervised 2 wire system output 24VDC for level 1 and level 2 alarm to Brooks
warning signs (alarm 1 [+/-] & alarm 2 [-/+]) rated @ 3A maximum.
Gas release clean-contact relay output rated @ 2A maximum.
Gas Fault clean-contact relay output rated @ 2A maximum.
Gas Isolate clean-contact relay output rated @ 2A maximum.
Four-wire interface for Local Control Station (LCS). Both the local gas isolate
control and the local gas release control are fully supervised for open and short
circuit faults.
Adjustable gas release timer, set via a built-in DIP switch.
Note: the current rating above is the maximum current capacity of the outputs, a power
supply and battery calculations must be performed to ensure that the power supply
capacity is sufficient to run the system in full alarm condition without exceeding the
maximum current rating of the power supply. The gas module might need a separate
power supply with PSU supervision board and backup batteries
6.5.2 Display board (SUB929) & decal
The front decal of the gaseous extinguishing system is shown in Figure 22 below. The
display board SUB929 is mounted on the inner door behind the front decal.
46
Technical/Programming Manual
Gas Extinguishing
2nd Alarm -Timer Running
Gas Fault
Gas Discharged
Gas Initiated
Gas Disabled
1st Alarm
Gas Discharge Inhibited
Gas Externally Released
Service
Master Abort
Type
LED Name
Module Conditions
LED
Pattern
Alarm
1st Alarm
One zone or zone address in alarm
Fast
Flash
2nd Alarm – Timer
Running
Both zones or zone addresses in alarm
Gas Initiated
Gas release output activated
Gas Externally Released
External gas release control activated
Gas Discharged
Gas discharged sensor input activated
Fault
Gas Fault
Fault in any of the supervised inputs or outputs
Steady
ON
Disable
Gas Discharge Inhibited
Gas discharge inhibited via LCS isolate switch
Steady
ON
Gas Discharge Disabled
Gas discharge disabled by the service master
abort switch or the gas lock-off valve controls
Service Switch Active
Illuminates when the master abort switch is
activated
Service, Master Abort
Gas service master abort switch
FT1020G3 Rev 2.2.1
All LED indicators on the front display are covered by a polycarbonate decal clearly labelled
with their functions.
When the system sets in the normal condition, all LED indicators will be extinguished.
Figure 22 Gas Extinguishing Display Layout
The gaseous extinguishing system status indicating LEDs and flash patterns are described
in Table 9 below. The default state of the LED indicators is OFF, if it is not defined below.
Table 9 Gas Front Status LED Indication and flash Pattern
47
FT1020G3 Rev 2.2.1
43
6.5.3 Control board (SUB928)
The control board (SUB928) is mounted on top of the CIE interface board (SUB943), as
shown in Figure 23 below.
The gas control board SUB928 provides all the gaseous extinguishing control functions. It
provides the termination and supervision of all the field equipment.
6.5.4 CIE interface board (SUB943)
The CIE interface board (SUB943) is mounted at a suitable location inside FT1020G3
cabinet. It provides the required terminations to interface the gas control board SUB928 to
FT1020G3. This includes zone alarm, Zone fault, zone isolate and gas release conditions.
Technical/Programming Manual
Figure 23 Assembled Control & Interface Boards
6.5.4.1 Inputs from FT1020G3 to CIE interface board (SUB943)
The following inputs are provided in the gas interface board:
1. 24VDC supply (22-30V), 200mA to 3A based on system power calculation
2. Zone 1 & Zone 2 alarm input from FT1020G3, normally open clean alarm contact
for each zone or zone address required to activate the gas system.
3. Fault input43, zone 1 fault, zone 2 fault or power supply fault in the CIE will activate
the system inoperative sign. Fault input from FT1020G3 should be normally closed
clean contact.
4. Zone Isolate input, if any of the two zone inputs or zone addresses used to
release the gas is disabled (open contact), the system inoperative sign will activate.
6.5.4.2 Outputs from CIE interface board (SUB943) to FT1020G3
The following outputs from SUB943 are provided to indicate the gaseous extinguishing
system status in FT102G3 display via programmable inputs:
1. Gas isolate, relay output to indicate in FT1020G3 if the gas has been isolated.
2. Gas fault relay output to indicate in FT1020G3 if a fault exists in the gaseous
extinguishing system.
3. Gas release relay output to indicate in FT1020G3 if the gas has been released.
Individual zone fault output can be configured only in software ≥ V2.0.x.
48
7 Printer
The FT1020G3 control panel can be fitted with an optional printer. It is mounted on the
front face plate behind the lockable door and is connected to the MMI board 5011. Refer
to drawing F725-01
When the printer is mounted, the checkbox "Printer" has to be ticked in the EBLWin "Control
Unit properties" dialog box.
The following can be printed:
Alarms (Fire alarms – including test mode alarms & Heavy smoke / heat alarms,
etc.)
Disablements, etc. via menus H4/U1 – U2
Detectors activating service signal via menu H4/U5
The event log via menu H4/U7
The Control Unit information / configuration via menu H4/U8
Activated Interlocking inputs via menu H9/C1
Technical/Programming Manual
FT1020G3 Rev 2.2.1
The printer only – not the mounting frame - is available as a spare part, type number 5058.
49
Technical/Programming Manual
44
FT1020G3 Rev 2.2.1
8 TLON connection board 5090
The main control board 5010 in FT1020G3 CIE. provides space and connectors for two
TLON connection boards type 509044. In a single (standalone) Control Unit there is no
TLON connection boards mounted.
A system, with two or more Control Units, uses a single TLON Network or a redundant
TLON Network (i.e. two TLON Networks), see below.
Note: As per AS1670.1, redundant TLON network must be used. Single TLON Network
is not permitted unless the networking is inside the same enclosure e.g. network 2 x 5010
boards to increase the system capacity.
The TLON connection boards 5090 are mounted on the main board (5010) in the allocated
space as shown in drawing F726 and the networks are connected to the terminal block
"J4" on main board as shown in drawing F732-03. Typical examples of a redundant TLON
network connections are shown in drawing F738-01, F738-02 and F738-03.
8.1 Single TLON Network (not recommended)
In a single TLON Network (Network no. 0), the TLON connection board 5090 must be
mounted in position no. 0 on the main board. A single TLON Network is a violation to the
Australian standard AS1670.1 and can only be used to network two main control boards
5010 inside the same enclosure.
8.2 Redundant TLON network
In a redundant TLON Network (Network no. 0 and no. 1), the TLON connection boards
5090 are to be mounted in position no. 0 and position no. 1 on the main board.
Normally only Network no. 0 will be in use and in case of a network failure (i.e. open circuit
or short circuit), Network no. 1 will be automatically used until there is no fault on Network
no. 0.
See also chapter "TLON Network", page 14.
8.3 Network programming
The PC program TLON Manager is used for the TLON Network programming. TLON
Manager V1.X is replaced by TLON Manager V2.0.x.
Note: When the TLON Network is programmed, some unique data will be stored in the
TLON connection board 5090 memory and some unique data will be stored in the main
board 5010 memory.
When a TLON connection board is to be replaced (or replacing both a TLON connection
board 5090 and a main board 5010), do "Replace" and "Update" in TLON Manager.
When the main board 5010 is to be replaced (not the TLON connection board), do "Update"
only in TLON Manager.
TLON connection board type 5090 is a replacement of the older version 1590.
50
FT1020G3 Rev 2.2.1
45
46
9 Peripheral devices
Alarm points, analogue alarm points (detectors, MCP’s, etc.) are connected directly to a
COM loop. Conventional alarm points (detectors, MCP’s, etc.) are connected to a zone
line input in an 8 zones expansion board 4580 or in a COM loop unit e.g. 3361 zone line
input. Programmable inputs can also be used for flow switch inputs, etc.
Short circuit isolators must be used on the COM loops if more than 40 alarm points are
connected to a COM loop.
I/O Matrix boards are plugged "piggy back" to an Application board (Zone, Fan, Generic,
etc.), which is connected to a COM loop, refer to chapter Expansion boards 458x”, page
24.
Sounders, strobes, door holders, etc. are connected to COM loop output units e.g. 3361 /
3364 and/or to Control Unit outputs (S0-S3, R0-R1) and/or 8 relays expansion board (4581)
outputs. Addressable sounders (4477 / 3379) are connected directly to a COM loop.
Input devices e.g. timers, external faults, etc. are connected to programmable inputs i.e. to
COM loop unit (e.g. 3361) inputs and/or to the Control Unit inputs (I0-I3).
Technical/Programming Manual
Routing equipment is normally connected to the Control Unit outputs "Fire alarm" (for Fire
brigade TX) and "Fault condition" (for Fault TX). Also, any programmable output can be
used.
Remote Display Units are connected directly to the RS485 channel.
For more information, see the following Sections and the Product Leaflets on our web site:
http://www.brooks.com.au
9.1 COM loop units
Each COM loop (0-3) supports up to 255 addressable COM loop units 45, i.e. in total up to
1020 COM loop units. The total current consumption will vary depending on the type and
number of units, which will affect the cable length. See chapters "FT1020G3 cable length",
page 170, "Current consumption", page 174 and drawing F784-01.
Note: The Control Unit is normally factory set for 512 alarm points. However, the
FT1020G3 can be changed on site or in the factory to 1024 alarm point (via EBLWin)46.
The current configuration is shown in menu H4/U8. The units should be distributed as
evenly as possible on each COM loop and between the COM loops (0, 1, 2 and 3).
Conventional detectors can be connected to an 8 zones expansion board 4580 or to the zone line input (Z) on an addressable
I/O unit 3361.
This action require a special download password.
51
Technical/Programming Manual
FT1020G3 Rev 2.2.1
The following units can be connected to the COM loops in NORMAL mode (some units
can be used in different modes):
Notes:
The following loop units are not available in Australia or New Zealand:
1. Customized units: Customised I/O 1 (1=Exit Light),
2. Multi Detector with CO: 4402
3. Wireless Units: 4611, 4620
4. Aspiration Detectors: AE2010 L-P Aspect Lazeer, & AE2010N/G-P Aspect
Nitro/Grizzle
Notes:
1. The I/O 3361 Unit for Fan control is used only in the Fan control applications.
2. The Alarm Acknowledge Facility Control AAFC is used in conjunction with AAM.
Obsolete loop units (listed below) may be found in old installations and can be used in
FT1020G3 systems as well.
52
Technical/Programming Manual
FT1020G3 Rev 2.2.1
Notes:
3333/3339 can be used instead of 4433/4439 when the built-in short circuit isolator is not
to be used.
3377 can also be used instead of 4477 when the built-in short circuit isolator is not to be
used
Address setting
Each COM loop unit must have a unique COM loop address (001-255). This address and
the mode are set with an Address Setting Tool 3314 / 4414. Except otherwise stated, the
NORMAL mode is used in FT1020G3 (default). To set the detectors 440x in Advanced
Mode, the Address Setting Tool 4414 must be used.
9.1.1 Input units
Each COM loop input unit is added and programmed via EBLWin. Depending on type of
unit, the following to be programmed:
Technical address (COM loop address) 001-255
Name (normally not changed)
Zone number and Address within the zone
Alarm text (user definable)
Regular Alarm algorithm (some units only)
Options:
Alternative Alarm algorithm & Time Channel (some units only)
Alert annunciation & Time Channel (some units only)
Disablement & Time Channel (some units only)
Two-units-dependent fire alarm, i.e. co-incidence alarm & Time Channel (some
units only)
Delayed (fire alarm)
Quiet alarm
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FT1020G3 Rev 2.2.1
47
Figure 24 EBLWin properties dialog box for 4301 / 4401(Normal Mode)
9.1.1.1 Analogue Sensor Bases (ASB)
Technical/Programming Manual
An Analogue detector (Sensor) to be plugged in an Analogue base. The COM loop address
is set in the detector, see below.
3312 Analogue Base 3312 has screw terminals for the COM loop and an RIL. Prepared
for mechanical lock of the detector - if required. Recess for label holder (3391).
The base has an address label on which the plugged-in detector's COM loop
address can be written.
4313 Analogue Base with isolator. An Analogue detector (Sensor) is to be plugged in
4313. Terminals are provided for remote indicators (RIL). Prepared for mechanical
lock of the detector - if required. Recess for label holder (3391). It has also a builtin short circuit isolator (see page 64). The isolator's COM loop address is set with
the Address setting tool 3314 / 4414. The base has an address label on which both
the plugged-in detector's COM loop address and the isolator's COM loop address
can be written.
The Address setting tool 3314 / 4414 is also used for mode setting:
NORMAL mode: Used for 4313 in system FT1020G3.
9.1.1.2 Addressable Manual Call Points
4433 Addressable Manual Call Point47 with isolator. Conforms to EN54-11, replaces
3333. This MCP is similar to 3333 but it also has a built-in short circuit isolator. A
built-in LED will indicate that a fire alarm is generated, i.e. the glass is broken.
Routine testing can be performed with a supplied test key, without breaking the
glass. A hinged polycarbonate flap protects the glass from accidental triggering.
The COM loop address is set with the Address setting tool 3314 / 4414.
The isolator does not use any COM loop address
4433 is to be surface mounted in the supplied red back box or flush mounted as it
is mounted in the FT1020G3 cabinet.
For indoor use and in dry premises.
The Address setting tool 3314 / 4414 are also used for mode setting:
The manual call points have a response time < 5 s
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FT1020G3 Rev 2.2.1
NORMAL mode: The built-in short circuit isolator is in use. Programmed in
EBLWin as MCP type 4433 Flashing or non-flashing LED is set via EBLWin.
2330 mode: The built-in short circuit isolator is not in use. Programmed in
EBLWin as MCP type 333348. Flashing or non-flashing LED is set via EBLWin.
4439 Enclosed Addressable Manual Call Point
47
with isolator. Replaces 3339. 4439 is
same as 3339 unit but it has built-in short circuit isolator. The isolator does not use
any COM loop address. The Address setting tool 3314 / 4414 is also used for mode
setting same as 4433.
For indoor use in premises where IP56 rating is required. Operating temp. -10 to
+55°C.
Addressing and programming 4433/4439 with SCI
1. Connect the address setting tool to the MCP terminals SA and SB (without loop
connection).
2. Turn on the address setting tool then hold down both Write and Read buttons
simultaneously until “MODE: 0-3” appears.
3. Press “0” to select “M0 NORMAL” mode.
4. Enter the required technical address then press “write”.
In EBLWin, select 4433/4439 from the “Obsoleted units” and add to the desired Loop.
Addressing and programming 4433/4439 without SCI
1. Connect the address setting tool to the MCP terminals SA and SB (without loop
connection).
2. Turn on the address setting tool then hold down both Write and Read buttons
simultaneously until “MODE: 0-3” appears.
3. Press “1” to select “M1 2330” mode.
4. Enter the desired technical address then press “write”.
In EBLWin, select 3333/3339 from add loop unit and add to the desired Loop.
Notes:
1. Incorrect addressing mode or programming will cause the unit to report a “No reply
…..” fault in the Control Unit.
2. When 4433 or 4439 is used in FT512 system, the MCP must be addressed in 2330
mode and programmed as 3333 / 3339.
3. The short circuit isolator feature in 4433 or 4439 can be used only in FT1020G3 or
FT128
9.1.1.3 Analogue Detectors
3308 Analogue heat detector. To be plugged in an Analogue base (3312 / 4313 / 3379).
Built-in LED is lit to indicate that the detector has activated a fire alarm. Prepared
for mechanical lock (screw attached) if required. The COM loop address is set with
the Address setting tool 3314 / 4414. The detector has an address label on which
the programmed COM loop address can be written.
The Address setting tool is also used for mode setting:
NORMAL mode: 3308 is set in this mode in EBLWin to one of three algorithms
(static response temp. range) for class:
When 4433/4439 is used as a replacement for 3333/3339, in EBLWin, 3333/3339 must be selected (not 4433 or 4439).
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52
49
50
51
52
Zone-Addr.
001-01 (smoke)
001-02 (heat)
COM loop address
e.g. 123
Zone-Addr.
001-01(smoke or
heat)
COM loop address
e.g. 123
FT1020G3 Rev 2.2.1
A1 (54-65°C), min./typical/max. ambient temp. -20/+25/+50°C
A2 S (54-70°C), min./typical/max. ambient temp. -20/+25/+50°C
B S (69-85°C), min./typical/max. ambient temp. -20/+40/+65°C
3309 Analogue heat detector. Enclosed (IP67)49. Built-in LED is lit to indicate that the
detector has generated fire alarm. Terminals for remote indicator (RIL). Recess
for label holder (3391). The COM loop address is set with the Address setting tool
3314 / 4414. The Address setting tool 3314 is also used for mode setting:
NORMAL mode: 3309 is set in this mode in EBLWin to one of three algorithms
(static response temp. range) for class:
A1 (54-65°C), min./typical/max. ambient temp. -20/+25/+50°C
A2 S (54-70°C), min./typical/max. ambient temp. -20/+25/+50°C
B S (69-85°C), min./typical/max. ambient temp. -20/+40/+65°C
4300 Analogue multi detector. Discontinued and replaced by 4400 in normal mode, see
below. 4300 is a smoke detector and a heat detector within the same housing.
Scattered light (i.e. reflection of infrared light) is used to detect smoke and the heat
sensing element is a thermistor. The detector unit (actually the heat detector) can
detect a methylated spirits (alcohol) fire (EN54-9, test fire TF6; liquid fire), which
normally is impossible for a photo electric smoke detector to detect.
The detector has unleaded soldering.
To be plugged in an Analogue base (3312 / 4313 / 3379).
Built-in LEDs are lit to indicate that the detector 50 has activated a fire alarm.
Prepared for mechanical lock (screw attached) – if required.
Via EBLWin, the mode of operation can be selected as follow:
a) Two presentation numbers (addresses): The detector unit works as two
separate detectors. The smoke detector is programmed for one zone-address
and the heat detector for another zone-address51. (Can be used to disable
e.g. the smoke detector during working hours and/or in control expressions for
programmable outputs).
b) One presentation number (address): The detector unit works as one
detector and is programmed for one zone-address.
If alternative b) is to work with "OR-functionality" or with a "Decision algorithm",
program this via EBLWin using either of these functionality options:
b1) OR-functionality: Either the heat detector or the smoke detector will
activate fire alarm. This alternative is recommended in most cases.
b2) Decision algorithm:
Fire alarm will be activated if:
Temperature (°C) + adjusted smoke value
> 58.
This detector holds the ATEX classification: Ex II 3GD EEx nA II T5 (T 70°C), -20°C < Ta < 65°C.
i.e. the heat detector and/or the smoke detector.
The zone number has to be the same for both detectors. NOTE! When counting alarm points these "two detectors" are
Adjusted smoke value = obscuration (%/m) x 10. Default heat alarm levels (50°C / 58°C) and smoke alarm offsets (50 / 58)
Pre-warning will be activated if:
regarded as two alarm points.
can be changed via EBLWin. The temperature cannot be lower than 0°C in the algorithm / graph.
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Technical/Programming Manual
20°C => 3.8 %/m
↓ ↓
40°C => 1.8 %/m
FT1020G3 Rev 2.2.1
58 > temperature (°C) + adjusted smoke value 52 > 50.
The "Decision algorithm", see Figure 25, can be used to reduce false
alarms (nuisance alarms), because at a normal room temperature, more
smoke is required to activate fire alarm than when the room temperature
is high (or is rising). In a real fire condition, the room temperature will rise
rather fast and less smoke is required to activate fire alarm. Very little
smoke requires a "high" temperature to activate fire alarm and a lot of
smoke will activate fire alarm also at a "low" temperature.
Figure 25 Decision algorithm
When the calculated value in the decision algorithm exceeds the lower graph, prewarning will be activated. When it exceeds the upper graph, fire alarm will be
activated.
Temperature = °C. Smoke value = obscuration (%/m) x 10.
The Analogue multi detector's COM loop address (Technical address) is set with
the Address setting tool 3314 / 4414. The detector has an address label on which
the programmed technical address can be written.
Note: The multi detector 4300 in system FT1020G3 takes two COM loop (technical)
addresses of the available 255 addresses. One address that is set with the 3314 / 4414
tool but also the following address will be "occupied" for the heat part of the detector and
cannot be used by any other unit on the COM loop.
The Address setting tool 3314 / 4414 is also used for mode setting:
NORMAL mode: 4300 is set to this mode in EBLWin. For the smoke detector, set
to one of six algorithms H-15, H-35, L-15, L-35, N-15 or N-35 and for the heat
detector set to one of three algorithms for class A1 (static response temp. 5465°C), A2 S (54-70°C) or B S (69-85°C).
4301 Analogue photo electric smoke detector. Discontinued and replaced with 4401 in
Normal mode, see below. Scattered light (i.e. reflection of infrared light) is used to
detect smoke. To be plugged in an Analogue base (3312 / 4313 / 3379). Built-in
LEDs are lit to indicate that the detector has activated fire alarm. Prepared for
mechanical lock (screw attached) if required.
The COM loop address is set with the Address setting tool 3314 / 4414. The
detector has an address label on which the programmed COM loop address can
be written. The Address setting tool 3314 / 4414 is also used for mode setting:
NORMAL mode: 4301 is set in EBLWin to this mode to one of the six algorithms
H-15, H-35, L-15, L-35, N-15 or N-35.
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FT1020G3 Rev 2.2.1
4400 Analogue multi detector. Replaces 4300 in Normal mode, see above. 4400 is a
smoke detector and a heat detector in one housing. Scattered light (i.e. reflection
of infrared light) is used to detect smoke and the heat sensing element is a
thermistor. To be plugged in an Analogue base (3312 / 4313 / 3379). Built-in LEDs
are blinking to indicate that the detector 53 has activated fire alarm. Prepared for
mechanical lock (screw attached), if required. 4400 has slightly different design to
the 4300 detector and the smoke chamber net has even made with smaller holes,
this will keep insects and particles 54 larger than smoke particles out of the
chamber.
The COM loop address (Technical address) is set with the Address setting tool
3314 / 4414. The detector has an address label on which the programmed technical
address can be written.
The Address setting tool is also used for mode setting:
Advanced mode: Only the new Address setting tool 4414 can be used to set 4400
to “Advanced” mode. Note, the Address setting tool 3314 cannot be used to set
“Advanced” mode!
In Advanced mode, 4400 will use an algorithms in the detector for fire alarm
evaluation. It can be set to a Learning function or via EBLWin to one of five area
alarm algorithms (Normal, Clean, Smoke/Steam, Cooking/Welding or Heater area),
see chapter “Advanced mode” page 131.
An alternative smoke and/or heat algorithm can be used via one or two time
channels. 4400 has a green polling LED. Via EBLWin, the green polling LED can
be set to blink when the detector is polled or never blink. Note, the LED will not be
blinking if the detector is in Test mode.
In “Advanced” mode, only one COM loop address will be occupied for the multi
detector.
NORMAL mode: 4400 in this mode has to be programmed in EBLWin as a 4300
detector, i.e. the 4400 detector will work as a replacement for the Analogue multi
detector 4300 and two COM loop addresses will be occupied, see 4300 above.
The smoke detector part has to be set to one of six alarm algorithms H-15, H-35,
L-15, L-35, N-15 or N-35 and the heat detector part has to be set to one of three
alarm algorithms for class A1 (static response temp. 54-65°C), A2 S (54-70°C) or
B S (69-85°C). An alternative smoke and/or heat algorithm can be used via one or
two time channels.
4401 Analogue photo electric smoke detector. Replaces 4301 in Normal mode, see
above. Scattered light (i.e. reflection of infrared light) is used to detect smoke. To
be plugged in an Analogue base (3312 / 4313 / 3379). Built-in LEDs are blinking
to indicate that the detector has activated fire alarm. Prepared for mechanical lock
(screw attached) if required.
4401 has slightly different design to the 4301 detector and the smoke chamber net
has even made smaller with holes that will keep insects and particles 54 larger than
smoke particles out of the chamber. The technical address is set with Address
setting tool 3314 / 4414. The detector has an address label on which the
programmed technical address can be written.
The Address setting tool is also used for mode setting:
Advanced mode: 4401 has to be set to Advanced mode via only the Address
setting tool 4414. Note, the Address setting tool 3314 cannot be used to set
Advanced mode! In Advanced mode, this detector will use algorithms in the
I.e. the heat detector and/or the smoke detector.
For example dust, steam, etc.
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FT1020G3 Rev 2.2.1
detector for fire alarm evaluation. It can be set to a Learning function or via EBLWin
to one of three area alarm algorithms (Normal, Clean or Smoke/Steam area), see
chapter “Advanced mode” page 131.
An alternative area alarm algorithm can be used via a time channel. 4401 has a
green polling LED. Via EBLWin, the green polling LED can be set to either blink
when the detector is polled or never blink. Note, the LED will not be blinking if the
detector is in Test mode.
NORMAL mode: In this mode 4401 has to be programmed in EBLWin as a 4301
detector, i.e. the 4401 detector will work as a replacement of the Analogue
photoelectric smoke detector 4301 (see 4301 above) and has to be set to one of
six alarm algorithms H-15, H-35, L-15, L-35, N-15 or N-35. An alternative alarm
algorithm can be used via a time channel.
9.1.1.4 Conventional Detector Bases (CDB)
2324 Base. A conventional detector is to be plugged in a conventional detector base
2324. Built-in LED is lit to indicate that the detector plugged in the base has
activated fire alarm. Terminals for remote indicator (RIL) are provided.
9.1.1.5 Conventional Detectors
Technical/Programming Manual
4318 Combination heat detector. Rate-of-rise and fixed temperature, 59°C, heat
detector class A1R. Static response temperature range 54-65°C, ambient
temperature min./typical/max. -10/+25/+50°C.
Shall be plugged in a conventional detector base (2324).
4350 Multi detector. This detector is discontinued and will not be replaced. 4350 is a
smoke detector and a heat detector within one housing. Scattered light (i.e.
reflection of infrared light) is used to detect smoke and the heat sensing element
is a thermistor. In order to secure the fire detection and to reduce false alarms, an
AI function is used, i.e.
a. Combined heat and smoke sensing
b. Variable delay function
c. Adaptive learning function
4352 Photoelectric smoke detector. Discontinued and replaced with 4452. Scattered
light (i.e. reflection of infrared light) is used to detect smoke. An advanced alarm
algorithm is used to secure the smoke detection and to reduce false alarms, e.g. a
minimum of nine consecutive readings over the fire alarm level are required before
the detector goes into alarm. (One reading per sec.). To be plugged in a
conventional detector base (2324).
4452 Photoelectric smoke detector. Replaces 4352, see above. Similar to 4352 but 4452
has a little different design compared to 4352 detector (see 4401 above) and the
smoke chamber net has smaller holes. This will keep insects and particles54 larger
than smoke particles out of the chamber.
4375 Heat detector. Fixed temperature heat detector, 60°C, class A2S (static response
temp. range 54-70°C), latching, minimum/typical/maximum ambient temperature
-10/+25/+40°C.
To be plugged in a conventional detector base 2324.
4376 Heat detector. Fixed temperature heat detector similar to 4375 but 80°C, class BS
(static response temp. range 69-85°C), latching, minimum./typical/maximum
ambient temperature -10/+40/+60°C. To be plugged in a conventional detector
base 2324.
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56
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FT1020G3 Rev 2.2.1
6295 Heat detector: Enclosed (IP67) 55. Fixed temperature heat detector, 57°C, class
A2S (static response temperature range 54-70°C), latching. minimum./typical/
maximum ambient temperature -40/+25/+50°C. Built-in LED is lit to indicate that
the detector has activated a fire alarm. Terminals for a remote indicator (RIL) are
provided.
6296 Heat detector: Enclosed (IP67) 55. Same as 6295 but 72°C, class BS (static
response temperature range 69-85°C), latching. Minimum/typical/maximum
ambient temperature -40/+40/+65°C. Built-in LED is lit to indicate that the detector
has activated a fire alarm. Terminals for a remote indicator (RIL) are provided.
6297 Heat detector: Enclosed (IP67)
response temperature range 84-100°C), latching. inimum./typical/maximum
ambient temperature -40/+55/+80°C. Built-in LED is lit to indicate that the detector
has activated a fire alarm. Terminals for a remote indicator (RIL) are provided.
6298 Heat detector: Enclosed (IP67)
response temperature, range 114-130°C), latching. Minimum/typical/maximum
ambient temperature -40/+85/+110°C. No built-in LED but terminals for a remote
indicator (RIL) are provided to indicate that the detector has activated a fire alarm.
9.1.1.6 Accessories
3314 Address setting tool. Discontinued, replaced by 4414, is used to write or read the
COM loop units' technical address (001-255). It is also used to write or read the
mode, NORMAL or 2330 (see the unit respectively). A connection cable with
crocodile clips and tab terminals is supplied with the tool and can be used when
required.
Slide the ON/OFF switch to the ON position and wait for a beep. Plug the detector's
SA & SB terminals onto the tool's SA & SB terminals or, when required, use the
connection cable.56
How to read: Press "READ", wait for a beep and read the address and mode.
How to write: To select the mode, press "WRITE" and "READ" simultaneously
and/or write the address. Press "WRITE" and wait for a beep. ("READ" again as
a check).
55
. Same as 6295 but 87°C, class CS (static
55
. Same as 6295 but 117°C, class ES (static
4414 Address setting tool. Replaces 3314. Is used to write or read the units' COM
loop address (Technical address 001-255). It is also used to write or read the
mode (Advanced57, NORMAL and 2330), see the COM loop unit respectively for
mode information.
A connection cable with crocodile clips and tab terminals is supplied with the tool
and can be used when required.
4414 replaces 3314 but 4414 is only required when the 4400 and 4401 detectors
are configured for the Advanced mode.
Turn on the tool (On/Off/CLR button). A blinking curser and mode M0 will be
shown in the display. Plug the detector's SA & SB terminals onto the tool's SA
& SB terminals or, when required, use the connection cable 56
How to read: Press "Read", wait for OK, address and mode info and a beep.
How to write: To change the mode (if required) press "Write" and "Read"
This detector holds the ATEX classification: Ex II 3GD EEx nA II T5 (T 100°C), -40°C < Ta < 50°C.
Some units have flying leads for easier connection. After use they should be disconnected and thrown away.
Address setting tool 4414 has to be used to set the detectors 4400 and 4401 in Advanced mode. (Address setting tool 3314
cannot be used for the Advanced mode).
60
simultaneously, then press 0, 1, 2 or 3 for the mode respectively. Type the
58
59
60
61
62
address (1-255) and press "Write". Wait for OK, address, mode info and a beep
(Press "Read" again to confirm). More info. on
3390 Label holder. To be mounted on the Analogue base (3312 / 4313 / 3379)58.
Intended for a label with "zone-address", "technical address", etc. to be read also
when the detector is plugged in its base. 100 label holders per packet. Excel
labels.
3391 Labels for 3390. A packet with self-adhesive white labels for label holder 3390. 10
A4-sheets, 132 labels for laser printer usage. The print-out is done via EBLWin.
9.1.2 Addressable I/O units
3361 Addressable multipurpose I/O unit.59 COM loop powered unit.
The unit has two programmable inputs:
Monitored input
….used as zone line input (Z) (terminals 6 & 7): End-of-line capacitor 10uF 60
mounted in the last unit on the zone line. A short circuit on the input can generate
a fault or a fire alarm (set via EBLWin). This input is intended for conventional
detectors.61 Max. 1.5 mA, cable characteristic is max. 50 and max. 50nf.
Technical/Programming Manual
FT1020G3 Rev 2.2.1
the backside of the tool.
....used as general input (In0) (terminals 5 & 7): An input for NC or NO contacts
(set via EBLWin).
Isolated input (In1) (terminals 8 & 9): An optocoupler input (external 24 VDC / 8
mA is required). Normally low or high (set via EBLWin).
The unit has two programmable relay62 outputs:
Relay output (Re0): NC or NO contacts (set via EBLWin).
Relay output (Re1): NC or NO contacts (set via EBLWin).
Connections and examples, see drawings F733 & F735. Unit dimensions: (L x W
x H) 90 x 70 x 32 mm. A plastic protection cover is attached. The cover dimensions:
(L x W x H) 129 x 73 x 45 mm.
3361 is intended to be surface mounted and for indoor use in dry premises. When
required, the unit can be mounted in a Waterproof (IP66 / 67) box. 3361 has an
LED to indicate communication to the unit or alarm condition. For more
information, see the Product Leaflet. The COM loop address is set with the
Address setting tool 3314 / 4414. The unit has an address label on which the unit's
COM loop address can be written.
The Address setting tool is also used for mode setting:
NORMAL mode: Used for 3361 in system FT1020G3.
3364 Addressable 2 voltage outputs unit. The unit is connected to a COM loop. External
24VDC supply is required (via a 3366AU unit or FT1020G3).
Also in an enclosed analogue heat detector (3309).
The same physical unit (3361) is also used in AS1668 Fan control applications and has a separate dialog box in EBLWin
470nF is revised to 10uF.
It is via EBLWin possible to define this input function to be a manual call point ("Used as MCP"), i.e. it cannot be disabled via
a time channel, cannot included in two-unit dependence or cannot use the “AVF” function.
Relay contacts: max. 2 A @ 30 VDC / 125 VAC.
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FT1020G3 Rev 2.2.1
The unit has two programmable and supervised voltage outputs (VO0-VO1),
intended for alarm devices (e.g. sirens, strobes, etc.). An End-Of-Line capacitor
(470nF) is to be mounted in the last device, alternatively, a capacitor (470nF) in up
to five alarm devices (T-off).
The unit also has a special voltage output (VO2) intended for fire door closing only.
The trigger condition "Fire Door Closing" and the controlling detectors have to be
programmed. The "fire door closing function" is described on page 101 and besides
that function, the output VO2 will also not be powered for approx. 30 sec. after:
The "/Mains OK input" (terminal 8) goes high, see below.
The COM loop communication is interrupted i.e. 3364 has no connection
/ communication with the CIE
The unit has two inputs, i.e. one for power supply (24VDC) and one for "/Mains OK".
VO0: Normally low or high (set via EBLWin), 24VDC, 1 A63.
VO1: Normally low or high (set via EBLWin), 24VDC, 1 A63.
VO2: Normally high, 24VDC, 1 A.63 (Fire door closing function.)
24V DC: From an external power supply (unit 3366AU or FT1020G3)
/Mains OK: From an external power supply unit (3366AU). Normally low
= the main power source (230VAC) in the External power supply unit is
okay64.
For connections and examples, see drawings F733 & F737. Unit dimensions: (90L
x 70W x 32H mm. A plastic protection cover is attached. The cover’s dimensions:
129L x 73W x 45H mm. The unit is intended to be surface mounted and for indoor
use in dry premises. When required, the unit can be mounted in a Waterproof box
(IP66 / 67).
The COM loop address is set with the Address setting tool 3314 / 4414 while the
unit is powered. The unit has an address label on which the programmed
technical address is to be written.
The Address setting tool 3314 / 4414 is also used for mode setting:
NORMAL mode: Used for 3364 in system FT1020G3.
9.1.3 Alarm devices (addressable sounders)
4477 Addressable siren. Replaces 3377, the new 4477 is similar to 3377 unit but it has
a built-in short circuit isolator, refer to section 9.1.4 Short circuit isolators
(addressable) page 64. The isolator does not use any COM loop address.
The power to the siren is supplied via the COM loop, i.e. the number of sirens is
dependent on the type and number of other units connected to the COM loop.65
Three sound types (tones) and three priority levels are available.
Steady (continuous) 990 Hz
Intermittent (pulsed) 990 Hz, 0.5s / 0.5s (1 Hz)
Cont. 1 A, during 10 ms 1.4 A.
When the 24Vdc power to 3364 is supplied from FT128, this terminal must be connected to negative. To simulate “Mains Ok”
for 3364.
The number of 4477 + 3379 units must be < 50 per COM loop.
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66
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FT1020G3 Rev 2.2.1
Alternating (two-tone) 990 / 650 Hz, 0.25s / 0.25s (2 Hz)
For each level, an output control expression and a sound type is programmed (via
EBLWin). For more technical data, see the product datasheet.
The COM loop address is set with the Address setting tool 3314 / 4414 which is
also used for mode setting.
NORMAL mode: 4477 with the built-in isolator in use.
2330 mode: 4477 with the built-in isolator not in use. 4477 replaces a 3377 unit.
Note: See also Table 2 "Control Panel Limitation", page 18.
3379 Addressable sounder base.66 3379 consists of an Analogue base (3312) mounted
together with a sounder. 3379 is mounted in the ceiling. An Analogue detector can
be plugged in the base, which has screw terminals for the COM loop and a remote
indicator (RIL). Prepared for mechanical lock of the detector - if required. Recess
for label holder (3391). 3379 is COM loop powered, i.e. the number of sounder
bases is dependent on the type and number of other units connected to the COM
loop 65.
Three sound types (tones)
and three priority levels are available:
Steady (continuous) 3650 Hz
Intermittent (pulsed) 3650 Hz, 0.5s / 0.5s (1 Hz)
Intermittent (pulsed) 3650 Hz, 0.167s / 0.167s (3 Hz)
For each level, an output control expression and a sound type is programmed (via
EBLWin). High sound output (approx. 4.5 dB higher) can be selected via EBLWin
(more current will be required). For more technical data, see the Product datasheet.
The COM loop address is set with the Address setting tool 3314 / 4414. The unit
has an address label on which the programmed COM loop address can be written.
(The detector has its own COM loop address set via the Address setting tool).
The Address setting tool 3314 / 4414 is also used for mode setting:
NORMAL mode: Used for 3379 in system FT1020G3.
Note: See also Table 2 "Control Panel Limitation", page 18.
4380 Addressable beacon.68 The LED beacon is connected to a COM loop. It is powered
via the COM loop, i.e. the number of beacons is dependent on the type and number
of other units connected to the COM loop but max. 10 per COM loop. Red ABS
plastic housing and PC lens. The light output is 1 Cd and the flash rate is 1 Hz. An
output control expression is programmed (via EBLWin). For more technical data,
see the Product Leaflet.
The COM loop address is set with the Address setting tool 3314/4414. The beacon
has an address label on which the programmed address can be written.
The Address setting tool 3314 / 4414 is also used for mode setting:
NORMAL mode: Used for 4380 in system FT1020G3.
This unit has replaced the Sounder base 3378.
High tone can be selected via EBLWin V2.1.x and higher, more current will be required.
The addressable beacon is discontinued and will be replaced by new VAD’s
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69
4383 Light indicator. The light indicator 4383 is us ed as a complement to audible alarm
devices. It is of type A for indoor use. All electronics and the eight red LEDs
(visible 360°) are mounted in a transparent ABS housing. Flash rate is 1 Hz. 4383
is COM loop powered, i.e. the number of indicators is dependent on the type and
number of other units connected to the COM loop. The light indicator is plugged
in an analogue detector base 3312, 3379 or 4313 and an analogue detector is
plugged in the light indicator.
A control expression for activation has to be programmed, similar to a
programmable output or alarm device. It takes one COM loop address. For
more technical data, see the Product Datasheet.
The COM loop address is set with the Address setting tool 3314 / 4414. The unit
has a label for the COM loop address and another label for the detector's COM
loop address.
The Address setting tool is also used for mode setting:
NORMAL mode: Used for 4383 in system FT1020G3.
9.1.4 Short circuit isolators (addressable)
According to the Australian standard AS1670.1, at least one short circuit isolator must
be used every 40 alarm points on the COM loop. Up to 64 isolators can be used per
COM loop.
Technical/Programming Manual
Each COM loop short circuit isolator 4313 is to be programmed (via EBLWin) for the
following:
COM loop address 69
Name (Normally not changed)
Sequence Number (Serial Number in the COM loop's A-direction), 0-63 69
For connections, see drawing F733.
4313 Analogue base with isolator. 4313 is an Analogue base with a built-in short circuit
isolator. In case of short circuit on the COM loop, the number of disabled units will
be minimised. 4313 is a COM loop powered unit. For more information, see the
Product Datasheet. The COM loop address is set with the Address setting tool
3314 / 4414. The unit has an address label on which the programmed COM loop
address is to be written.
The Address setting tool 3314 / 4414 is also used for mode setting:
NORMAL mode: Used for 4313 in system FT1020G3.
Up to 64 isolators can be used, which give 65 loop segments. Each isolator has to be given
a Sequence Number, 00-63. The isolators have to be connected consecutively
(Sequence Number 00-01-02-03-04-05-06-07-08-09-10-11-12-13-14-15 … up to 63) in the
COM loop's A-direction.
Note: FT1020G3 has one built-in isolator in the-A direction (no. "A") and one in the Bdirection (no. "B").
Short circuit / cut-off (break) on the COM loop
See chapter "Short circuit isolators", page 94. See also FT1020G3 Operation Manual,
chapter "Fault messages".
The units 4433, 4439 and 4477 have a built-in isolator that doesn't occupy any COM loop address and the isolator’s Sequence
Number is set in the dialog box for the 4433, 4439 and 4477 unit respectively.
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FT1020G3 Rev 2.2.1
9.1.5 Built-in Isolators
The units 4433, 4439 and 4477 have a built-in isolators that do not require any separate
COM loop addresses, only the Sequence Number, 00-63. As an option, these units can be
used without the isolator in function. If so, they have to be programmed in EBLWin as if
they were 3333, 3339 and 3377 units and via the Address setting tool 4413 set to 2330
mode instead of NORMAL mode.
9.1.6 Units for Hazardous (Ex) areas
In hazardous (Ex) areas, Intrinsically Safe (IS) and approved products are required. The
IS alarm points are connected to an interface outside the hazardous area.
Normally the Analogue addressable units, IS smoke (2840) and heat 2841 detectors are to
be used. They are connected to an IS barrier unit (2842), which is connected to a CIE via
a COM loop.
Conventional units are connected via a Galvanic isolator MTL 5061 (2820) to an expansion
board 4580 Ex zone line input. See also drawings F728 & F736.
9.1.6.1 Galvanic isolators / IS barrier units
MTL5061 Galvanic isolator (2820). The isolator is used to connect conventional
intrinsically safe detectors and manual call points to an expansion board 4580 zone
line input (programmed in "Resistor-Ex" mode). The isolator has two zone line
inputs and two outputs (Channel 1 & 2) and is mounted in a Waterproof box
(IP66/67) which has to be mounted outside the hazardous (Ex) area, Four
compression glands for the cable entries and an End-Of-Line resistor (10K) with
an area >230 mm2 are supplied. Box dimensions (L x W x H): 175 x 125 x 150
mm. BASEEFA classification: EEx ia IIC T
Technical/Programming Manual
=60°C.
amb
2822 Isolated zone interface. The Isolated zone interface (2822) contains a waterproof
box (IP66/67) that is supplied with four compression glands for the cable entries,
an Isolated zone interface board (2823) mounted on a DIN rail, a DIN rail interface
intended for an I/O unit 3361 and one 8K2 EOL resistor. The box has to be
mounted outside the hazardous (Ex) area
A Galvanic isolator 2820 is to be connected to the Isolated zone interface 2822 (i.e.
to the Isolated zone interface board 2823), which is connected to a COM loop via
an Addressable multipurpose I/O unit 3361 that can be mounted inside the
waterproof box. (2820 and 3361 have to be ordered separately.) External power
supply 24 VDC (30 mA) is required. Box dimensions (L x W x H): 175 x 175 x 75
mm.
2842 Intrinsically safe (IS) barrier unit. The barrier unit is used to connect analogue
addressable IS detectors to a COM loop. The unit has connectors for COM loop
in / out, external power supply (24 VDC, 60 mA) and one IS COM line for connection
of up to 20 IS detectors 2840 and 2841. It is mounted in a Waterproof box
(IP66/67). Five compression glands for the cable entries are supplied. Box
dimensions (L x W x H): 280 x 280 x 133 mm. DEKRA: II (1) G [Ex ia Ga] IIC.
9.1.6.2 Intrinsically Safe mounting bases
YBN-R / 4 IS Intrinsically Safe mounting base (2812). In the base, an intrinsically safe
conventional smoke or heat detector can be plugged. The base has terminals for
the zone line (in/out) and for an RIL.
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FT1020G3 Rev 2.2.1
9.1.6.3 Intrinsically Safe photoelectric smoke detectors
SLR-E-IS Intrinsically Safe photoelectric smoke detector (2810).
A conventional photoelectric (optical) smoke detector, to be plugged in the
intrinsically safe mounting base. The detector has two built-in LEDs that are lit to
indicate that the detector has generated fire alarm. Zone classification: Cat. 1, 2
or 3. BASEEFA classification: II 1G EEx ia IIC T5 (-20°C < 55°C). Max 20 per
zone.
2840 Analogue IS smoke detector. An analogue / addressable photo- electric smoke
detector. The detector can be used with higher IP rating back- box. Three cable
glands are supplied with the back-box. The detector has one built-in LED to indicate
that the detector has generated fire alarm. The detector is programmed in EBLWin
as an analogue photoelectric smoke detector 4401 (in NORMAL mode) but it has
to be connected to a COM loop via an IS barrier unit 2842. ATEX class: Ex ia IIC
T5.
9.1.6.4 Intrinsically Safe heat detectors
DCD-1E-IS Intrinsically Safe heat detector. A conventional Rate of Rise heat detector,
fixed temperature 60°C (class A1), shall be plugged in the intrinsically safe
mounting base. Two built-in LEDs that are lit to indicate that the detector has
generated fire alarm. Zone classification: Cat. 1, 2 or 3. BASEEFA classification:
II 1 G EEx ia IIC T5, T
=55°C. Max 20 per zone.
amb
Technical/Programming Manual
2841 Analogue IS heat detector. An analogue / addressable heat detector. The detector
can be used with a back-box for higher IP rating. Three cable glands are supplied
with the back-box. The detector has one built-in LED to indicate that the detector
has generated fire alarm. The detector is programmed in EBLWin as an analogue
heat detector 3308 (in NORMAL mode) but it has to be connected to a COM loop
via an IS barrier unit 2842. ATEX class: Ex ia IIC T5.
9.1.7 Intrinsically Safe Manual Call Points
MCP 1A-R470SGIS Intrinsically Safe manual call point (2814). A conventional
outdoor manual call point (NO contact and alarm resistor 470 ohms). The call point
is connected to Galvanic isolator 2820. The call point is surface mounted with the
supplied back-box (IP67) and has two compression glands for the cable entries.
BASEEFA / ATEX classification: II 1 G EEx ia IIC T4, Ta = -30 to +70°C. Max 20
per zone.
9.1.8 Other COM loop units
3366AU External power supply. Conforms to AS7240.4. 3366AU is connected to a
COM loop, i.e. it is monitored from FT1020G3 and e.g. loss of the main power
source will generate a fault in FT1020G3. It can be used as power supply for
external equipment requiring 24 VDC with battery backup, e.g. the 3364 unit (see
page 61). It also has a "/Mains OK" output (normally low), intended to be connected
to the corresponding input on the 3364 unit.
An oyster metal enclosure 320W x 330H x 125D mm is used for 3366. There is
space for two maintenance-free sealed Lead-Acid backup batteries, 2 x 12V, 7Ah
or 12Ah as the second power source. Batteries with higher capacity (up to 65 Ah)
have to be placed outside the housing. There are cable inlets on the top, and back
sides of the housing.
The unit has one 24VDC power supply output for external equipment with up to
2.1 A or 0.85 A continuous current consumption, at the same time as battery
charging is in progress. In case of no battery charging e.g. fire alarm in the system,
the continuous current consumption can be up to 4 A.
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71
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The unit has one 24VDC 70 power supply output for external equipment with up
to 2.1 A or 0.85 A continuous current consumption, at the same time as battery
charging is in progress.71 In case of no battery charging e.g. fire alarm in the
system, the continuous current consumption can be up to 4 A.
It has a number of battery protection functions, e.g. monitoring high current output
and low battery voltage etc. For more information, see the Technical Description
and the Product Datasheet. See also drawings F737 & F733.
The COM loop address is set with the Address setting tool 3314 / 4414. The unit
has an address label on which the programmed technical address can be written.
The Address setting tool is also used for the mode setting:
NORMAL mode: Used for 3366 in system FT1020G3.
AAM Brooks Alarm Acknowledgement Module (AAM)72. The AAM is a box with an alarm
indication LED and a non-latching switch "Press to acknowledge & investigate
alarm".
One AAM per Alarm Acknowledgement Facility Control (AAFC) zone and up to 100
AAFC’s zones can be used. The COM loop address is set with the Address setting
tool 3314 / 4414. See also chapter "Alert Annunciation Applications” page 115.
The address setting tool 3314/4414 is used for address and mode settings:
NORMAL mode: Used for AAFC in system FT1020G3 version < V2.2.x
2330 mode: Used for AAFC in system FT1020G3 version ≥ 2.2.x
Note: The new local alarm acknowledgement unit (LAAU) 4445 is developed by
Panasonic, it is equivalent to Brooks Alarm Acknowledgement Module (AAM).
4445 Local Alarm Acknowledgement Unit (LAAU). The LAAU consists of a PCB with an
alarm indication LED and green non-latching switch for acknowledgement of an
alarm. The PCB is mounted on the rear of a white ABS lid. It can be wall mounted
in a 65mm circular mounting box. One LAAU per LAA zone and up to 100 LAA
zones per control panel can be used. The COM loop address is set with the
address setting tool 3314/4414. See also chapter “Alert Annunciation Applications”
page 115.
The address setting tool 3314/4414 is used for address and mode settings:
NORMAL mode: Used for 4445 in system FT1020G3 version ≥ V2.2.x
2330 mode: Used to program Brooks AAM.
Note: The programming in EBLWin and the operation of the Panasonic 4445 are typically
the same as for Brooks AAM but using different terminology i.e.
LAAU = AAM
LAA zone = AAFC zone
The mode setting is also different in software version ≥ V2.2.x
The rated output voltage for the main power supply is 24VDC ± 1%. Max. ripple 500 mVp-p. The rated output voltage for the
second power source (the backup battery) is 18 – 28VDC. NOTE! The voltage will, however, be decreased to approx. 15 V
while the output will be switched off in order to avoid damaging the batteries.
A current consumption of 0.85-2.1 A allows only the "low current charging mode", i.e. the battery capacity can be up to 26
Ah. A current consumption < 0.85 A allows the "high current charging mode", i.e. the battery capacity can be up to 65 Ah.
However, batteries larger than 12AH require different enclosure to suit.
The AAFC function in EBLWin V2.2.0 has been moved from “Add loop unit” menu tree to the “Obsolete loop unit” submenu.
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9.2 Units connected to the RS485 interface
Up to sixteen Display Units type Alert Annunciation Units 1736 and/or External
Presentation Units (1728) can be connected to the built-in RS485 interface (J4:37-38) in
FT1020G3. Connections, see drawing F732-03.
Note: Display Unit software version > 1.4.1 is required.
Address and S/W mode settings
The display and the push buttons (in the unit) are used to set the address, which also can
be changed via FT1020G3. The S/W mode must be set to xxxx – 1587 (xxxx = type
number). See the Technical Manual of 1728 and 1736.
The first unit is to have the address 00, the second unit address 01 and so on73. Follow
the Address setting instructions in the Technical Manual for each unit.
"Selective alarm presentation" can be programmed Via EBLWin, i.e. you can select which
alarms to be presented in each unit, see the Technical Manual for the unit respectively.
9.2.1 Alert Annunciation Units
When the Alert Annunciation (AA) function is to be used in system FT1020G3, a unit is
required for the related manoeuvres, i.e. to acknowledge / reset the AA alarms. For a
detailed description of the Alert Annunciation function, see chapter ”Alert Annunciation",
page 114.
1736 Alert Annunciation Unit (AAU). A compact size enclosure 145H x 220W x 50D mm
made of grey high impact ABS. Fitted with a supplementary "O" ring gasket, it
complies with IP61, in respect of dust and moisture. The unit has no door, i.e. the
front is accessed directly but the push buttons are disabled until an alarm is
received. The unit should be wall mounted. Two compression glands are included.
All or selected fire alarms will be presented in a display (alphanumeric LCD, 2x40
characters), with back-light. An alarm text will also be presented together with each
alarm, if programmed in FT1020G3. Furthermore, at least 617 texts can be stored
for selected fire alarms in the unit and will in such a case be shown, instead of the
texts sent out from FT1020G3 for these alarms. These text messages will be
downloaded to the unit via FT1020G3. A built-in buzzer will sound to indicate a
non-acknowledged AA alarm.
New software versions can be downloaded directly in the unit. The unit is powered
from FT1020G3 or an external power supply.
The unit has the following LEDs:
Fire and Alarms queued, indicating fire / AA alarm.
Operation, indicating that the unit is in operation, i.e. the AA function is enabled in
the system. A time channel can be used to enable the AA function.
Fire brigade alerted, indicating that the "Fire brigade TX" output is activated in
FT1020G3 due to:
the activated fire alarm is not an AA alarm
the AA function has been terminated, e.g. the acknowledge or investigation
time respectively has run out, etc.
Acknowledge, indicating that the AA alarm has been acknowledged.
The connection order on the line is not dependent on the unit address.
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74
74
The unit has the following push buttons:
Alarms queued, used to scroll amongst the alarms.
Acknowledge, to acknowledge an AA alarm and also silence the buzzer.
Silence alarm devices, used to silence OWS or sounders.
Reset, used to reset an AA alarm.
The unit must run in S/W mode 1736 – 1587, which has the highest performance
in regards to functionality, response time, ability to store alarms, etc.
Up to 1200 m cable can be used for RS485, the 24V supply cable length is mainly
dependent on the cable size. Refer to section “Remote Display Units cables” page
168. For more information, see 1736 Technical Manual.
9.2.2 External Presentation Units
1728 External Presentation unit (EPU). Same enclosure as 1736 except that there are
2 more buttons on the 1736 not exist in 1728, namely the Silence Alarm Devices
and Reset buttons also the Acknowledge button is renamed in 1728 to Silence
buzzer. The push buttons are disabled until an alarm is received. The unit is to be
wall mounted. Two compression glands are included.
Technical/Programming Manual
This unit is intended for pre-warning, co-incidence
, fire (and heavy smoke / heat)
alarm presentation. If there are two or more alarms in the system, you can scroll
amongst them but the fire alarms cannot be reset via this unit.
All or selected alarms will be presented in a display (alphanumeric LCD, 2x40
characters), with back-light. An alarm text will be presented together with each
alarm, if programmed in FT1020G3. Furthermore, at least 617 texts can be stored
in the unit for selected fire alarms and will be shown in such a case, instead of the
texts sent out from FT1020G3 for these alarms. These text messages will be
downloaded to the unit via FT1020G3.
Any fault in the system will be presented as "General fault in system", a built-in
buzzer will sound similar to FT1020G3 buzzer and can be silenced. Any
disablement in the system will be presented as "General disablement in system".
The buzzer can be silenced but the alarm devices in the system e.g. OWS,
sounders, etc. cannot be silenced via this unit. New software versions can be
downloaded directly in to the unit. The unit is powered from FT1020G3 or an
external power supply. The unit must run in S/W mode 1728 – 1587 which has
the highest performance in regards to functionality, response time, ability to store
fire alarms, etc.
The number of units that can be powered via FT1020G3 (or an external power
supply) is dependent on all other units connected to the same CIE / external power
supply.
Up to 1200 m cable length can be used for RS485. The 24VDC supply cable length
is mainly dependent on the cable size. Refer to chapter “Remote Display Units
cables” page 168. For more information, see External Presentation Unit 1728
Technical Manual.
Two zone / address dependence.
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9.3 Units connected to the RS232 interface J7
9.3.1 Web-servers
1598 Web-server II. This unit can be used in the following applications:
a) For presentation of the actual CIE status on a PC using a web browser such
as Microsoft Internet Explorer. It can also send e-mails in case of pre-warning,
fire alarm, fault, disablement and test mode alarm and/or service signal.
b) For remote control via two-way communication. Up to 10 User names with an
individual Password 75 and three different access levels.
c) As a gateway to other PC systems etc.:
c1) EBL Talk (RS232 or TCP/IP) is an open protocol, used to transmit and
present fire alarm information in a separate PC / system.
c2) Tateco (RS232) used to transmit and present fire alarm information in an
Ascom Tateco paging system.
c3) SIA (RS232) used to transmit and present fire alarm information in a
separate PC application.
c4) MODBUS (RS232) used to transmit and present fire alarm
information in a separate PC application.
d) As a gateway to a security management system via EBLnet. (TCP/IP) EBLnet
licence required.
The Web-Server has to be preconfigured with proper TCP/IP protocols using
@CHIPTOOL before setting up the Web-Server SSD configuration in the PC
program EBLWin. The Web-Server SSD configuration is downloaded to the WebServer via TCP/IP using an Ethernet cable. The Web-Server software is also
downloaded via the PC program EBLWin.
The Web-server II consists of a light grey plastic enclosure (90x25x69.5 mm),
which can be mounted on a 35 mm DIN rail inside the FT1020G3 CIE
Web-server II has the following interfaces:
RS232 (PLC COM) to connect the web-server to J7 in the FT1020G3 CIE
RS232 (MODEM COM) to connect the web-server to other PC / system
RJ45 (10 BASE-T) to connect the web-server to Internet / an intranet (LAN)
Molex 3.5 to connect the web-server to J3 (24 VDC) in the FT1020G3 CIE
Details for setting up the Web-Server is found in MA440 Web Server II Manual Rev
1.0 for FT1020G3 and FT128.
9.4 Other units
9.4.1 External LEDs
BARIL Remote Indicator RIL. Used when a detector is placed out of view or hidden e.g.
roof space detectors. The LED is lit at the same time as the LED in the detector /
base that is connected to. It has a "Burning house" symbol instead of any text.
BARIL can be connected to all types of Panasonic detectors / bases. The input is
polarised.
Consists of 6 digits.
J2:1 (+5 to +35 VDC) for Conventional detectors / bases
J2:2 (< 25 mA) for Analogue detectors / bases
J2:3 (0 V)
To be wall mounted (87 x 87 x 39 mm)
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FT1020G3 Rev 2.2.1
9.4.2 Alarm Devices (sounders, etc.)
Regarding addressable alarm devices, see page 62.
The alarm devices used in FT1020G3 can be one or two of the following equipment:
1. Occupant Warning System (OWS) with different power output built in FT1020G3
and provides a supervised 100V speaker circuits and 24VDC dual strobe output.
2. 24VDC strobes or alarm bells connected to S0 – S3.
3. Full EWIS system interfaced to FT1020G3.
Connections of alarm devices according to drawings F732-02 and F737.
9.4.3 Magnetic Door Holders
Different magnetic door holders to suit the applications are required. A separate 24V nonbattery backed power supply is recommended. Door holders must be provided with a
"suppression diode" (e.g. 1N4004) in parallel with the coil, similar to the alarm devices, see
drawing F732-02. Typical example is shown in Figure 26.
Technical/Programming Manual
Figure 26 Connection example of 2A MDH power supply
9.4.4 Duct Detector Chambers
6377 Duct Detector Chamber UG-4. The housing is made of grey ABS and the venturi
pipe is made of aluminium. It is supplied with four IP65 glands for cable entry.
6377 can be used in conventional as well as Analogue fire alarm systems,
depending on the base and detector mounted inside the housing (base 2324 +
4452 or base 3312 + 4401). The venturi pipe is available with or without a built-in
fan and in three lengths (0.6, 1.5 & 2.8 m). The pipe can easily be shortened to
suit the ventilation duct. Mounting bracket and filters are also available. For more
information see Duct Detector Chamber Datasheet.
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10 Programmable inputs
Four non-supervised programmable inputs are available in FT1020G3 (I0-I3).
In FT1020G3 the Inputs and Outputs expansion board 4583 can also be mounted, five
programmable inputs (Input 0-4) are available which can be configured to be supervised or
non-supervised. See chapter "Expansion boards 458x", page 24.
On the COM loops, the addressable multipurpose I/O unit 3361 with two programmable
inputs can be connected. Each 3361 unit has two programmable inputs (In0/Z and In1),
supervision is not configurable.
Each input is programmed via EBLWin as per the dialog boxes shown in Figure 27 below.
Technical/Programming Manual
Figure 27 EBLWin "Input" dialog boxes
Different trigger conditions require different additional information, i.e. only the enabled
fields can be filled in.
Note: The 3361 unit, Input 0, has a special input dialog box.
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FT1020G3 Rev 2.2.1
Line resistance R
Normally Open
(high resistance)
Normally Closed
(low resistance)
R > 6K8
Open circuit (cut-off)
Open circuit (cut-off)
6K8 > R > 2K (nom. 3K3)
Not activated
Activated
2K > R > 70 (nom. 680)
Activated
Not activated
R < 70
Short-circuit
Short-circuit
76
10.1 Control Unit Inputs I076-I3
Normally Open (R > 20K) or Normally Closed (R < 500)
Activation time: > 1 sec.
Connections, see drawings F732-02.
10.2 Inputs 0-4 on expansion board 4583
For connections, see drawings F731.
10.2.1 Not supervised
Normally Open (R > 20K) or Normally Closed (R < 500)
Activation time: > 10 sec.
10.2.2 Supervised
Each supervised input can be in one of four different states shown in Table 10:
Open circuit (cut-off)
Technical/Programming Manual
Not activated (quiescent)
Activated
Short-circuit
Depending on the selected logic, Normally Open (high resistance) or Normally Closed (low
resistance), the four conditions in the table are valid.
Table 10 State of the Supervised Inputs 0-4
Input line fault
If open circuit (cut-off) or short-circuit is detected on a supervised input, a fault will be
generated in FT1020G3 and the following fault message will be displayed:
10.3 The 3361 unit Inputs In0 / Z & In1
Input I0 in the New Zealand convention cannot be programmed, it is used to restart the software when the processor freezes
as required by NZS4512.
FAULT: Input x expansion board x,
Control Unit xx
Connections, see drawings F733 and F735.
73
10.3.1 Input In0
Input 0 can be used as a general input (In0) – same as the CIE inputs I0-I3 or used as a
zone line input (Z) requiring an End-Of-Line capacitor (10 uF).
10.3.2 Input In1
Input 1 is an isolated optocoupler input requiring a NO / NC contact and external 24VDC (8
mA).
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FT1020G3 Rev 2.2.1
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11 Input programming
Input programming is performed in EBLWin. Each input must have an individual Trigger
condition "Type" and Logic. It is not allowed to let two or more inputs have the same trigger
condition for some inputs.
11.1 Trigger conditions
The following trigger conditions are available (numbering only for the comments below):
0. Activated output (specified COM loop unit output)
1. Activated fault routing equipment (one input per C.U.)
2. Activated Fire Ventilation (one input per C.U.)
3. Activated key cabinet (one input per C.U.)
4. Activated Routing Equipment (one input per C.U.)
5. Alarm Key Cabinet (one input per Control Unit)
6. Alert Annunciation Acknowledge
Technical/Programming Manual
7. Alert Annunciation Reset
8. Door Closing Test Input
9. Evacuate (one input per C.U.)
10. External Fault (max. 50 inputs per system)
11. External Time Channel (one input per time channel. 49 external time channels
e.g. 1049 are available per system)
12. Extinguishing alarm
13. Extinguishing start 77
14. Extinguishing stop 77
15. Extinguishing system fault (one input per C.U.)
16. Extinguishing system released (one input per C.U.)
17. Fault Signal External Fuses (one input per Control Unit)
18. Fault Signal External Power Supply (one input per Control Unit)
19. Fault warning routing equipment fault (one input per C.U.)
20. General Fire (max. 127 per C.U.)
21. Interlocking (400 inputs per C.U. / 4000 per system)
22. Loss of battery charger to external power supply (one input per C.U.)
23. Loss of main power source to external power supply (one input per C.U.)
24. Not used
25. NZ Silence switch78 (one input per system)
26. Pre-warning (input and corresponding fire alarm input have to be "connected" to
the same C.U.)
27. Technical warning (max. 100 per C.U.)
All inputs and outputs involved have to be connected to the same C.I.E.
Only valid for the New Zealand convention.
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FT1020G3 Rev 2.2.1
28. Zone Line Input79
Comments to the trigger conditions (above):
0. This trigger condition should be used in conjunction with a programmable COM
loop unit output in order to test / activate the output via this input. The output is
active as long as the input is active. This is valid even if the output is disabled.
1. "Activated Fault routing equipment" signal (feed-back) to FT1020G3 will light the
LED "Fault TX activated" on the front membrane. Output with trigger condition
"Indication Fault TX Activated" will be activated.80
2. Activated Ventilation equipment feedback to the FT1020G3 Control Unit to light up
the LED "Ventilation".81
3. Output with trigger condition "Activated Key cabinet" will be activated.
4. Activated Fire brigade TX feedback to the FT1020G3 Control Unit to light up the
LED "Fire brigade TX".81
5. Key cabinet (for fire brigade) will activate a Key cabinet alarm. This feature is not
used in Australia or NZ due to different fire brigade requirements.
6. Alert annunciation, see chapter "Alert Annunciation", page 114 and FT1020G3
Operation Manual for more information.
7. Same as 6.
8. "Fire door closing" outputs will be activated for 20 seconds by this trigger condition.
NOTE: Only valid for inputs and outputs connected to the same CIE
9. Normally used for the New Zealand fire brigade Bulgin key switch "Evacuate".
When the switch is set to the evacuate position, the OWS or sounders will be active
until the switch restores to the normal position.
10. External fault will activate a fault in FT1020G3. A user definable fault message
("Error text") up to 40 characters will be shown.
11. External clock, timer, key switch, etc. can disable / re-enable alarm points. The
function Alert Annunciation can be set on / off by a time channel. Control outputs
can be turned on (activated) / off (de-activated) by a time channel.
12. Activated input will activate a fire alarm (Zone), e.g. a sprinkler zone alarm. This
trigger condition is normally used for a 3361 unit monitored Input 0 used as a Zone
line input (End-Of-Line capacitor) and as the type "Extinguishing".
13. Used to start a new "countdown", see 14 below.
Push button: NO, momentary action. One or more push buttons can be used.
14. Output for Extinguishing equipment (type of output = 2) has to have a delayed
activation programmed (a "countdown"). This "countdown" will be stopped when
an input with trigger condition 14 is activated. To start a new "countdown", see 13
above.
Push button info: NO, latching action. One or more push buttons can be used.
Manual reset of push button(s).
15. Activated input will generate a fault in FT1020G3. Output with trigger condition
"Extinguishing system fault" will be activated. The following fault message will be
shown:
FAULT: Extinguishing system,
Control Unit xx
Only valid for the Addressable multipurpose I/O unit 3361 input "In0", used as zone line input (Z).
One input activated in any control unit, will light up the LED in all control units.
One input activated in a control unit, will light up the LED in that control unit.
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16. Activated Extinguishing equipment feedback to the FT1020G3 Control Unit to light
up the LED "Extinguishing".81
17. External fuses (for external. power supply equipment) fault output will activate a
fault in the FT1020G3 system. The following fault message will be shown:
FAULT: External fuses,
Control Unit xx
18. External power supply equipment fault output will activate a fault in the FT1020G3
system. The following fault message will be shown:
FAULT: External power supply,
Control Unit xx
19. Activated input (i.e. fault on the fault routing equipment) will generate a fault in
FT1020G3:
FAULT: Fault warning routing equipment,
Control Unit xx
20. A special detector, push button, etc. can activate a fire alarm in FT1020G3. Zone
no. and Address (+ user definable alarm text).
21. A feed-back from the equipment activated by the corresponding interlocking output.
Activated input is shown in menu H9/C1. See also chapter "Interlocking function",
page 96.
22. "Loss of the battery charger to external power supply equipment" fault output will
activate a fault in the FT1020G3 system. It will have the same time delay, as set
for the Loss of main power source fault for the CIE The following fault message
will be shown:
FAULT: Charging external power supply,
Control Unit xx
23. "Loss of main power source to external power supply equipment" fault output will
activate a fault in the FT1020G3 system. It will have the same time delay, as set
for the Loss of main power source fault for the CIE The following fault message
will be shown:
FAULT: Mains, external power supply,
Control Unit xx
24. Default. Indicating that an input trigger condition is not selected, i.e. the input will
not "activate" anything.
25. Used for the "outside switch" (Bulgin key) (i.e. the New Zealand FB silence switch).
Turned on: Alarm devices and the CIE buzzer will be disabled. The following fault
message will be shown:
FAULT: FB Silence switch,
Control Unit xx
From Turned on to Turned off: All fire alarms will be isolated, all zones in alarm
will be disabled, alarm devices and the CIE buzzer will be re-enabled and the fault
will be serviced.
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FT1020G3 Rev 2.2.1
26. Pre-warning, e.g. from a High Sensitive Smoke Detector's pre-warning output.
Zone no. and Address set to the same as the corresponding fire alarm (from the
same detector).
27. A technical warning is neither an alarm nor a fault. It is activated as long as the
input is activated, which is indicated by a blinking symbol in the display.
Identified via menu H4/U6. Output with trigger condition "Technical warning
(+name)" will be activated.
28. The Addressable multipurpose I/O unit 3361 monitored Input “In0” used as zone
line input (Z) for conventional detectors. Use End-of-Line capacitor with
value 470nF.
11.2 Logic
The logic has to be set (in EBLWin dialog box “properties”).
11.2.1 Non-Supervised (Default)
(•) Normally open / Normally low, normally open contact or normally low opto-
coupler input (3361).
Technical/Programming Manual
( ) Normally closed / Normally high, normally closed contact or normally high optocoupler input (3361).
11.2.2 Supervised
Valid for the Inputs and Outputs of the expansion board 4583 programmable inputs (Input
0-4) only.
(•) Normally open (high resistance)
( ) Normally closed (low resistance)
Depending on the selected logic, Normally Open (high resistance, 3K3) or Normally Closed
(low resistance, 680R), the function will be according to the Table 10 on page 73.
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FT1020G3 Rev 2.2.1
12 Programmable outputs
FT1020G3 has four programmable voltage outputs S0-S3 and two programmable relay
outputs R0-R1. 8 relays expansion boards 4581 and Input / Output expansion board 4583
with three programmable outputs (Output 0-2) can be mounted in FT1020G3. See chapter
"Expansion boards 458x", page 24.
On the COM loops, Addressable Multipurpose I/O units 3361 with two programmable relay
outputs (Re0-Re1) per unit and Addressable 2 voltage outputs units 3364 can be
connected. Addressable siren 4477, Addressable sounder base 3379, Addressable
beacon 4380 and light indicator 4383 can also be connected on the COM loops, i.e. the
units have no physical outputs, only siren, sounder and light respectively.
Notes: Units type 3379 + 4477 (or old type 3377) = maximum 50 per loop.
Units type 4380 = maximum 10
Each output is programmed via EBLWin, when applicable for the following
Name (Normally not changed)
Type
Technical/Programming Manual
Signal period (continuous, pulse, delay, etc.)
Logic (NO / normally low or NC / normally high)
Supervised / Non-Supervised (The voltage outputs in FT1020G3 and in the
Addressable 2 voltage outputs unit 3364)
Control expression (with one or more trigger conditions)
If “Enter arguments in dialog” is selected, a separate dialog box is opened for easier
entering of the required data (e.g. zone, address, etc.). SSD size indicates how big the
control expression is. It must be < 80.
Figure 28 EBLWin Voltage & Relay Output dialog boxes
Each 3379, 4477, 3378 and 3379 unit is programmed via EBLWin for the following:
Technical address
Name (Normally not changed)
Priority level (High / Medium / Low)
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FT1020G3 Rev 2.2.1
For each priority level:
Sound type (different for each priority level)
Name
Type (Normally "Alarm device")
Output signal period (Normally "Steady")
Control expression (with one or more trigger conditions)
If “Enter arguments in dialog” is selected, a separate dialog box is opened for easier
entering of the required data (e.g. zone, address, etc.).
Figure 29 EBLWin 3379 and 4477 dialog boxes
Output test
When a PC is connected to a Control Unit, EBLWin open and you are logged on, each
output can be tested for activation / de-activation.
12.1 Control Unit outputs S0 – S3
FT1020G3 Control Unit has four programmable, supervised (monitored)82 voltage outputs:
S0 Supervised voltage output, 24VDC, max. 500 mA (Fuse F4)
S1 Supervised voltage output, 24VDC, max. 500 mA (Fuse F5)
S2 Supervised voltage output, 24VDC, max. 500 mA (Fuse F6)
S383 Supervised voltage output, 24VDC, max. 500 mA (Fuse F7)
Connections and more information, see drawing F732-02.
This is default, but via EBLWin it is possible to set each output individually as not supervised (not monitored). A normally high
output is non supervised. See also chapter "Calibration of supervised outputs", page 122.
Note! This output will be low in case of system fault (via the watch dog reset circuit). May be used as a supervised voltage
output for fault warning routing equipment (Fault TX).
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12.2 Control Unit outputs R0 & R1
FT1020G3 Control Unit has 2 programmable relay outputs, contact ratings: 1A @ 30 V
R0 Relay output, NO or NC contacts programmable
R1 Relay output, NO or NC contacts programmable
Connections and more information, see drawing F732-02.
12.3 8 relays expansion board 4581 Output 0 – Output 7
Each 4581 board has eight programmable relay outputs:
Output 0 Relay output, NO or NC contacts programmable
Output 1 Relay output, NO or NC contacts programmable
Output 2 Relay output, NO or NC contacts programmable
Output 3 Relay output, NO or NC contacts programmable
Output 4 Relay output, NO or NC contacts programmable
Output 5 Relay output, NO or NC contacts programmable
Output 6 Relay output, NO or NC contacts programmable
Output 7 Relay output, NO or NC contacts programmable
Relay contact ratings: Max. 2A @ 30 V DC.
Connections and more information, see drawing F729.
12.4 Inputs and Outputs expansion board 4583 Output 0 - 1
Expansion board 4583 has two programmable, supervised (monitored)84 voltage outputs:
Output 0 Supervised voltage output, 24VDC, max. 200 mA (Fuse F1).
Output 1 Supervised voltage output, 24VDC, max. 200 mA (Fuse F2).
Connections and more information, see drawing F731.
See also chapter "Inputs and outputs expansion board 4583", page 28.
12.5 The 3361 unit's Outputs Re0 & Re1
Each 3361 unit has two programmable relay outputs. Contact ratings: 2A @ 30 VDC / 125
VAC).
Re0 Relay output, NO or NC contacts programmable
Re1 Relay output, NO or NC contacts programmable
Connections and more information, see drawing F735.
12.6 The 3364 unit's VO0 – VO2
Each 3364 unit has two programmable, supervised (monitored) 82 voltage outputs:
Output VO0 Supervised voltage output, 24VDC
Output VO1 Supervised voltage output, 24VDC 85
This is default, but via EBLWin, it is possible to set each output individually as not supervised (not monitored). A normally high
output is not supervised. See also chapter "Calibration of supervised outputs", page 120
Cont. 1 A, during 10 ms 1.4 A.
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86
87
Each 3364 unit also has one programmable special output, intended for fire door closing
(release magnets) only:
Output VO2 Voltage output, 24VDC, max. 1A85. Normally high. For more
information see the Addressable 2 voltage outputs unit Technical Description.
24VDC is required from an external power supply unit (e.g. 3366AU).
Connections and more information, see drawing F733 & F737.
12.7 The 4477 unit's Output (siren)
Each 4477 unit has one programmable output:
Output Siren, with three priority levels and three types of tones.
Connections and more information, see drawing F733.
12.8 The 3379 unit's Output (sounder)
Each 3379 unit has one programmable output:
Output Sounder, Three priority levels and three types of tones.
Technical/Programming Manual
Also "High sound output" can be selected (4.5 dB).
Connections and more information, see drawing F733
12.9 The 4380 unit's Output (beacon)86
Each 4380 unit (under obsolete loop units) has one programmable output:
Output Beacon (Light output 1 Cd. Flash rate 1 Hz.)
Connections and more information, see drawing F733.
Note: This unit is no longer to be found in Panasonic's product range.
12.10 The 4383 unit's Output (light indicator)87
Each 4383 unit has one programmable output:
Output Light indicator (Flash rate 1 Hz.)
The unit is discontinued and will be replaced with a new approved strobe to EN54.23.
4383 is discontinued, it is not complying with the new standard EN54.23 however the unit still can be used in the AU or NZ
markets until a compliant unit is released.
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89
90
88
89
90
91
92
93
94
13 Output programming
Output programming is done in EBLWin. See the EBLWin dialog box.
13.1 Type of output
Some output types can be collectively disabled, some others can be indicated by an LED
when activated. The following types are available (numbering only for the comments
below):
1. Control
2. Fire Ventilation
3. Extinguishing
4. Alarm Device
5. Routing equipment (Fire brigade TX)
6. Control, neutral
7. Interlocking
Technical/Programming Manual
Comments to the output types:
1. Default. General (normal) control output 88
,
2. Used to activate fire ventilation equipment 88
3. Used to activate extinguishing equipment 88
,
4. Used for sounders or OWS, etc.91
5. Used for fire brigade TX outputs only 92
6. General (normal) control output. No collective disablement and no LED
indication.
7. This output 88 can be used together with a corresponding Interlocking input.
See chapter "Interlocking function", page 96. Activated output is shown in
menu H9/C1.
13.2 Logic
(•) Normally open / low, Normally Open relay contact or normally low voltage output.93
( ) Normally closed / high, Normally Closed relay contact or normally high voltage output
(24V DC).94
Controlled by menu H2/B3 Disable / Re-enable output type.
Activated output is indicated by the LED "Ventilation". (Feedback from the fire ventilation equipment to a programmable input
can instead light up the LED).
Activated output is indicated by the LED "Extinguishing". (Feedback from the fire extinguishing equipment to a programmable
input can instead light up the LED).
Controlled by menu H2/B4 Disable / Re-enable Alarm devices and by push button "Silence alarm devices" on the control unit
front. Output fault / disabled is indicated by LED Fault / Disablements "Alarm devices" blinking / continuous on.
Activated according to its control expression (trigger condition 43 Indication Fire brigade TX activated must not be used).
Disabled similar to the standard control unit "Fire brigade TX" relay output. Activated output is indicated by the LED "Fire
brigade TX". (Feedback from the Fire brigade TX to a programmable input can instead light up the LED). Output fault / disabled
is indicated by LED Fault / Disablements "Fire brigade TX" blinking / continuous on.
NOTE! When the Alert Annunciation function is to be used, the following trigger condition has to be added to the control
expression: & !Alert Annunciation activated. ("&!" is the same as "and not").
The logic is set in the EBLWin dialog box "Voltage / Relayed Output".
The logic is set in the EBLWin dialog box "Voltage / Relayed Output".
NOTE! A normally high output cannot be supervised and it will be low for a few seconds during restart of the C.I.E.
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FT1020G3 Rev 2.2.1
13.3 Supervised / Non-supervised
A voltage output is normally supervised (default). By unmarking the "Supervised" checkbox
the voltage output will be non-supervised.
A normally high output cannot be supervised.
13.4 Output signal period
Each output uses an "Output signal period", which controls the output's activation. The
following are available:
Technical/Programming Manual
Figure 30 EBLWin output signal period dialog box.
User defined 1-8 can be configured with type and time.
Types:
1. Steady (continuous)
2. Intermittent
3. Pulse
4. Steady, Delayed Activation
5. Intermittent, Delayed Activation
6. Pulse, Delayed Activation
7. Steady, Delayed De-Activation
Times:
Delay time (when required)
Pulse length time (when required)
Pulse off time (when required)
De-activation time (when required)
See also Figure 31 below
Regarding the programming, see chapter "Output Signal Periods", page 156.
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In FT1020G3
COM loop units
Output
Type
S0S3
R0,
R1
4581
board
4583
board
I/O
unit
3361
Unit
3364
Siren, S/B &
Beacon
4477, 3379,
4383 & 4380
4582
board
Inter
locking
1 Steady (continuous)
X X X X X X X
X
X
2 Intermittent
X X XXX
--
--
XX
--
--
--
3 One pulse
X X XXX
--
--
--
--
--
--
4 Steady (continuous),
delayed activation
X X X X X X X
X
X
5 Intermittent,
delayed activation
X X XXX
--
--
XX
--
--
--
6 One pulse,
delayed activation
X X XXX
--
--
--
--
--
--
7 Steady (continuous),
delayed de-activation
X X X X X X X
X
--
FT1020G3 Rev 2.2.1
Figure 31 Signal period set up options
Delay time, Pulse length, Pulse off and/or De-Activation, have to be set for the "Signal
period" respectively. For types 2 & 5 the x and y times must be equal and maximum 5.6s.
For types 3 & 6 the x time must be maximum 5.6s.
Note: The different types can be used together with the different outputs according to the
following Table 11 below
Table 11 Output signal period for programmable output
85
The types that can be used in the "Output signal period" for the programmable output
95
respectively are:
X = Output type that can be used.
XX = Output type that can be used but only 0.8s/0.8s.
XXX = Output type that can be used but max. 5.6s/5.6s and the pulse max. 5.6s
respectively.
13.5 Control expression
Each programmable output has to be given a control expression95. It is created using
Boolean algebra.
If an output is to be used for manual control only e.g. an AS1668 fan control output or an
output controlled by input trigger condition “Activate output”, a “never true” control
expression must be programmed. In such a case, control expression
“TimeChannelActivated” (Always off) can be used.
Trigger conditions (see "Available functions"), logical "Operators" (AND, OR, NOT) and
parentheses are used to build up a "control expression" containing up to 40 trigger
conditions. See also chapter "Control expression examples" page 92.
Technical/Programming Manual
FT1020G3 Rev 2.2.1
A programmable output will be activated as long as its control expression is true.
Figure 32 EBLWin control expression
In any output dialog box, click the right mouse button in the large white field. Select Alarm,
Interlocking, Disablement or Other to open a “Trigger condition list”. Depending on the
selected trigger condition, different arguments / data have to be entered. In Figure 32, the
trigger condition "General Fire Alarm) is selected.
13.5.1 Trigger conditions
Some trigger conditions require additional information, see below information within
parentheses (+nnnnn) after the trigger condition respectively.
The trigger conditions are divided into four groups as follows:
Alarm
Interlocking
A programmable output with no control expression will be interpreted by the CIE. as if it does not exist.
86
Disablement
Other
The numbering of the trigger conditions is only for "the comments to the trigger conditions"
below:
13.5.1.1 Alarm
1. Fire Alarm Zone (+Zone no.)
2. Fire Alarm Zone Address (+Zone no.+Address)
3. General Fire Alarm
4. Consecutive Fire Alarm (sequence) (+start Zone no. and address +stop Zone
5. Pre Warning Zone (+Zone no.)
6. Pre Warning Zone Address (+Zone no.+Address)
7. General Pre Warning
8. Consecutive Pre Warning (+start Zone no. and address +stop Zone no. and
Technical/Programming Manual
FT1020G3 Rev 2.2.1
no. and address + Quantity)
address + Quantity)
9. Heavy Smoke Alarm Zone (+Zone no.)
10. Heavy Smoke Alarm Zone Address (+Zone no. + Address)
11. General Heavy Smoke Alarm
12. Consecutive Heavy Smoke Alarm (sequence) (+start Zone no. and address
+stop Zone no. and address +Quantity)
13. Two Address Dependent Fire Alarm (+Zone no. +Address)
14. Two Zone Dependent Fire Alarm (+Zone no.)
15. Multiple Detector Alarm
16. One Detector Alarm
17. Key Cabinet Alarm
18. AAF Zone Alarm (+AAF Zone no.) or LAA Zone Alarm (+LAA Zone no.)
19. Quiet Alarm Zone (+Zone no.)
20. Quiet Alarm Zone Address (+Zone no. +Address)
21. General Fire Alarm Reset
22. Delayed Alarm Zone Address (+Zone no. +Address)
23. Delayed Alarm Zone (+Zone no.)
24. General Delayed Alarm
25. First Zone In Alarm Control Unit (+Zone no. +Control Unit no.)
26. First Zone In Alarm Zone Group (+Zone no. +Zone Group name)
27. Pre Warning Zone Group (+Zone Group name +Quantity)
28. Fire Alarm Zone Group (+Zone Group name +Quantity)
29. Heavy Smoke Alarm Zone Group (+Zone Group name +Quantity)
13.5.1.2 Interlocking
30. Interlocking Input Area Activated (+Area no.)
31. Interlocking Input Area Point Activated (+Area no. +Point)
32. General Interlocking Input Activated
87
33. Consecutive Interlocking Input Activated (sequence) (+start Area no. and
point +stop Area no. and point +Quantity)
13.5.1.3 Disablement
34. Fire Brigade Tx Disabled
35. Zone Disabled (+Zone no.)
36. Zone Address Disabled (+Zone no. +Address)
37. General Zone Address Disabled
38. All Control Disabled
39. All Alarm Devices Disabled
40. Control Disabled Control Unit (+Control Unit)
41. Alarm Device Disabled Control Unit (+Control Unit)
42. General Disablement
13.5.1.4 Other
43. Indication Fire Brigade TX Activated
44. Indication Fault TX Activated
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FT1020G3 Rev 2.2.1
45. General Fault
46. General Mains Fault
47. Reset Pulse Zone Address (+Zone no. +Address)
48. Time Channel Activated (+Time channel name / no.)
49. Alert Annunciation Activated
50. Alert Annunciation Acknowledged
51. Door Open
52. Fire Door Closing (+Zone no. +Address)
53. General Service Signal
54. Fire brigade TX
55. Door Open Control Unit (+Control Unit)
56. Extinguishing System Fault
57. Extinguishing System Released
58. Activated Key Cabinet
59. Fault Control Unit (+Control Unit)
60. Consecutive Fault Control Unit (+start Control Unit and stop Control Unit)
61. Zone Fault (+Zone no.)
62. External Fault (+ext. fault)
63. Technical Warning (+techn. warning)
64. General Technical Warning
13.5.1.5 Comments to the trigger conditions (functions):
Alarm
1. Fire alarm. For more information regarding fire alarm, see FT1020G3 Operation
Manual. Output is activated when the specified Zone is in alarm.
2. See 1. Output is activated when the specified alarm point is in alarm.
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3. See 1. Output is activated when the specified alarm point or Zone is in alarm.
4. See 1. Quantity (1-9): "1" means one unit in alarm is required, "2" means two units
in alarm are required to activate the output and so on.
5. Pre-warning.96 Output is activated when the specified alarm point exceeds the prewarning level. For more information regarding pre-warning, see FT1020G3
Operation Manual.
6. See 5. Output is activated when the specified alarm point exceeds the pre-warning
level
7. See 5. Output is activated when the specified alarm point or zone exceeds the prewarning level
8. See 5. See also 4 above regarding "Quantity".
9. Heavy smoke / heat alarm. Output is activated when the specified Zone exceeds
the heavy smoke / heat level. For more information regarding heavy smoke / heat
alarm, see FT1020G3 Operation Manual.
10. See 9. Output is activated when the specified alarm point exceeds the heavy smoke
/ heat level.
11. See 9. Output is activated when any alarm point exceeds the heavy smoke / heat
level.
12. See 9. See also 4 above regarding "Quantity".
13. Output is activated when only one address (in two- address dependence) is in fire
alarm state. For more information, see FT1020G3 Operation Manual.
14. Output is activated when only one zone (in two-zone dependence) is in fire alarm
state. For more information, see FT1020G3 Operation Manual.
15. Output activated when "Multiple detector alarm" is true, i.e. fire alarm type A.97
16. Output activated when "One detector alarm" is true, i.e. fire alarm type B 97.
17. General Key cabinet alarm activated. For more information, see FT1020G3
Operation Manual.
18. Alarm Acknowledgement Facility, requires Alarm Acknowledgement Module
AAM. "Alarm" is activated in the specified AAFC zone. Panasonic new Local Alarm
Acknowledgment (LAA) is typically Brooks AAM.
19. Output activated for any "Quiet alarm" in the specified zone. Normally used in
AS1668 fire fan applications or as a non-latching / non-brigade call alarm.
20. Output activated for one specified "Quiet alarm" in the specified zone-address.
Used in AS1668 fire fan control applications.
21. This control expression is true (i.e. output activated) for 15 seconds after the last
alarm is reset.
22. Output of specified Zone-Address is activated for predetermined time (set in
EBLWin system properties). Typical application when a smoke detector is
programmed to activate 3379. If the smoke is cleared during the delay time, the
sounder base will de-activate otherwise, a general alarm in FT1020G3 will be
activated.
23. Same as 22 but for a specified zone.
24. Same as 22 but for any Zone or Zone-Address in the system..)
25. Output is activated only if the first alarm is an alarm in the specified Zone in the
specified Control Unit. NOTE: This is not valid for manual call points.
The trigger condition is true as long as the pre-warning level is exceeded. It is also true as long as the fire alarm level is
exceeded even if the option pre-warning detection is disabled (via EBLWin).
See chapter "Fire alarm type A and Fire alarm type B", page 119.
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26. Output is activated only if the first alarm is an alarm in the specified Zone in the
specified Zone Group.
27. Pre-warning, Output is activated when any of the alarm points in the specified Zone
Group exceeds the pre-warning level. See also 4 above regarding the quantity. For
information refer to the FT128 Operation Manual.
28. Fire alarm, Output is activated when any of the alarm points in the specified Zone
Group is in alarm. See also 4 above regarding the quantity. For information refer
to the FT128 Operation Manual.
29. Heavy smoke / heat alarm, Output is activated when any of the alarm points in the
specified Zone Group exceeds the heavy smoke / heat alarm level. See also 4.
Above regarding the quantity. For information refer to the FT128 Operation
Manual.
Interlocking
30. Output activated when one or more interlocking inputs, in the specified interlocking
area, are activated.
31. Output activated when the interlocking input, in the specified interlocking
area/point, is activated.
32. Output activated when any interlocking inputs is activated.
33. Output activated when interlocking inputs, in the specified range, are activated
(from interlocking area no./point to interlocking area no./point). See also 4. above
regarding "Quantity".
Disablement
34. Output activated when any Routing equipment output (Fire brigade TX) is
disabled98.
35. Output activated when the specified zone is disabled99.
36. Output activated when the specified alarm point (zone- address) is disabled99.
37. Output activated when any alarm point (zone/address) or zone is disabled99.
38. The control expression is true (output activated) when all control outputs of the
types Control, Fire ventilation and Extinguishing are disabled via menu
H2/B399. This output has to be type Control – neutral.
39. The control expression is true (output activated) when all control outputs of type
Alarm device in all control units are disabled via menu H2/B4
. This output must
be type Alarm devices
40. The control expression is true (output activated) when all control outputs of the
types Control, Fire ventilation and Extinguishing in the specified control
unit are disabled via menu H2/B399. This output has to be type Control – neutral.
41. The control expression is true (output activated) when all control outputs of type
Alarm device in the specified control unit are disabled via menu H2/B4). This
output has to be type Alarm devices.
42. The control expression is true (output activated) when any disablement exists
in the system99.
Indicated by LED Fault / Disablements "Fire brigade TX".
Indicated by LED Fault /Disablements "General Disablements".
Indicated by LED Fault / Disablements "Alarm devices".
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102
103
104
105
106
107
108
101
102
103
104
105
106
107
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Other
43. The control expression is true (output activated) when LED "Fire brigade TX"
is lit, i.e. when any "Fire brigade TX" output is activated (default) or when a
programmable input with trigger condition "Activated Routing Equipment" is
activated
.
44. The control expression is true (output activated) when LED "Fault TX activated"
is lit, i.e. when the routing equipment output (Fau lt TX) is activated
45. Output activated when one or more faults are generated in the system
46. Output activated for loss of mains (in the CIE or external power supply 3366AU)
.
.
NOTE: The output(s) will be activated immediately but the corresponding fault is
normally delayed (set via EBLWin).
47. The control expression is true (Output activated) for 5 seconds whenever a reset
pulse is sent to the specified Zone-Address. The control expression can only be
used in the CIE as the specified Zone-Address
48. Output activated when the specified time channel is activated.
49. Output activated when Alert annunciation alarm is activated (by any alarm point
set to activate this function).
For more information, see FT1020G3 Operation
Manual.
50. Output activated when Alert annunciation alarm is activated (by any alarm point
set to activate this function)
105
and acknowledged. For more information, see
FT1020G3 Operation Manual.
51. Output activated when door open in any Control Unit in the system.
52. This trigger condition plus the OR operator has to be used for each detector (zoneaddress) controlling a fire door (normally > two detectors). Type of output is
normally "Control, neutral". See also chapter "Fire Door Closing", page 101.
53. Output activated when service signal is activated (by any sensor).
.
54. The control expression is true (output activated) when the Control Unit standard
output "Fire brigade TX" is activated. Used for example when a standard “Fire
brigade tx” voltage output is required. Used with output type Routing equipment
(Fire brigade tx).
NOTE: If the Control Unit has “selective fire alarm presentation”, the standard
output(s) will also be selectively activated.
55. Output activated for door open in the specific Control Unit.
56. Output activated when input trigger condition "Extinguishing system fault" is true.
57. Output activated when input trigger condition "Extinguishing system released" is
true.
This output will also be activated when the routing equipment test is performed via menu H1. This trigger condition must not
be used for type of output "Routing equipment (Fire brigade TX)".
Indicated by LED Routing equipment "Fault TX activated". This output will also be activated when the routing equipment
test is performed via menu H1.
Indicated by LED Fault / Disablements "General fault" and/or LED Routing equipment "Fault TX activated".
Indicated by the symbol in the CIE display.
Valid until the AA alarm is reset or becomes a normal fire alarm.
Or external FBPs connected to the control unit(s).
Indicated by a "Service" symbol in the display symbol area.
Indicated by the "Door open" symbol in the display symbol area.
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109
a b c y 0 0 0 0 0 0 1
0
0 1 0
0
0 1 1
0
1 0 0 0 1 0 1 0 1 1 0 0 1 1 1 1 a b c
y
0 0 0
0
0 0 1 1 0 1 0 1 0 1 1 1 1 0 0 1 1 0 1
1
1 1 0
1
1 1 1
1
a b c y 0 0 0 0 0 0 1 1 0 1 0 0 0 1 1
0
1 0 0
1
1 0 1 1 1 1 0 1 1 1 1
1
FT1020G3 Rev 2.2.1
58. Output activated when input trigger condition "Activated key cabinet" is true
59. Output activated when one or more faults are generated in the specified Control
Unit
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60. Output activated when one or more faults, in the specified range (from Control
Unit to Control Unit) are generated
61. Output activated when one or more faults are generated in the specified Zone
62. Output activate when the specified external fault is generated
63. Output activated when the specified technical warning is generated
64. Output activated when one or more technical warnings are generated.
13.5.2 Logical operators
The logical operators available in EBLWin are in the following priority order:
( ) parentheses, changes priority order
NOT not-function (inverts), is written NOT in EBLWin
AND and-function, is written AND in EBLWin
OR or-function, is written OR in EBLWin
13.5.3 Control expression examples
In order to understand the possibilities to create control expressions, here follow some
AND, OR, NOT and ( ) examples and also some control expression examples.
103
.
103
.
103
.
.
13.5.3.1 AND
a AND b AND c=y
y is true (=1) when all the conditions a, b, c are true, i.e. a=1 and b=1
and c=1 makes y=1. All other combinations makes y=0.
This is shown in the truth table
13.5.3.2 OR
a OR b OR c=y
y is true if at least one of the conditions a, b, c is true, i.e. a=1 or b=1
or c=1 makes y=1.
This is shown in the truth table
13.5.3.3 NOT
Inverts a condition, e.g. NOT b = NOT 0=1.
a OR NOT b AND c = y
This is shown in the truth table
Indicated by the symbol in the CIE display.
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13.5.3.4 Parentheses
a b c y 0 0 0
1
0 0 1
1
0 1 0 1 0 1 1
0
1 0 0
1
1 0 1 1 1 1 0 1 1 1 1
1
Changes priority order.
a OR NOT ( b AND c ) = y (This is same as the previous but completed
with parentheses.)
This is shown in the truth table
13.5.3.5 Control expressions
The AND operator has priority, i.e. a AND b OR c = (a AND b) OR c. This is perhaps more
obvious if you write it: a • b + c.
This means that: a AND b OR c ≠ a AND (b OR c).
Here follows some examples (and explanations) to show the principles how to build a
control expression with "conditions" and logical operators.):
Example 1
Technical/Programming Manual
FT1020G3 Rev 2.2.1
Output: Voltage output S0
Control expression: Pre Alarm Zone (90)
Explanation: Pre-warning activated in zone no. 90 will activate output S0.
Example 2
Output: Relay output R1
Control expression: General Control Off ( ) AND NOT Door Open (01)
Explanation: Controls OFF (via menu H2/B8) will activate the output R1 when
the door in Control Unit 01 is not open (i.e. closed).
Example 3
Output: Relay output R0
Control expression: Fire Alarm Zone (145) AND Fire Alarm Zone (045) AND General
Fault ( )
Explanation: Fire alarm activated in zone 145 and zone 45 will activate the
output R0 when there are one or more faults in the system at the
same time.
Example 4
Output: Voltage output S1
Control expression: Consecutive Fire Alarm (100,10,100,19,1)
OR
Consecutive Fire Alarm (100,21,100,40,1)
Explanation: Fire alarm activated by one of the alarm points in zone 100
address 10-19 or activated by one of the alarm points in zone
100 address 21-40 will activate the output S1 (i.e. alarm point
address 20 in zone 100 will not activate the output S1).
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111
110
111
FT1020G3
14 Short circuit isolators
4313 Analogue base with isolator has built-in short circuit isolator that requires a separate
COM loop address and a Sequence Number, 00-63.
The units 4433, 4439 and 4477 have built-in isolator that do not require any separate COM
loop address, only a Sequence Number, 00-63. As an option, these units can be used
without the isolator in function. If so, they have to be programmed in EBLWin as if they
were 3333, 3339 and 3377 units and via the address setting tool 4313/4413 set to 2330
mode instead of NORMAL mode.
An open circuit (break) or short circuit on a COM loop has to generate a fault in the Control
Unit within 60-100 seconds.
If one or more short circuit isolators are used
(i.e. the part between two short circuit isolators or between the Control Unit and one short
circuit isolator). Only the affected segment will be isolated, which will minimise the number
of units disabled by a short circuit.
The fault messages will also show between which isolators the short circuit is situated.
Technical/Programming Manual
, the loop will be divided into "segments"
Figure 33 Short circuit isolators example in FT1020G3
The first isolator (ISO) in the A-direction must have the sequence no. 0 (ISO no. 0), the
next sequence is no. 1 (ISO no. 1) and so on. The sequence number is programmed via
EBLWin.
If no short circuit isolators are used, the whole COM loop will be disabled in case of short
circuit on the loop.
As from version 2.1.x, the communication (and power supply) direction will alternate every
22 seconds.
COM loop end-point voltage
<12 V DC or COM loop short circuit or COM loop
break(s):
This will start a "cycle" as follows.
The whole loop will be disabled, i.e. no voltage on the loop which means that all
isolator relays will be powered down (= all isolators disabled), i.e. there will be a
“break” on the L (SA) wire in each isolator.
A Control Unit algorithm will now try to re-enable the first isolator in the A-direction
(ISO no. 0 / sequence no. 0). If this is possible, the next isolator in the A-direction
At least one short circuit isolator must be install every 40 alarm points as required by AS1670.1.
When communicating in the A-direction.
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(ISO no. 1 / sequence no. 1) will be re-enabled, if this is possible, and so on. The
isolator just before a short circuit cannot be re-enabled.
The Control Unit algorithm will now try to re-enable the first isolator in the B-
direction (ISO no. 3 / sequence no. 3 in Figure 33). If this is possible, the next
isolator in the B-direction, and so on.
Finally all isolators will be re-enabled except the isolator on each side of a short
circuit and any isolator(s) between two or more breaks on the loop.
Communication will be in both directions for 10 minutes. Then a new “cycle” starts.
If the “fault(s)” are not corrected, the communication will be in both directions for
another 10 minutes when a new “cycle” starts, and so on.
If the “fault(s)” are corrected, the communication will return to be in the A-direction
only.
Depending on if it is too low voltage on the loop, short circuit, one break or two or more
breaks, the fault messages will be different.
FAULT: Cut-off loop x, Control Unit xx
SCI nn <-> SCI nn
NOTE: nn = A, 00, 01, 02, 03, 04, 05 - - up to 63 or B.
FAULT: Short circuit loop x, Control Unit xx
SCI nn <-> SCI nn
NOTE: nn = A, 00, 01, 02, 03, 04, 05 - - up to 63or B.
If there are multiple loop faults, i.e. one or more short circuits and/or one or more Cut-offs,
there will be a “multiple COM loop fault” message.
FAULT: Multiple faults, COM loop x,
Control Unit xx
The first fault message will show the first fault in the A-direction.
There will always be a “no reply” message for all units not found in spite of communication
in both directions.
FAULT: No reply zone: xxx address xx
Technical number xxxxxx
Alarm text for xxx-xx
Regarding Fault acknowledge, see the FT1020G3 Operation Manual.
Note: After the faults are acknowledged it can take up to 10 minutes before the faults can
disappear from the fault list, since the check ("cycle") starts every 10th minute.
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112
Controlled
Equipment
Input
Output
Feed-back signal
Filters the lists of interlocking with anything containing “1”
15 Interlocking function
The interlocking function is used to verify that an output is truly activated, i.e. by "combining"
an output with an input (feed-back from the equipment controlled by the corresponding
interlocking output).
15.1 Programming of interlocking function
Up to 400 Interlocking Combinations per CIE and up to 4000 in a system, can be
programmed using EBLWin.
Note: One Interlocking Combination (input, output and area) must be included in /
connected to one CIE. An input and an output can only be used in one combination.
Technical/Programming Manual
Area and Point fields are unique identifiers for each paired interlocking combination
synonymous to Zone-Address. They are presented in this format NNN-NN with the first 3
digits representing the Area and the last 2 digits representing the Point. The Area numbers
range from 1-999 and the Point numbers range from 1-99
It is advantageous to have a numbering system planned correlating to the location (“Area”)
when assigning a Name to the interlocking combination. Having some form of structure to
the numbering will greatly help organise the SSD file and make it easier to understand and
assist with troubleshooting later. One should also consider including all I/O devices into this
numbering structure so that it will be easier to select from the list of interlocking
combinations.
A Filter Function Box as shown in Figure 34 below, is available to assist with listing only
those interlocking combinations of interests. This will become more powerful when some
sort of numbering structure is in place. Figure 34 was from a list of 100 interlocking
combinations, typing in “1”
anything containing “1”. One can see the usefulness of having a planned numbering
structure in place from this example should all interlocking combinations on containing 1
were called for.
in the filter function box quickly narrows down the lists with
Available interlocking inputs and/or outputs will appear in the EBLWin dialog box shown in
Figure 34 page 96, only when each input and output have been configured with Type =
Interlocking.
Filtering search texts are case sensitive. For this reason, ensure that naming convention is consistent throughout.
Figure 34 Filter function
96
15.1.1 Interlocking output
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113
The "Voltage Output" / "Relay Output" dialog boxes are used to configure the interlocking
output.
Type: "Interlocking" is to be selected.
Output signal period: Type Steady (continuous) or Type Steady delayed
activation is to be selected (checked by the "Validate" function in EBLWin).
Control Expression is to be programmed for the output, i.e. for the equipment to
be controlled.
Activated output will be indicated in menu H9/C1.
Name: It is recommended to add information, e.g. interlocking combination's
presentation number (Area-Point) could be added.
15.1.2 Interlocking input
The "Input" dialog box is used to configure the interlocking input.
Technical/Programming Manual
FT1020G3 Rev 2.2.1
Type "Interlocking" is to be selected.
Name: It is recommended to add information, e.g. interlocking combination's
presentation number (Area-Point) could be added.
Activated input will be indicated in menu H9/C1.
15.1.3 Interlocking combination
The interlocking function requires one interlocking output and one interlocking input to be
programmed in one interlocking combination.
Note: The interlocking outputs and inputs have to be programmed first before
programming the interlocking combination
An interlocking combination can have only an output or only an input programmed, e.g.
when a user definable text message is required to indicate an activated output or input and
alerted from the buzzer.
.
In the "Interlocking Combination" dialog box, all the outputs and inputs that have been programmed for interlocking are listed,
see Figure 35 next page.
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