Thor Intrusion System

Transcription

Technical Manual
91000601
Program version number: EU1-078.0609.030
EU2-078.0609.030
Publication date: 030214
Revision history:
Ref. No.
Revision remarks
Date
92001001
First version
010518
92001001
Compliance information added to preface.
Section about ferrite clamps added to Chapter 2.
030214
91000601
Technical
Manual
This manual provides an overview of the Thor Intrusion systems, the concept of
S-ART technology, concepts, input and output facilities and the way of
operation.
The manual also includes detailed description of the various components
including information about their installation and connection.
Needed programming information can also be found in this manual together with
a description of the operation of the systems.
The manual is valid from the date of publication stated below.
Disclaimer
Due to continuous research and development, the information contained in this
document is subject to change without notice.
HI SEC International declines any liability for not respecting or incorrectly using
the information in this manual, as well as errors or omissions and their
consequences in the installations.
Date
The date of publication is 030214.
Version
EU1-078.0609.030 and EU2-078.0609.030
Reference
Reference number: 91000601.
91000601
Compliance
If the installation instructions supplied in this manual are followed, the Thor
Intrusion System complies with the following standards:
EMC immunity
EN 50130-4
Alarm systems
Part 4: Electromagnetic compatibility. Product family standard:
Immunity requirements for components of fire, intruder and social
alarm systems.
EMC emission
EN 50082-1
Generic Immunity Standard
Part 1: Residential, commercial and light industry.
EN50082-2
Generic Immunity Standard
Part 2: Industrial environment, heavy industry.
EN 50081-1
Electromagnetic compatibility - Generic emission standard
Part 1: Residential, commercial and light industry.
EN 60950
Safety of information technology equipment, including electrical
business equipment.
Safety
Copyright
Copyright © 2003 by HI SEC International. All rights reserved. No part of this
manual may be reproduced or transmitted in any form for any purpose without
the written permission of HI SEC International.
Comments and
corrections
In our continuous effort to improve the documentation for our products, we need
feedback from our users regarding useability, appearance, technical level of
content as well as information about errrors you may find.
You can mail your comment and corrections to the address: [email protected]
91000601
Table of contents
91000601
1.
Functional description ................................................................... 1-1
1.1
1.1.1
1.1.2
1.1.3
General description ........................................................................... 1-2
Local site intrusion system ................................................................ 1-2
Remote site intrusion system ............................................................ 1-3
System part list.................................................................................. 1-4
1.2
System description ............................................................................ 1-8
1.3
1.3.1
1.3.2
S-ARTs............................................................................................ 1-10
System diagram .............................................................................. 1-10
Line signals ..................................................................................... 1-10
1.4
The logical area concept ................................................................. 1-12
1.5
1.5.1
1.5.2
1.5.3
Inputs............................................................................................... 1-14
Overview of input soft types ............................................................ 1-14
Input soft type description ............................................................... 1-15
Input addresses and standard programming .................................. 1-22
1.6
1.6.1
1.6.2
1.6.3
Outputs............................................................................................ 1-26
Overview output soft types .............................................................. 1-26
Output soft type description............................................................. 1-28
Output addresses and standard programming ............................... 1-32
1.7
1.7.1
1.7.2
1.7.3
Reaction tables................................................................................ 1-34
Reaction table – local alarm/fault outputs ....................................... 1-34
Reaction table – transmission outputs ............................................ 1-35
Reaction table – various outputs ..................................................... 1-36
1.8
1.8.1
1.8.2
Timers and timer functions.............................................................. 1-37
Timer duration functions and delay functions.................................. 1-37
Output soft types and software timer types ..................................... 1-38
1.9
1.9.1
1.9.2
1.9.3
1.9.4
1.9.5
1.9.6
1.9.7
1.9.8
Alarm functions ............................................................................... 1-41
IF - THEN expressions.................................................................... 1-41
Alarm functions for local / transmission outputs.............................. 1-42
Auto alarm reset of output alarm functions ..................................... 1-42
Alarm function without alarm input condition................................... 1-42
Special operands............................................................................. 1-43
Standard input addresses ............................................................... 1-43
Standard output addresses ............................................................. 1-44
Special input addresses .................................................................. 1-44
1.10
Single-site and multi-subsite system ............................................... 1-47
1.11
1.11.1
Auto alarm reset.............................................................................. 1-49
Input/output soft types affected by auto alarm reset ....................... 1-50
1.12
1.12.1
1.12.2
Anti-hostage system........................................................................ 1-51
Anti-hostage system operation........................................................ 1-52
Functional description ..................................................................... 1-53
2.
Installation ...................................................................................... 2-1
2.1
Noise emmission prevention ............................................................. 2-2
2.2
2.2.1
2.2.2
2.2.3
2.2.4
2.2.5
90T CU-30 and 95T CU-30 central unit.............................................. 2-3
Lay-out of the 90T CU-30 central unit ............................................... 2-3
Lay-out of the 95T CU-30 central unit ............................................... 2-4
95T CUB-30 CPU board ................................................................... 2-5
Expansion board 95T I/O .................................................................. 2-9
Power supply and battery................................................................ 2-11
2.3
2.3.1
2.3.2
2.3.3
2.3.4
2.3.5
2.3.6
95T CU-30-24V Central unit ............................................................ 2-12
General information......................................................................... 2-12
Installation of the optional I/O-board ............................................... 2-13
Mounting.......................................................................................... 2-14
Connection to mains voltage........................................................... 2-15
Installation of backup batteries........................................................ 2-16
Connection terminals and jumpers ................................................. 2-17
2.4
2.4.1
2.4.2
2.4.3
2.4.4
2.4.5
S-ARTs units ................................................................................... 2-18
List of S-ART units .......................................................................... 2-18
S-ART housing................................................................................ 2-19
S-ART controller connections ......................................................... 2-20
S-ART detector connections ........................................................... 2-21
Coding of S-ART-addresses ........................................................... 2-35
2.5
2.5.1
Remote keypads ............................................................................. 2-37
Remote keypad 95T RKP ............................................................... 2-37
2.6
2.6.1
2.6.2
2.6.3
General purpose Interface 95T GPI COM ...................................... 2-39
PC Interface application .................................................................. 2-43
Modem/X28 Interface application.................................................... 2-44
SECOM transmitter interface application ........................................ 2-44
2.7
2.7.1
2.7.2
2.7.3
2.7.4
99T IPI TCP/IP interface ................................................................. 2-45
Factory mounted TCP/IP interfaces ................................................ 2-45
99T IPI TCP/IP interface as separate unit....................................... 2-46
99T IPI interface applications.......................................................... 2-46
99T IPI and 95T GPI XXX IP specifications.................................... 2-48
2.8
GPI BR Bridge................................................................................. 2-49
2.9
GPI BRM/DLM Direct line modem interface .......................................... 2-50
2.10
GPI DLC Bus amplifier .................................................................... 2-52
2.11
RS-485 bus connections ................................................................. 2-53
2.12
Cable length and dimension............................................................ 2-54
2.13
Current consumption....................................................................... 2-55
3.
Programming .................................................................................. 3-1
3.1
General.............................................................................................. 3-2
3.2
3.2.1
Start-up procedures .......................................................................... 3-3
Start-up of a Thor Intrusion central unit............................................. 3-3
3.3
Programming of input addresses ...................................................... 3-5
3.4
Programming of output addresses.................................................... 3-6
3.5
Programming of zones, areas and codes........................................... 3-7
3.6
Programming of remote keypads to zones ............................................ 3-8
3.7
3.7.1
3.7.2
Auto set time programming............................................................... 3-9
Area week time programming ........................................................... 3-9
Holiday list ....................................................................................... 3-11
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4.
Operating instructions ................................................................... 4-1
4.1
Operating facilities.............................................................................. 4-2
4.2
4.2.1
4.2.2
4.2.3
4.2.4
4.2.5
4.2.6
4.2.7
Operation in general.......................................................................... 4-3
Daily operation .................................................................................. 4-3
Sub-menus...................................................................................... 4-10
Intrusion menus on the Card Reader .............................................. 4-11
Overview of the menus ................................................................... 4-12
Use of the function keys.................................................................. 4-13
Operator codes ............................................................................... 4-14
Code priority .................................................................................... 4-14
4.3
Submenu 2 - Display/change of status ............................................. 4-17
4.4
Submenu 3 - System test................................................................ 4-22
4.5
Submenu 4 - Programming............................................................. 4-26
4.6
Autoset programming....................................................................... 4-40
This page is intentionally left blank.
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Functional description
Introduction
This chapter provides an overview of the Thor Intrusion System and the
equipment available. It also describes the basic concepts of intrusion systems
together with the functions (soft types) related to the inputs and outputs.
This chapter
The chapter contains the following sections:
Section
91000601
Page
General description
1-2
System description
1-8
S-ARTs
1-10
The logical area concept
1-12
Inputs
1-14
Outputs
1-26
Reaction tables
1-34
Alarm functions
1-41
Single-site and multi-subsite system
1-47
Auto alarm reset
1-49
1-1
1.1
General description
The Thor Intruder Alarm System is a modern, flexible security system especially
suited for medium to larger sized industrial installations.
The central unit exists in two versions: 90T CU-30 and 95T CU-30, differing in
cabinet size only. The software controlled functions for are the same for both
versions.
Two monitoring principles are used in the systems. A minor part of the system
makes use of the well-known current loop inputs with end-of-loop resistors while the
main part makes uses the S-ART technique that makes it possible to recognize each
detector individually.
An installation may include up to 120 individually addressable detector circuits (120
S-ART addresses) and a number of internal inputs.
With this direct addressing, the system provides means of dividing the installation
into a number of zones (up to 16) which are programmedinto areas (up to 250), each
of which are operated individually by means of a remote keypad, communicating with
the operator in clear text.
Up to 250 operators can be assigned to the system - each with his individual code.
1.1.1
Local site intrusion system
The diagram below shows a single site intrusion system. This system employs a
single central unit accommodating one bus for communication with up to 30
detectors. With an extension board mounted in the central unit, the system
accommodates three additional S-ART buses each with up to 30 S-ARTs, each
connected to a detector.
Fig. 1.1
Example of a local site system.
T h o r 9 5 T C U -3 0
9 5 T I/O
- E x te n s io n b o a r d ( O p tio n a l)
S -A R T b u s (M a x . 3 0 S -A R T s )
+
R S -4 8 5 b u s
1 2 V ,2 4 A h
a c c u m u la to r
P C w ith In tr u s io n
M a n a g e m e n t p ro g ra m
9 5 T R K P
9 5 T A C M -E
P o w e r s u p p ly
1 2 V , 1 .5 A
C
4
R S -2 3 2
in te r fa c e
1-2
5
A I M S
6
2
1
G e n e ra l P u rp o s e
In te rfa c e
9 5 T G P I C O M
R S -2 3 2
9
8
7
9 5 T A C M
3
0
0 0 0 5 1 1 0 4 a
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1.1.2
Remote site intrusion system
The diagram below shows an example of an intrusion system with two remote
sites.
Fig. 1.2
Example of a remote site system.
H e a d o ffic e
A IM S C lie n t
S -A R T
b u s e s
9 5 T
G P I C O M
R e g io n a l o ffic e
S -A R T
b u s e s
9 5 T C U 3 0
R S -2 3 2
R S -2 3 2
R S -2 3 2
R S -4 8 5
S -A R T
b u s e s
5 /X 2 8
D N
P /IP
m o d e m
A IM S C lie n t
R S -4 8 5
X 2
IS
T C
H a y e s
A IM S S e rv e r
M o d e m
o r P A D
M o d e m
o r P A D
9 5 T C U 3 0
R S -4 8 5
M o d e m
o r P A D
B r a n c h o ffic e
L A N
R S -4 8 5
R S -4 8 5
R S -4 8 5
9 5 T C U 3 0
R S -4 8 5
9 5 T
G P I C O M
9 5 T
G P I C O M
0 0 0 5 1 1 0 5 a
The remote sites (Branch office and Regional office) are connected to the main
office site by means of either dial-up modems or standard Hayes compatible
PSDN/ISDN modems or PADs for X.25/X.28 transmission. The modems or PADs
are directly connected to the RS-232 port of the 95T CU-30 at the remote sites.
In case communication takes place through a TCP/IP network, the Modem or
PAD at the remote sites are substituted by the 95T GPI IP and at the Head
office site, the combination of the 95T GPI COM and Modem or PAD is
substituted by a single 95T GPI IP directly connected to the RS-232 port of the
95T CU-30 at the remote sites.
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1-3
1.1.3
System part list
The equipment illustrated and briefly described below is described in detail in
this manual. Please note that the illustrations do not show the equipment in the
same scale.
Type
Illustration
Description
95T CU-30
-
Central unit with connection for one S-ART bus
with 30 addresses. Can be equipped with
Expansion board 95T I/O.
12 V/1.5 A power supply for 0.9 A charging
current to a 12 V/15 Ah accumulator.
12 V/0.6 A available for external consumption.
CPU board with RS-232 and RS-485 interfaces.
Mounted in a standard cabinet.
+
95T I/O
Expansion board for three additional S-ART
buses with 30 addresses each for 95T CU-30
and 95T-CU-30-24V.
90T CU-30
with 30 addresses.
12 V/1.5 A power supply for 0.9 A charging
current to a 12 V/6.5 Ah accumulator.
12 V/0.5 A available for external consumption.
Mounted in a small cabinet.
95T CU-30-24V
with 30 addresses. Can be equipped with
Expansion board 95T I/O.
24 V/3.8 A power supply for 1.2/1.8 A charging
current to two 12 V/24 Ah accumulators.
24 V/2.0 or 2.6 An available for external
consumption.
Mounted in a standard cabinet.
-
+
+
95T PS 24/3.8
-
External power supply (24V, 3.8 A) mounted in
a standard cabinet.
It has space for two 12V/24Ah accumulators.
Built-in S-ARTs for supervision of mains supply,
battery charging and battery load test.
+
+
95T RKP
Remote Keypad.
95T ACM
Access control terminal with built-in magstripe
card reader.
For a description, please refer to the Technical
Manual for the Thor Access Control System.
1-4
91000601
Type
Illustration
95T ACM-E
Description
Access control terminal with built-in magstripe
card reader.
C
7
8
4
5
1
For a description, please refer to the Technical
Manual for the Thor Access Control System.
9
2
6
3
0
95T GPI COM
General purpose interface. Can be set-up as
Modem interface, Printer interface, PC interface
or Alarm Transmitter interface.
0 0 0 5 1 1 0 2 a
95T GPI BR
Bridge interface to connect two different bus
levels together.
0 0 0 5 1 1 0 2 a
95T GPI BRM
Direct Line Modem Interface.
Asynchronous 9600 baud modem.
0 0 0 5 1 1 0 2 a
95T GPI DLM
Direct Line Modem Interface.
Asynchronous 9600 baud modem.
0 0 0 5 1 1 0 2 a
95T GPI DLC
RS-485 bus amplifier (up to 1.2 km).
Note: Only for one address.
0 0 0 5 1 1 0 2 a
99T IPI
TCP/IP interface for mounting in an Intrusion
Central Unit or for internal or external mounting
in connection with a 95T GPI XXX interface.
95T GPI BRM IP
Similar to the 90T GPI BRM – but with
communication via a LAN/WAN using TCP/IP
instead of a dedicated line.
0 0 0 5 1 1 0 2 a
95T GPI DLM IP
Similar to the 90T GPI DLM – but with
communication via a LAN/WAN using TCP/IP
instead of a dedicated line.
0 0 0 5 1 1 0 2 a
95T GPI MI IP
Dial-up modem communicating via a
LAN/WAN using TCP/IP instead of the PSTN.
0 0 0 5 1 1 0 2 a
91000601
90T S-100
S-ART with alarm/tamper input.
90T S-101
S-ART with alarm/tamper input and 12 V DC
output.
1-5
Type
Drawing
Description
90T S-102
S-ART with two NC inputs and one relay output.
90T S-103
S-ART with alarm/tamper input and 12 V DC,
relay output.
90T S-106
Six inputs, one output, 12 V DC S-ART.
90T S-107
O N
1
2
3
4
5
6
7
8
Miniature S-ART for built-in applications for
different detectors. Tamper/Alarm loop, one
output, 12 V DC.
90T S-108
Sub-miniature S-ART for built-in applications for
different detectors. Alarm loop, one output,
12 V DC.
90T S-130
S-ART with 30 alarm inputs, 30 anti-mask
inputs and 30 open collector outputs.
Comprises an S-ART Controller board, a
Connector board and an Output module.
12 V DC S-ART.
90T S-099
Small S-ART housing including magnet.
Detailed information about the Access Control Terminals the access control
functions can be found in the Technical Manual for the Thor Access Control
System. This manual describes only the functions of the Access Control Terminals
operating together with the Thor Intrusion System.
1-6
91000601
Spare parts
Type
91000601
Drawing
Description
90T CUB-30-2
CPU board for the 90T CU-30 and 95T CU-30
Intrusion central unit.
95T PSU 24V-S
Power supply 95T CU-30, 95T CU-30-24V, and
95T PS 24/3.8.
90T GIB
Optocoupler board. Can be used in all 90T GPI
interface types.
104-1x5
Fuse T500 mA for S-ART bus and RS-485 bus.
104-1xD
Fuse T1.6 A for CU-30.
104-1xC
Fuse T2A for 95T PS 24/3.8.
95 RKP-C
Printed circuit board for 95T RKP
133-32S
RS-485 line driver
133-301
RS-232 line driver
1-7
1.2
System description
The Thor system offers a possibility of dividing an installation into 16 zones really 16 separate systems with a common central unit. A maximum of 250
operators using different codes of various priorities are allocated to one or more
zones called an area. The total number of areas is 250. The number of
operators to each individual area is unlimited - so it is allowed to use for
example 200 codes for one area and what is left for the remaining parts of the
system.
A zone is made up of a number of input circuits (detectors) and possibly some
indicating outputs. Each input circuit belongs to one zone only, while output
types may represent the individual zone or the complete installation.
Operating is performed by means of remote keypads or card readers (max. 31
RKPs or readers - several may be operated at the same time) and some
ancillary control equipment. The RKPs are individually allocated to one or more
zones, while equipment (For example a key-switch) for completion/initiation of
the setting/unsetting procedure is always allocated to just one zone or to area
001 to 016.
Operating on a card reader is, when the system is unset, mainly to open a door
by a card but it is possible to have full access to all the intrusion menus with the
same performance as the operating of the system from a normal Remote
keypad (RKP).
Two kind of operating philosophies are used. Codes allocated to an area, which
is defined as logical, operates in such a way, that zones common to more of
those areas are not physically set until all such areas have been requested set.
The other philosophy is called physical areas, where codes allocated to the
areas performs normal physical setting/unsetting of the common zones.
From the time on, a circuit is physically set, until it is unset again, an alarm
condition is indicated by local optical and acoustical signalling devices and by
external transmission as described in the following pages. Acoustical indicators
are stopped automatically after typically 3 minutes (programmable), optical
indicators typically by log-on (with code) and transmission signals are typically
reset, when the alarm message is reset. Automatic alarm reset is included.
Some parts of the installation are always monitored and able to release a local
or external alarm - also when the area is unset - this applies for example to
monitoring of the presence of some signalling devices (sirens etc.), junction
boxes and a number of system faults.
By activation of a hold-up pushbutton or by entering a hold-up code, a silent
alarm is always released (and transmitted to the alarm station). The hold-up
code feature can be disabled by option setting.
Mains power fault is indicated by a flashing power lamp. Other system faults, i.e.
battery fault, are indicated as described by the following pages.
During mains power fault, the built-in rechargeable batteries (max. 2 x 24 Ah)
provide power for typical 32 hours of operation, depending on the system
configuration (See Section 2.13, Current consumption).
1-8
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Two types of inputs are part of the Thor intrusion system, either the bus
techniques with the addressable S-ARTs as described in the next section, or the
two current input loops placed on the CU-board of the central unit.
All inputs and outputs, S-ARTs, normal loop I/O or internal logical system
messages, are programmable with input or output soft types to give each used
address the wanted function. A long list of soft types is available and described in
this section.
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1-9
1.3
S-ARTs
The S-ART (Serial Addressable Receiver Transmitter) is a full custom integrated
circuit, developed for transmission of data on a 2-wire cable and intended for use
such as identification of each individual detector in alarm systems.
Up to 30 S-ARTs may be connected to a 2-wire cable. The two wires distribute the
power supply to the S-ARTs as well as data to and from the S-ARTs.
If 12V/24V DC is needed for relays, detectors etc. this demands an extra pair of
wires.
1.3.1
System diagram
Four S-ART-lines (buses) may be connected to the S-ART Controller - each bus
can handle max. 30 S-ART addresses.
Fig. 1.3
The connection of S-ART lines to the S-ART Controller and the connection of S-ARTs to
the S-ART lines (S-ART bus).
The S-ART controller, placed on the main CPU-board in the Central unit, scans
all the connected S-ARTs and gives the changes of the input condition to the
Main CPU when they occur. The outputs of the S-ARTs are similarly set or reset
by orders from the Main CPU.
1.3.2
Line signals
The S-ART transmission includes 10 bits.
When an S-ART recognizes its own address, it reacts corresponding to the
read/write bit as follows:
1 - Data for the two outputs (OUT 0 and OUT 1) are latched.
2 - Data of the two inputs (IN 0 and IN 1) are transferred to the S-ART controller.
1-10
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The line signal is divided into three levels in order to transmit DATA as well as
CLOCK.
Fig. 1.4
The three levels of the line signal of the S-ART line (S-ART bus).
When the clock is high (17V), all S-ARTs are power supplied by the S-ART
controller via a transistor.
When the clock is low, data are transmitted. Logical "1" is 6.2V (supplied by the
S-ART controller) and logical "0" is 0V.
When the S-ART has recognized its address and is ready to transmit input data
to the S-ART controller, it makes a short circuit of the line via a resistance of
150 Ω in case of a logical "0" and stays in the high impedance state in case of a
logical "1", thus maintaining the 6.2V of the S-ART controller.
When the S-ARTs are connected on a cable, the signal shape changes a little
depending on the cable length. On the following two figures is shown a typical
S-ART signal on a 200 m cable and 500 - 700 m cable (6/10 unshielded type).
91000601
Fig. 1.5
Signal shape with short cable (< 200m).
Fig. 1.6
Signal shape with long cable (> 500m).
1-11
1.4
The logical area concept
The following example concerns a medium size installation and explains some
of the facilities of the Thor alarm system.
The installation is divided into 9 areas made up of 8 zones, each consisting of a
number of detectors and indicating equipment. Each area is operated
individually by means of four operating keypads.
In order to make it possible for each employee to operate his own zone, the
zones he has to pass and the common entry/exit zone, the following system
programming concerning zone-relationship is made:
Area 01
Area 02
Area 03
Area 04
Area 05
Area 06
Area 07
Area 08
Area 09
Zone 01 and 02
Zone 01, 03 and 05
Zone 01, 04 and 05
Zone 01, 04 and 05
Zone 01 and 06
Zone 01, 06 and 07
Zone 01, 06 and 16
All zones
Zone 04 (physical)
Purchasing department
Shipping office
Stock
Factory
Sales department
Management
Technical department
System
Stock
Remote Keypad
Remote Keypad
Remote keypad
Card Reader
RKP 01
RKP 02
RKP 03
RKP 04
All zones
Zone 07
All zones except zone 07
Zone 04 (physical)
Set/Unset
Bypass Unit
Key-switch for setting/unsetting the stock (zone 04)
Door contact for start/stop of entry/exit time
To each area 01 to 07 a number of operator codes with priority P0 are attributed.
To area 08 belongs an engineer code (P4) and a master manager code (priority
P2) are programmed.
Fig. 1.7
1-12
The division of the building into zones.
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The first employee to be at work in the morning has to unlock the main entrance
door. By doing so, he activates a BYPASS UNIT circuit (input type 05) in the
door and by that he starts the entry time.
During the entry time, alarm conditions of detectors within the reception are
suppressed. Such circuits (door contacts, volumetric detectors etc.) must be
defined as input type 04 - ENTRY ROUTE.
After having accessed the reception, he logs-on to the RKP 03 by entering his
personal code (6 digits) and pressing the - key, he unsets all zones of his area.
Hereafter at least one operator of each area should log-on to the system and
perform unsetting, as the system keeps track of which areas have been requested
unset and which have not, in order to tell the operator - during the setting
procedure - that he is the last one to leave and that the complete system is set.
Although area 03 and 04 include exactly the same zones, they should still be
set/unset individually by an operator of each area. The first person to unset one
of the areas, of course really unsets zone 01, 04 and 05, but they are not
physically set again until area 03 as well as area 04 have been requested set,
which means, that employees in the factory do not have to worry whether the
stock is set or not - they just perform a normal setting procedure. This type of
areas is called logical areas.
An additional feature is added to the stock, as the door from the factory may be
opened by means of a CARD READER 04, which is possible only if the stock is
unset. By means of this CARD READER (using card and code), the stock may
be set physically during lunch etc. This area is called a physical area.
In case the management is first at work, they have to unset area 06 by means of
RKP 03 as well as RKP 02, because only zones common to the code and the
keypad are affected. In this case, RKP 02 makes it easy to set zone 07 (and
possibly a safe), when the management leaves for lunch.
Setting is initiated by entering an operator code to the RKP 03 and pressing
the - key upon which the operator is asked to leave. This action normally
completes the setting procedure by physically setting zones exclusively found in
his area and logically setting zones common to other areas (i.e. the reception). If
he is the last one to leave, also an exit tone starts and he has to lock the main
entrance door and hereby stops the exit time.
During the night, goods are delivered to the stock, so zone 04 may be set/unset
also by other means. Unsetting is performed by unlocking a key-switch (input
type 25 - SET/UNSET ZONE) and completed by locking the key-switch again in case of setting faults, the circuits in question are automatically isolated.
Completion of setting procedure is indicated by means of a buzzer (output type
18 - SET/FAULT).
Most operators are allowed to reset alarm messages within their own area by
using any keypad. Some alarm/fault messages, for example tamper, require a
master manager code or an engineer code.
This installation includes a PROGRAMMER - RKP 01, which can be used for
programming of the system, but the RKP can also be used for unsetting for
example in the morning. Furthermore this RKP includes all zones of the
installation and is thus well suited for system test etc. using the manager or
engineer code.
91000601
1-13
1.5
Inputs
The function of each address from 000 to 250 defined in the system must be
described with an input soft type. The relation between input soft types and each
input address is programmed in Menu 47.
A soft type is a description of the alarm input function of the address to which it
is programmed. A full definition of the reaction in unset/set conditions, when and
who can reset messages from which soft types, which output soft types are
affected etc. is provided.
All S-ARTs have two different inputs, an alarm input and a tamper input. An
input soft type is only connected to the alarm input. The tamper input on each
S-ART address has a predefined tamper function.
In the following, all input soft types available and the allocation of input
addresses in Thor intrusion system are described.
1.5.1
Overview of input soft types
The table below provides an overview of the input soft types available.
Alarm reaction by zone:
Unsetting,
Conditions to
Input types
UNSET
SET
Isolation
RESET
00 = Not defined
-
01 = Normal Night
-
Intrusion
Yes
Unset or quiet
02 = Seismic Alarm
-
Intrusion
Yes
Unset or quiet
03 = 24h
local alarm
Intrusion
Yes
Quiet
Intrusion
Yes
Unset or quiet
04 = Entry Route
05 = Bypass Unit
Open to closed stop exit time, closed to open starts entry time.
06 = Normal Night 2h
07 = Tamper
Tamper
08 = Night Deposit Box
Intrusion
Yes
Unset or quiet
Tamper
No
Quiet - P3/P4 code
Intrusion
Yes
Unset or quiet
09 = Hold-up 1
Hold-up
Hold-up
No
Quiet
10 = Technical/Film Counter
Local Technic
Technic 1
Isolation
Counter reset
11 = Technical 1
Local Technic
Technic 1
Isolation
Quiet
12 = Technical 2
Technic 2
Technic 2
Isolation
Quiet
13 = System Fault 1
System Fault
System Fault
No
Quiet
14 = System Fault 2
System Fault
System Fault
No
Quiet, automatic
15 = System Fault 3
System Fault
System Fault
No
Quiet - P4 code
16 = System Fault 4
Event-log
Event-log
No
17 = Key Storage Box
Sabotage
Intrusion
No
Quiet - P3/P4 code
18 = Fire Alarm
Fire alarm
Fire alarm
No
Quiet
Intrusion
Yes
Unset or quiet
19 = Beam Pair 1
Continued …
1-14
91000601
Alarm reaction by zone:
Unsetting,
Conditions to
UNSET
SET
Isolation
RESET
20 = Beam Pair 2
Intrusion
Yes
Unset or quiet
21 = Shock Count
Intrusion
Yes
Unset or quiet
22 = Hold-up 2
Hold-up
Yes
Unset or quiet
23 = Local Perimeter Detection
Local Intrusion
Yes
Unset or quiet
Output Type 24
No
Input types
24 = Follow Me
Output Type 24
25 = Set/Unset Zone Pulse
Open to closed circuit sets or unsets the zone
26 = Set/Unset Zone Level
Close = Unset zone, Open = Set zone
27 = Set/Unset Area Pulse
Open to closed circuit sets or unsets the area
28 = Set/Unset Area Level
Close = Unset area, Open = Set area
29 = Alarm Reset
Open to closed circuit resets the alarm messages in the corresponding area
30 = 24 h Seismic
Local Intrusion
Intrusion
Yes
Quiet
31 = Night Deposit Box 2
Local Intrusion
Intrusion
Yes
Unset or quiet
Event log
Yes
32 = Vindicator Lock
33 = High Security – Entry Door
Intrusion after
timer 22 expires
Intrusion after
entry timer expires
Yes
34 = Anti-mask
Local Intrusion
Local Intrusion
Yes
35 = Primary Transmission Fault
System Fault
System Fault
No
1.5.2
Quiet, automatic
Input soft type description
The following pages describe the various input soft types available. During
system programming in Menu 47, the input types are allocated to physical inputs
in the format:
ZZ TT NNN ISCD
ZZ (01 - 16) is the zone, this input is allocated to, TT is the type of the input,
NNN (001-254) refers to a programmable detector name list (the detector name
is shown in the display in case of an alarm etc.) and ISCD refers to special
attributes allocated to this input.
Description of attributes
Attribute
Name
Description
I
Isolate
The address can be isolated (Max. 1 per zone) in case of setting fault.
S
Soak test
An alarm condition is not latched but is stored in the event log for the next 14 days. After this,
the input is set for normal operation.
C
Invert
This address is scanned using a protocol with a higher security level. Please note that not all
S-ART types support this protocol.
D
Double
knock
91000601
An alarm condition is defined as two activations within 5 minutes or an activation with a duration
of 10 s or more.
1-15
Description of soft types
00 - Not defined
Programming of unused inputs or S-ART addresses.
01 - Normal Night
Can be set/unset. Isolation is possible.
External + local alarm by open circuit in set condition.
Alarm reset requires quiet & set or unset condition.
Circuit attributes: Isolate, Double Knock, Soak Test and Invert.
02 - Seismic Alarm
To be used for testable seismic detectors.
If an input soft type 08 or 31 (Night deposit box) exists within the same zone, the
alarm is inhibited during some time (timer 26 delay + duration) in case this timer
is started by the input soft type 08 or 31 Night Deposit Box.
Alarm reset requires quiet or unset condition.
If an output soft type 19 Test is allocated to the corresponding output address,
this is activated for some time (Timer 25 delay) when the setting condition is
changed from set to unset. The purpose of this test signal is to activate the builtin test generator of the detector, and if the input does not react to this by being
activated within the time window, a fault message of the input is indicated
(System Fault 1). The same test can be performed manually in Menu 32 in
unset condition or automatically by Timer 16.
Circuit attributes: Isolation, Double Knock, Soak Test and Invert.
Affects auto alarm reset.
03 - 24h
Always set.
Local fire door alarm by open circuit in zone unset condition.
External + local alarm by open circuit in zone set condition.
Direct input/output address relation if output soft type = 14.
Alarm reset requires quiet condition.
Circuit attributes: Isolation and Invert.
04 - Entry Route
Can be set/unset.
Exit time is started by setting the zone.
Inhibited during exit time, which is indicated by the buzzer an output soft type 17
Entry/Exit Time. The detector can (see Option bit setting, Menu 52) give Set
Fault indication during the setting procedure.
External + local alarm by open circuit at expiration of the exit time if an input soft
type 05 Bypass Unit is defined - if not so, entry time starts.
Entry time is indicated by the buzzer and output soft type 17 and started by a
change of input condition from passive to active - in case an input soft type 05
Bypass Unit is defined however, entry time is started by a change of input
condition from active to passive of input soft type 05.
External + local alarm if not unset until entry time expires or in case of an open
circuit in zone set condition, if entry time is not started (by input soft type 05).
Circuit attributes: Isolate, Soak Test and Invert.
1-16
91000601
05 - Bypass Unit
Starts entry time - after exit time - by a change from passive to active.
When the input is activated and the system is set, then the entry timer is started
as normal, but if the system still is set when the entry timer expires, then it will
cause an external alarm.
When exit time is running, then an activation of the input will not stop the exit time.
If an input soft type 04 exists in the same zone and the input soft type 04 is
activated before the input soft type 05 then an immediate alarm will be created
without Entry time delay.
Circuit attributes: Invert.
06 - Normal Night 2h
When the setting condition is changed from set to unset, a 2 hours timer is
started (Timer 25 - DURATION). If the input stays passive within this time
window, a fault condition of the input is released (System Fault 1). Besides from
this feature, it corresponds in any other respect to input soft type 01.
07 - Tamper
Always set.
Tamper alarm by open circuit in zone unset condition.
External + local alarm by open circuit in zone set condition.
Alarm reset requires quiet condition and a P3/P4 code.
Circuit attributes: Soak Test and Invert.
08 - Night Deposit Box
This input type is intended used for the door contact of a night deposit box
together with one or more seismic or microphone detectors, input soft type 02
within the same zone, monitoring the box, as input soft type 02 is inhibited
during the time the door is open and for some time hereafter.
Inhibited during some time (Timer 26 DURATION), which is started by a change
of input condition from passive to active in set condition. When the input condition returns to passive or at expiration of the duration time, whatever comes first,
the delay time of Timer 26 is started.
External + local alarm by open circuit at expiration of the duration time (in set
condition).
09 - Hold-up 1
Always set.
External + local hold-up alarm by open circuit.
An alarm condition blocks local intruder alarm outputs.
10 - Technical/Film
Counter
Always set.
Local technical alarm by open circuit in longer time than indicated in Timer 22
(DUR) (accumulated), when the zone is unset.
External + local technical alarm by open circuit in longer time than indicated in
Timer 22 (DUR) (accumulated), when the zone is set.
Alarm reset requires quiet condition and counter reset (by Menu 34).
Circuit attributes: Isolate, Invert and Soak Test.
91000601
1-17
11 - Technical 1
Always set. Isolation is possible.
Local technical alarm by open circuit in zone unset condition.
External + local technical alarm by open circuit in zone set condition.
A change from open to closed circuit is logged.
12 - Technical 2
External + local technical alarm by open circuit.
A change from open to closed circuit is logged.
13 - System Fault 1
Always set.
External + local system fault by "open" circuit.
Fault reset requires quiet condition.
Used for fault monitoring i.e. battery fault, 1h mains fault.
Automatic battery test is performed each 24 hours (15 s) and a short "fuse" test
each 5 s.
14 - System Fault 2
Always set.
External system fault by "open" circuit.
Automatic fault reset by quiet condition.
Used for service mode indication and transmission line fault.
15 - System Fault 3
Always set.
External + local system fault by "open" circuit.
Fault reset requires quiet condition and engineer code.
Used for fault monitoring i.e. fatal CPU-reset.
16 - System Fault 4
Always set.
Just a message in the event-log by "open" circuit.
Intended use for internal fault monitoring i.e. non-fatal CPU-reset and mains
power fault (which is also indicated by a flashing power lamp).
17 - Key Storage Box
Always set.
Sabotage alarm by open circuit in zone unset condition.
External + local alarm by open circuit in zone set condition. The monitoring of
the input is suppressed after setting the zone during a time defined by the Timer
21 (DURATION). An existing sabotage message from a Key Storage Box will be
reset at the same time (independent of the input status - active or passive). After
Timer 21 (DURATION) runs out a new alarm will be activated in case the input
is still active. Manual reset is also possible by a P3 or P4 code.
Circuit attributes: Invert and Soak test
18 - Fire alarm
Always set.
External + local fire alarm by open circuit.
Circuit attributes: Isolate, Invert and Soak test
1-18
91000601
19 - Beam Pair 1
In set condition, a change of input from passive to active starts a timer (Timer
27). If input soft type Beam Pair 2 (set - within the same zone) is activated within
this time window, the alarm condition is latched as external + local alarm. Both
inputs are logged. Only one Beam Pair 1 in each zone must be programmed.
20 - Beam Pair 2
In set condition, a change of input from passive to active starts a timer (Timer
27). If input soft type Beam Pair 1 (set - within the same zone) is activated within
this time window, the alarm condition is latched as external + local alarm. Both
inputs are logged. Only one Beam Pair 2 in each zone must be programmed.
21 - Shock Count
In set condition the input type counts a number of pulses (programmable by
means of Timer 20 DELAY) in a time window (specified by Timer 20
DURATION) and will generate an external (Output soft type 37) and local alarm
(Output soft type 05) condition if the number of pulses exceeds the specified. In
unset condition, it will generate a local alarm.
Application: Seismic Shock detectors.
22 - Hold-up 2
External + local hold-up alarm by open circuit when in set condition.
An alarm condition blocks local intruder alarm outputs.
Circuit attributes: Isolation, Invert.
23 - Local Perimeter
Detection
Local alarm only by open circuit in set condition.
Activates output soft type01, 29 and 23 (if programmed on same S-ART
address). The change from passive to active on the input in set condition starts
Timer 19 (DURATION). If another input soft type 23 is activated before the timer
has expired (in the same zone) then output soft type also is activated.
Application: Perimeter detection with different local output reactions provoked by
different input events.
Circuit attributes: Isolate, Double Knock, Soak Test and Invert.
24 - Follow Me
An open circuit is indicated by output soft type 24 - Follow Input.
91000601
1-19
25 - Set/Unset
Zone Pulse
A change from open to closed circuit changes the zone set condition - set to
unset or unset to set (physically).
Successful setting is indicated by a short activation of output soft type 18. In
case of maximum two active circuits, they are isolated, indicated by activating
output soft type 18 for a few seconds (programmable). In case of more than two
active circuits or non-reset alarm/fault messages within the zone, setting is still
carried out, but an alarm condition is released and output soft type 18 Set/Fault
is activated until log-on to the keypad.
The priority level of this input type is equal to any access code - they override
one another.
26 - Set/Unset
Zone level
When the input is passive, the zone is unset. When the input is active, the zone
is set (physically).
Successful setting is indicated by a short activation of output soft type 18. In
case of maximum one active circuit, this is isolated, indicated by activating
output soft type 18 for a few seconds (programmable). In case of more than one
active circuit or non-reset alarm/fault messages within the zone, setting is still
carried out, but an alarm condition is released and output soft type 18 Set/Fault
is activated until log-on to the keypad.
The priority level of this input type is equal to any access code - they override
one another.
27 - Set/Unset
Area Pulse
Setting/Unsetting is performed physical or logical as defined during area
programming. In other respect, it corresponds to input soft type 25. Can be
allocated to area 001 to 016 only.
28 - Set/Unset
Area Level
Setting/Unsetting is performed physical or logical as defined during area
programming. In other respect, it corresponds to input soft type 26. Can be
allocated to area 001 to 016 only.
29 - Alarm Reset
When the input changes from active to passive all alarm messages in the area
No. specified by the programmed zone no., that can be reset, will be reset. The
alarms that are reset will be logged with the input number as operator.
1-20
91000601
30 –24h Seismic
To be used for testable seismic detectors.
If an input soft type 08 or 31 (Night deposit box) exists within the same zone, the
alarm is inhibited during some time (Timer 26 delay + duration) in case this timer
is started by the input soft type 08 or 31 Night Deposit Box.
External + local alarm by open circuit.
If an output soft type 19 Test is allocated to the corresponding output address,
this is activated for some time (Timer 25 delay) when the setting condition for
the corresponding zone is changed from set to unset. The purpose of this test
signal is to activate the built-in test generator of the detector, and if the input
does not react to this by being activated within the time window, a fault message
of the input is indicated (System Fault 1). The same test can be performed
manually in Menu 32 in zone unset condition or automatically by Timer 16.
31 – 24h Night
Deposit Box
This input type is intended used for the door contact of a night deposit box
together with one or more seismic or microphone detectors, input soft type 02 or
30 within the same zone, monitoring the box, as input soft type 02 or 30 is
inhibited during the time the door is open and for some time hereafter.
Inhibited during some time (Timer 26 DURATION), which is started by a change
of input condition from passive to active in set condition. When the input condition returns to passive or at expiration of the duration time, whatever comes first,
the delay time of Timer 26 is started.
External + local alarm by open circuit at expiration of the duration.
32 - Vindicator lock
Can be set/unset. Isolation possible
The input soft type can be set or unset. It will generate a message in the event
log by “open” circuit in set condition. If you try to set the input with the input
active it will generate a set fault.
33 - High Security –
Entry Door
Isolation is possible
In set condition then an active input will start the entry time (if entry time is
programmed to 0, then an alarm will be produced).
In unset condition then an active input in more than the programmed time
(Timer 22 – delay) will give an alarm.
34 - Anti-mask
This input soft type is always set, and generates a local alarm in open circuit
condition.
It sends special Anti Mask message on the MMP – bus when an alarm occurs.
35 – Primary
Transmission Fault
Used with input soft type 78 Incom Trans Blk. When using a primary and a
secondary modem interface, a test mail can be set up for each (test mail 1 and
test mail 2). The frequency between these is set by timer 28 and timer 17
duration. If input soft type 78 becomes active, then test mail 2 will shift frequency
to timer 17 delay. In other words, if your secondary modem sends a test mail
every 24 hour in normal condition, it can shift to sending a test mail every 1 hour
if the primary modem is off.
91000601
1-21
1.5.3
Input addresses and standard programming
The relationship between each detector address (i.e. number displayed during
operating and programming) and the physical location is listed below.
In addition, the programming made from the factory concerning input type,
circuit name and zone relationship are listed (by default).
95T CU30 on-board inputs
Terminal
number
Designation
1
P3-1/3
Input loop
01
00
001
End of line resistor 10 kΩ
2
P3-2/3
Input loop
01
00
001
End of line resistor 10 kΩ
Input
address
By default:
Zone Type Name
Remarks
Remote operating keypads, etc.
Input
address
Terminal
number
By default:
Zone Type Name
17 - 24
485 Bus
Vault controller
inputs
01
00
001
Vault controller inputs
31 - 61
485 Bus
Reader inputs
01
00
001
Reader soft type 99 (Reader
No. 01 - 31)
500 - 531
485 Bus
System Fault
16
16
099
Communication/Tamper
RKP/ Central unit 00 - 31
532
Internal
Printer fault
16
15
100
Internal printer (paper low)
Designation
Remarks
Main controller internal addresses
Terminal
number
Designation
076
485 bus
Minitel fault
16
16
076
PC connection fault
077 *
485 bus
Minitel fault
16
15
077
INCOM hardware fault
078 *
485 bus
Minitel fault
16
14
078
Alarm transmission blocked
079
485 bus
Minitel fault
16
14
079
Telephone line fault
080
485 bus
Minitel fault
16
16
080
3 wrong code attempts on Minitel
081
Internal
System fault
16
13
081
Battery fault
082
Internal
System fault
16
16
082
Mains power fault
083
Internal
System fault
16
15
083
S-ART power fault
084
Internal
System fault
16
13
084
Mains fault 1 hour
085
Internal
System fault
16
14
085
Service mode
086
Internal
System fault
16
15
086
RAM fault
087
Internal
System fault
16
15
087
EPROM fault
088
Internal
System fault
16
16
088
Watchdog reset
089
Internal
Tamper C089
16
07
089
Intrusion via RS-485 bus
090
Internal
Tamper C090
16
16
090
Three faulty codes on a RKP
091
Internal
Tamper C091
16
00
091
Remote printer fault
092
Internal
Tamper C092
16
07
092
Site code error (from terminal)
Input
address
By default:
Zone Type Name
Remarks
* See the section, Input addresses 077 and 078, on the following page
1-22
91000601
Input addresses 077 and 078
The input addresses 077and 078 can be activated in the CU on the main RS485 bus in case of a transmission fault (after five retransmissions of the same
alarm or event mail) from a 95T GPI COM (IP) interface in modem interface
mode.
This can be used for activating a backup transmission path if the main
transmission path fails and it is impossible to transmit the mail on a secondary
call number or the modem interface or transmitter on the remote site is
programmed with a single call number or address only.
In the example below, the main transmission path is through LAN and WAN via
routers. The backup transmission path is through GPI COMs via modems and
the public switched telephone network (PSTN).
Fig. 1.8
Example of intrusion system with a main and a backup transmission path
Remote site
Central site
AIMS
95T CU 30
with 99T IPI
95T CU 30
with 99T IPI
95T
GPI COM
95T GPI
COM
95T GPI
COM
Backup transmission path
PSTN
Modem
Modem
LAN
Router
Router
WAN
LAN
Main transmission path
01020501a
Note
A backup transmitter cannot be used together with a transmitter in interface
network mode since there will be no alarm reaction because the transmitter is
always on-line. All alarm and event mails are retransmitted forever and there will
be no alarm reaction.
In the backup transmission path, the GPI COM on the remote site will remain in
sleep mode as long as the main transmission path is operating properly. If this
tranmission path fails, the CU input address 078 will be activated and wake the
GPI COM from sleep mode for transmission of mails. It remain activated until a
mail is transmitted correctly from the GPI COM.
Any type of mail – very often a routine check response from the AIMS – will
passivate the input address 078 and return the GPI COM to sleep mode.
☛
91000601
Input address 077 will also be activated but will be passivated immediately if the
GPI COM address is different from 01.
1-23
The following reactions will take place in normal mode depending however on
the configuration of the modem interface.
The GPI COM interface will go out of sleep mode in the following situations:
● If the input address 078 becomes active.
● If the GPI COM interface is a backup transmitter and it receives a device
table without other transmitters (if the main transmitter is disconnected from
the THOR bus)
The GPI COM interface will go into sleep mode in the following situations:
● If the GPI COM interface has address 01, the modem is a Hayes type and
another GPI COM is online on address 02.
● If the GPI COM interface has an address different from 01, the modem must
be either a Hayes type or an ISDN type and another GPI COM is online on
address 01.
Typical backup
configuration
1-24
The main transmitter is a TCP/IP transmitter on address 01 with a backup
transmitter on any other address (02 to 31).
In this configuration the CU input address 078 (Primary transmitter transmission
fault) is used for activating the backup transmission path.
The CU input address 077 (Backup transmitter transmission fault) can be used
for activating an additional digital alarm transmitter to operate as a secondary
backup transmitter.
91000601
Video front-end addresses
Input address
Terminal number
Designation
30 + Device address
of Video Front-end
RS-485 bus
Boot
Remarks
500 + Device address
of Video Front-end
RS-485 bus
Tamper
025
RS-485 bus
Video Loss
Camera input1
026
RS-485 bus
Video Loss
Camera input 2
027
RS-485 bus
Video Loss
Camera input 3
028
RS-485 bus
Video Loss
Camera input 4
029
RS-485 bus
Video Loss
Camera input 5
070
RS-485 bus
Video Loss
Camera input 6
071
RS-485 bus
Video Loss
Camera input 7
072
RS-485 bus
Video Loss
Camera input 8
S-ART circuits
Input
address
100 – 129
130
Designation
Cir. 100-129
Tamper 130
By default:
Zone Type Name
Remarks
01
16
S-ART Line 1 (00 to 29)
Pseudo S-ART (30)
00
07
001
093
131 - 199
200 – 229
230
Not available
Cir. 200-229
Tamper 230
01
16
00
07
001
093
231 – 299
300 – 329
330
Not available
Cir. 300-329
Tamper 330
01
16
00
07
001
093
331 - 399
400 – 429
430
431 - 499
91000601
Pseudo S-ART (30)
Pseudo S-ART (30)
Not available
Cir. 400-429
Tamper 430
01
16
00
07
001
093
Pseudo S-ART (30)
Not available
1-25
1.6
Outputs
Like the inputs, each output address defined in the system must be described
with an output soft type. Programming of output soft types to output addresses
are done in Menu 49.
The output soft type describes the exact reaction of the corresponding output to
which it is programmed that includes, which input soft type activates which
output soft type, when the output soft types are reset again etc.
All output soft types (except a few) can be connected to a zone and will then
only activate when a corresponding input soft type in this zone is in alarm, or it
can be a system type, which then will activate from alarms in any zone.
Each S-ART address can be programmed with an input soft type and an output
soft type that can work fully independent. They can even be programmed to
different zones if wanted.
In the following is described all output soft types available and the allocation of
output addresses in the Thor Intrusion System.
1.6.1
Overview output soft types
The table below provides an overview of the output soft types available.
Primary output function
Output types
Local alarm Local
indicator
control
00 = Not defined
External
signalling
Remarks
-
01 = Common Alarm
X
Siren, bell or strobe
02 = Tamper Alarm
X
Siren or bell
04 = Seismic Alarm
X
Siren or bell
05 = Local Shock Count Alarm
X
Siren or bell
06 = Set/Unset (Zone)
X
Lamp
07 = Hold-up Alarm
X
Lamp
08 = More Than One Hold-up Alarm
X
Siren or bell
09 = Technical Alarm 1
X
Bell or buzzer
10 = Technical Alarm 2
X
Bell or buzzer
12 = System Fault
X
Bell or buzzer
14 = Local Alarm
X
Bell or buzzer
16 = SW.Power
X
Switched power supply
17 = Entry/Exit
X
Buzzer
18 = Set/Fault
X
Buzzer
19 = Test
X
For detector test
20 = Fire Reset
X
Power supply for fire
Continued …
1-26
91000601
Primary output function
Output types
21 = Fire Alarm
Local alarm Local
indicator
control
X
22 = Glass Break
Remarks
-
X
Reset signal
23 = Perimeter 1st Detector
X
-
24 = Follow Input
X
Buzzer etc.
25 = Local Alarm Function
X
Alarm Functions
26 = Auto-Set Prewarning
X
Buzzer
27 = Perimeter 2nd Detector
X
-
29 = Common Alarm 2
X
Siren, bell or strobe
32 = Set/Unset Area
X
Transmitter input
33 = Intrusion
X
Transmitter input
34 = Tamper
X
Transmitter input
35 = More than One Alarm
X
Transmitter input
36 = Seismic Alarm
X
Transmitter input
37 = External Shock Count Alarm
X
Transmitter input
38 = Set/Unset
X
Transmitter input
39 = Hold-up/Duress
X
Transmitter input
40 = Duress
X
Transmitter input
41 = Technical 1
X
Transmitter input
42 = Technical 2
X
Transmitter input
43 = Transmission Test 1
X
Transmitter input
44 = Trouble
X
Transmitter input
45 = 1h Mains Fault
X
Transmitter input
46 = Fire Alarm
X
Transmitter input
47 = Isolation
X
Transmitter input
48 = CPU-Reset
X
Transmitter input
49 = Transmission Test 2
X
Transmitter input
50 = Anti Hostage
91000601
External
signalling
X
Lamp
1-27
1.6.2
Output soft type description
The following pages describe in detail the various input soft types available
00 - Not defined
Programmed for unused outputs.
01 - Common Alarm 1
Activated by intruder alarm from input soft types 01, 02, 03, 04, 06, 07, 08 19+20
and 21. Passivated by timer or at log-on.
02 - Tamper Alarm
Activated by tamper alarm from input soft type 07.
Passivated by timer or at log-on.
04 - Seismic Alarm
Activated by intruder alarm from input soft type 02.
Passivated by timer or at log-on (local output).
05 – Local Shock
Count Alarm
Activated by intruder alarm from input soft type 21 (Shock Count) in Set and
Unset condition.
Passivated by timer or at log-on (local output).
06 - Set/Unset
Activated by zone set with no isolations (after exit time). Please note that all
zones (also unused zones) must be set, before a System set output will be
activated.
07 - Hold-up Alarm
Activated by hold-up alarm from input soft types 09 and 22. Blocks output soft
types 01, 02, 04, 14, 29 and the internal buzzer.
Passivated when all such messages are reset.
08 – More than one
Hold-up alarm
The output will activate only if more than one Hold-up alarm from the following
input soft types has occurred: Input soft types 09 or 22. The output is passivated
again when the number of alarms is 1 or 0 or by the timer programmed to the
output soft type. Is used as an transmission output soft type.
09 – Technical Alarm 1
Follows input soft type 11 input condition - active or passive.
10 – Technical Alarm 2
Activated by technical alarm from input soft type 12.
12 - System Fault
Activated by system fault from input soft type 13 or 15.
14 - Local Alarm
Activated by local fire door alarm from input soft type 03. Direct input/output
address relation.
Output is following the corresponding input condition.
16 - SW. Power
Activated during log-on to a keypad within the zone and when one or more of
input soft types 01 - 04 are physically set. Can be used to control power for
Ultrasonic detectors.
17 - Entry/Exit
Activated during entry and exit time.
A Timer No. (7 - 28) can be connected to the output soft type for creating a special
Timer type but the Duration of this Timer must then be programmed to 999.
18 - Set/Fault
Activated for a short time (normally 2 s - in case of isolations 5 s) to indicate
completion of the setting procedure. Activated until log-on in case of exit faults.
1-28
91000601
19 - Test
Active during test Menu 32 - Walk/Seismic Test - in order to check passive
infrared detectors, which have the option to control the walk test lamp by an
on/off signal, and in order to test the reaction of seismic detectors etc., which
have a built-in test generator. The Test soft type must in this case be
programmed on an address with a Seismic input soft type 02 and with the same
zone number as the input address.
20 - Fire Reset
Normally activated - passivated for a short time by performing reset of fire alarm
messages (input soft type 18) by pressing the Alarm reset pushbutton .
The Fire alarm detector scanning is suppressed during the following 3 seconds
(preprogrammed to use Timer 12 DURATION).
21 - Fire alarm
Activated by fire alarm input soft type 18. Passivated by timer or log-on.
22 - Glass Break
Normally activated - passivated for a short time (defined by timer 3 DURATION)
by performing reset of intrusion alarm messages (input soft types 1 and 3) by
pressing the Alarm reset pushbutton . The detector scanning is suppressed
during the following seconds (Timer 3 DURATION plus 1 second).
23 - Perimeter
1st Detector
Activated after an alarm from input soft type 23 if programmed on the same
address as the input soft type 23. Passivated by timer or at log-on.
24 - Follow Input
Activated during the time an input soft type 24 - Follow Me - is active (by zone).
25 - Local Alarm
Function
If the output address is programmed with the output soft type 25, then this
output is reset at logon to a keypad within the zone (like a siren output). The
output soft type 25 must not be programmed with zone 00 but only another zone
No. included in the code/area that must reset the output.
If no output soft type is programmed to the output address, then the output will
work as a Transmission output which are reset when the inputs to the equation
are FALSE (all input messages reset from the display buffer).
26 - Auto-set
Prewarning
Activated for some time (programmable by Timer 29), or until log-on to a
keypad, 10 minutes before automatic setting. Auto-set may be delayed (one
time only) by calling Menu 14 on any remote keypad. If the zone No. is between
01 to 16, the output will be activated when the zone is included in an area which
makes an automatic setting. If the zone No. is 00 the, output will be activated for
all areas making automatic setting.
27 - Perimeter
2nd Detector
Activated after an alarm from input soft type 23 if another alarm from another
input soft type 23 already exists but within a period of time defined by Timer 19
(DURATION). Passivated by timer or at log-on.
29 - Common
Alarm 2
Activated by intruder alarm from input soft types 01, 02, 03, 04, 06, 07, 08, 19 +
20 and 21. Passivated by timer or at log-on. If this output soft type is programmed
with zone 00 (common), the output will be triggered only once, i.e. not re-triggered
by a new alarm condition after Auto Alarm Reset.
32 - Set/Unset Area
Activated when the area is physically set (before exit time). Isolated circuits may
be present. Passivated when just one circuit is unset. Can be allocated to area
001 to 016 only!
33 - Intrusion
Activated by external intruder alarm from input soft types 01, 02, 03, 04, 06, 07
(only if zone set), 08, 19+20 and 21.
Passivated by timer or when all such messages are reset.
91000601
1-29
34 - Tamper
Activated by tamper alarm from input soft type 07.
35 – More than one
alarm
The output will activate only if more than one intruder alarm from the following
input soft types have occurred: 01, 02, 03, 04, 06, 08, 19, 20 or 21. These are all
the Intruder input soft types excluding Technical, Fire and Hold-up alarms. The
output is passivated again when the number of alarms is 1 or 0 or by the timer
programmed to the output soft type. Is used as an transmission output soft type.
36 - Seismic Alarm
Activated by intruder alarm from input soft type 02.
Passivated by timer or when all such messages are reset (transmission output).
37 – External Shock
Count Alarm
Activated by intruder alarm from input soft type 21 (Shock Count) in Set
condition.
Passivated by timer or when all such messages are reset (transmission output).
38 - Set/Unset
Activated when the zone is physically set (before exit time). Isolated circuits may
be present. Passivated when just one circuit is unset.
Please note that all zones (also unused zones) must be set, before a System set
output will be activated.
39 - Hold-up/Duress
Activated by a hold-up alarm from input soft types 09 and 22 or when a duress
code is used.
Please note that a timer with a limited time must be used for this output soft
type, if the Hold-up code feature is enabled.
40 - Duress
Activated by a hold-up alarm when a duress code is used.
Passivated by timer.
Please note that a timer with a limited time must be used for this output soft
type, if the Hold-up code feature is enabled.
41 - Technical 1
Activated by external Technical Alarm 1 from input soft type 11.
42 - Technical 2
Activated by external Technical Alarm 2 from input soft type 12.
43 - Transmission
Test 1
The soft type is controlled by Timer 28 which is programmed in 0.1 hours. The
Timer DURATION specifies the frequency of the output activation (time between
each activation). The Timer DELAY defines the time between when the
programming is done and the first activation. If the Timer Type is programmed
to type 3, the output soft type 43 will be activated only if the zone (01-16) or
system (00) is set. All other Timer Types will activate the soft type in set or unset
condition. The soft type can be connected to one of the standard Timers from 07
to 27. This timer will then - by the DURATION - control the activation time (pulse
width). When output soft type 43 (common) is activated then a Transmission
Test 1 mail is sent to bus device type: Modem interface Online (14H).
44 - Trouble
Activated by system fault from input soft type 13, 14, 15 or 35.
NOTE! Activated during service mode (engineer at site) and automatically
passivated (if no other system fault messages are present) when service mode
is reset - if the internal input address 085 is programmed as soft type 14.
1-30
91000601
45 - 1h Mains Fault
Activated after 1 hour (or programmable time by Timer 06) of mains power fault.
Passivated by timer or when the message is reset.
Note! Must only be programmed in zone 00 (total system).
46 - Fire alarm
Activated by fire alarm input soft type 18. Passivated by timer or when all such
messages are reset.
47 - Isolation
Activated when one or more circuits are isolated.
Passivated when all such isolations are removed (by unsetting).
48 - CPU-Reset
Activated for a short time upon non-fatal CPU-reset.
49 - Transmission
Test 2
This output soft type works exactly as output soft type 43, but with Timer 17.
It is possible to use the Minitel output message for the transmission test on the
external dialer, by programming the output soft types 43 and 49 on the Minitel
outputs (900 – 999), and programming Timer 28 and 17.
When output soft type 49 (common) is activated, then a Transmission Test 2
mail is sent to bus device type: Modem interface Online (14H).
50 – Anti Hostage
Active when entering code and unsetting area consisting of zone 15.
Deactivated when all detectors in zone 15 are activated and entering the same
code and unset again.
91000601
1-31
1.6.3
Output addresses and standard programming
The relationship between each output address (i.e. output number displayed
during programming, etc.) and the physical location is listed below. It also appears
which programming is already made from the factory.
95T CU-30 on-board outputs
Terminal
number
Designation
001
P5-1/5
O1
00
00
NPN transistor output
002
P5-2/5
O2
00
00
003
P5-3/5
O3
00
00
004
P5-4/5
O4
00
00
005
P6-1/6
O5
00
00
006
P6-2/6
O6
00
00
007
P6-3/6
O7
00
00
008
P4
O8
00
00
Relay output
Output
address
By default:
Zone Type
Remarks
S-ART lines (Main Controller)
Output
address
Terminal
number
Designation
100-129
P7-1/2
Out 100-129
By default:
Zone Type
00
00
130-199
200-229
P8-1/2
Out 200-229
00
00
S-ART outputs line 2 (00 to 29)
Not available
P9-1/2
Out 300-329
00
00
330-399
400-429
Not available
230-299
300-329
Remarks
Not available
P10-1/2
Out 400-429
00
00
Transmission outputs (logical)
Terminal
number
Designation
900
RS-485
Free
00
00
901
RS-485
Mains fault (1 h)
00
45
902
RS-485
Watchdog reset
00
48
903
RS-485
Problem
00
44
904
RS-485
Isolation
00
47
905-909
RS-485
Free
00
00
910
RS-485
Fire
00
46
Output
address
By default:
Zone
Type
Remarks
Continued …
1-32
91000601
91000601
Output
address
Terminal
number
Designation
By default:
Zone
Type
911-919
RS-485
Free
00
00
920
RS-485
Hold-up
00
39
921-929
RS-485
Free
00
00
930
RS-485
Sabotage
00
34
931-939
RS-485
Free
00
00
940
RS-485
Intrusion
00
33
941-949
RS-485
Free
00
00
950
RS-485
System set
00
38
951-959
RS-485
Free
00
00
960
RS-485
System set
00
32
961-969
RS-485
Free
00
00
970
RS-485
Tech. alarm 1
00
41
971979
RS-485
Free
00
00
980
RS-485
Tech. alarm 2
00
42
981-989
RS-485
Free
00
00
990
RS-485
Cyclic test
00
43
991-999
RS-485
Free
00
00
Remarks
1-33
1.7
Reaction tables
The following sections provide reaction tables for local alarm/fault outputs,
transmission outputs, and various other outputs
1.7.1
Reaction table – local alarm/fault outputs
The table below illustrates, which output types are affected by an active condition of
the different input types (described by input type number and name). The outputs are
described using a short form output name and the output type number.
S The output is activated by the event in zone (or circuit) set condition.
U The output is activated by the event in zone unset condition.
(T) The output is activated for a short fixed time.
Output type
Input type
Alarm
O01
O29
01 - Normal Night
S
02 - Seismic alarm
S
03 – 24 h
S
04 - Entry Route
S
Tamper Seismic Hold-up
O02
004
O07
Tech1
Tech2
Fault
Local
Fire
O09
O10
O12
O14
O21
1st
detec.
O23
Follow
O24
2nd
det.
O27
S
U
05 - Bypass Unit
06 - Normal Night 2 h
S
07 - Tamper
S
S
SU
09 - Hold-up 1
SU
10 - Technical/Film counter
SU
11 - Technical 1
SU
12 - Technical 2
SU
13 - System Fault 1
SU
14 - System Fault 2
SU
15 - System Fault 3
16 - System Fault 4
S
SU
18 - Fire Alarm
SU
19 - Beam Pair 1
S
20 - Beam Pair 2
S
21 - Shock Count
S
22 - Hold-up 2
23 - Local Perimeter Detection
S
S
24 - Follow Me
S
25 - Set/Unset Zone Pulse
S
SU
26 - Set/Unset Zone Level
27 - Set/Unset Area Pulse
28 - S/Unset Area Level
29 - Alarm Reset
30 - 24 h Seismic
SU
31 - Night Deposit Box 2
SU
SU
Continued …
1-34
91000601
Output type
Input type
Alarm
O01
O29
Tamper Seismic Hold-up
O02
004
Tech1
Tech2
Fault
Local
Fire
O09
O10
O12
O14
O21
O07
1st
detec.
O23
Follow
O24
2nd
det.
O27
32 = Vindicator Lock
33 = High Security - Entry Door
SU
34 = Anti-mask
SU
35 = Primary Transmission
Fault
SU
The outputs are reset by timer or at log-on, except for Hold-up O07, which is not
reset until the last Hold-up message is erased from the alarm list, and Tech. 1
O09 and Follow O24 which follows the corresponding input conditions.
1.7.2
Reaction table – transmission outputs
The table below illustrates, which output types are affected by an active condition of
the different input types (described by input type number and name). The outputs are
described using a short form output name and the output type number.
S The output is activated by the event in zone (or circuit) set condition.
U The output is activated by the event in zone unset condition.
(T) The output is activated for a short fixed time.
Output type
Intrusion Tamper
Seismic
Hold-up
Duress
Tech1
Tech2
Trouble
O36
O39
O40
O41
O42
O44
1h
Mains
O45
13 - System Fault 1
SU
(S U)
14 - System Fault 2
SU
15 - System Fault 3
SU
Input type
O33
01 - Normal Night
S
02 - Seismic alarm
S
03 - 24 hour
S
04 - Entry Route
S
O34
Fire
O46
CPU
Reset
O48
S
05 - Bypass Unit
06 - Normal Night 2h
S
07 - Tamper
S
S
SU
09 - Hold-up 1
SU
S
11 - Technical 1
S
12 - Technical 2
SU
16 - System Fault 4
S
SU
18 - Fire
S
19 - Beam Pair 1
S
20 - Beam Pair 2
S
21 - Shock Count
S
22 - Hold-up 2
S
23 - Local Perimeter Detection
24 - Follow Me
Continued …
91000601
1-35
Output type
Intrusion Tamper
Input type
O33
O34
Seismic
Hold-up
Duress
Tech1
Tech2
Trouble
O36
O39
O40
O41
O42
O44
1h
Mains
O45
Fire
O46
CPU
Reset
O48
SU
27 - Set/Unset Area Pulse
28 - Set/Unset Area Level
29 - Alarm Reset
30 - 24 h Seismic
S
31 - 24h Night Deposit Box
S
S
32 - Vindicator Lock
33 - High Security - Entry Door
S
34 = Anti-mask
35 = Primary Transmission
Fault
SU
Non-fatal reset
(T)
The outputs are reset, when the last message is erased from the alarm list.
1.7.3
Reaction table – various outputs
The table below shows the output types affected by certain events. The outputs
are described using a short form name and the output type number.
A Indicates that the output is activated.
(A) Indicates that isolations may be carried out automatically when the setting is
performed by means of a remote control device.
R Indicates that the output is reset to the normal condition.
T Indicates that the output is activated for a programmed time. Timer
allocation and time set-up are determined during system programming
(T) Indicates that the output is activated for a short fixed time.
Output type/timer
Action
Set/unset
O06
O38
SW
power
O02
Entry/
exit
O17
Log-on to RKP
A
Initiate setting
A
T
A
R
Test
O19
Fire
reset
O20
Glass
break
O22
Auto
set
O26
Set/
unset
O32
R
A
(A)
R
R
Trans.
test
O43
Isolation
O47
R
Exit fault
Complete setting
Set/
fault
O18
A
A
Initiate unsetting
(T)
T
Entry fault
Complete unsetting
R
R
R
Alarm reset
(T)
T
Isolating circuits
A
Walk test, Menu 32
Time-prog. set
Timer 28
A
A
A
T
A
(A)
T
All quiet
1-36
91000601
1.8
Timers and timer functions
The following sections describe the timers available, timer duration functions
and delay functions, output soft types and software timer types.
1.8.1
Timer duration functions and delay functions
The table below lists the all Timers and the function linked to the Timer.
Timer No.
Duration function
Delay function
1
Must not be used or changed.
2
3
Glass Break Reset timer
Not used.
4
Timer for activation of output soft type 17 during Input
test (Menu 35) and Zone test (Menu 34)
Not used.
5
Timer for activation of output soft type 18 during
automatic set and automatic isolation.
Not used.
6
Mains fault timer in minutes before Mains Fault
indication.
Not used.
7
Free
Free
8
Free
Free
9
Free
Free
10
Free
Free
11
Free
Free
12
Free
Free
13
Free
Free
14
Free
Free
15
Free
Free
16
Automatic Seismic test timer. The duration field
specifies the interval between the activations
(0.1 hour = 6 minutes).
Automatic Seismic test timer: The delay field of the
timer specifies the time from the timer is programmed
to the first time the output soft type must be activated
(0.1 hour = 6 minutes).
17
Transmission test 2 (output soft type 49) frequency
timer. The Timer specifies the time between each
activation in 0.1 hours.
The Timer DELAY defines the time between when the
programming is done and the first activation. If the
Timer Type is programmed to type 3, the output soft
type 49 will be activated only if the zone (01-16)
or system (00) is set. All other Timer types will activate
the soft type in set or unset condition.
18
Timer for Autoset Function 7 for Re-arm Timed set
(Minutes).
Delay time for Re-arm Timed set if delay is asked in
Menu 14 (Minutes).
19
Max. time before the 2nd perimeter output (Output soft
type 27) can be activated after the 1st has been
activated.
20
Time window for the Shock count input soft type (Input
soft type21) (seconds).
21
Key storage box timer input soft type (seconds).
22
Techn./Film counter timer. Time active before alarm for
ITYP 10. (seconds)
Timer for High Security door (ITYP 33) in unset
condition before alarm. (seconds)
23
Auto Alarm Reset timer for Alarm Function Output
addresses. (seconds)
Double Knock active time. (seconds)
Max. number of pulses before alarm from ITYP 21 (in
time window). (count number).
Continued …
91000601
1-37
Timer No.
Duration function
Delay function
24
Double Knock time window (seconds).
Test time for Seismic input soft types after unsetting or
from test Menu 32 (seconds).
25
Test time for the Normal Night Input Soft type (06). The
detectors must during this time after unsetting give an
active signal, otherwise a system Fault message will
be created by the detector (minutes).
The input soft type Seismic Alarm (02) is inhibited
during the DELAY time if an Input soft type Night
Deposit Box (08) in the zone has been opened
(seconds).
26
The input soft type Night Deposit Box (08) is inhibited
during the DURATION time (as well as the Seismic
soft type in the same zone) (seconds).
27
Beam Pair time window (Input soft types 19 and 20).
(seconds)
The Timer DELAY defines the time between when the
programming is done and the first activation. If the
Timer Type is programmed to type 3, the output soft
type 43 will be activated only if the zone (01-16) or
system (00) is set. All other Timer types will activate
the soft type in set or unset condition
28
Transmission Test 1 (output soft type 43) frequency
timer. The Timer specifies the time between each
activation in 0.1 h.
The programmed DELAY will be subtracted the fixed
10 minutes prewarning time before Auto Set.
29
Automatic Set Pre-warning Time duration
(Output soft type 26).
Automatic alarm reset timer (seconds).
30
Soak test duration. (hours)
Entry Time for Zone 1 – 16 (seconds)
31 – 46
Exit Time for Zone 1 – 16 (seconds)
47
Timer for activation of all output soft types.
Duration is set in increments of one minute.
48
49
50
Used in connection with the verification period of the
anti-hostage system (Option bit 23 set to 1, see section
1.12) where the alarm reaction from all input soft type
01 inputs of zone 15 is bypassed during DURATION
time.
The timer starts when a user - with an area containing
only zone 15 - unsets zone 15. The timer is stopped
when the same user unsets zone 15 again. If the timer
expires, an alarm is generated from all input soft type
01 inputs of zone 15
☛
1.8.2
The DELAY determines the time when manual
unsetting is allowed after manual setting.
It is used in connection with the Lunch Break function
(Section 1.12), and can only be used with P0 og P1
codes and only when FNC 11 is active.
If option bit 1 is set to 0 (Bank mode), the function can
only be used by P0 codes.
Delay is set in increments of one minute with a minimum
time of 10 minutes.
Please note that the DURATION time can be set in the interval from 1 to 999
and the DELAY time in the interval from 1 to 255.
Output soft types and software timer types
Output soft types
Default setup
Timer/type
01 – Common alarm 1
3 min
T07/1
02 - Tamper Alarm
3 min
T08/1
10 - Technical Alarm 2
3 min
T09/1
14 - Local Alarm
3 min
T10/1
18 - Set/Fault (by setting completed)
2s
T11/1
19 - Test
30 s
T15/1
20 - Fire Reset
3s
T12/2
22 - Glass Break (Reset)
2s
T03/3
Continued …
1-38
91000601
Output soft types
Default setup
Timer/type
26 - Auto-Set Prewarning
5 min
T29/1
29 - Common Alarm 2
3 min
T07/1
39 - Hold-up/Duress
1 min
T14/1
43 - Transmission Test 1
∞
T2/1 *
48 - CPU-Reset
2s
T11/1
*The Timer No. must be changed to another timer No. between 7 - 18 before using the soft type 43.
91000601
Name
Default setup
Timer/type
Mains power drop-out detection time
250 ms
Software
Mains power failure detection time
1h
T06/1
Mains power lamp flash
0.5 Hz
Software
Battery presence test frequency
5s
Software
Battery presence test duration
25 ms
Software
Battery load test frequency
24 h
Software
Battery load test duration
15 s
Software
Watch dog timer reset frequency
<400 ms
Software
I/O-Board input sample time
62.5 ms
Software
S-ART input sample time
125 ms
Software
Input circuit change detection time
250 ms
Software
I/O-Board output refresh time
1s
Software
S-ART output refresh time
1s
Software
Normal auto-clear time
2 min.
Software
Auto-clear time during test/programming
25/10 min.
Software
Operating fault buzzer activation
0.5 s
Software
Keypad blockade after log-in fault
5 min.
Software
Log-out in alarm condition buzzing
15 s
Software
Engineer code acceptance after alarm
2 min
Software
Keypad lamp flash during lamp test
0.5 Hz
Software
Keypad display flash during lamp test
0.5 Hz
Software
Entry/Exit buzzing during zone test
5s
T04/1
Set/Fault activation by 1-2 isolations
5s
T05/4
Keypad buzzing during zone test
1s
Software
Status refresh time during input test
5s
Software
Double Knock time window
5 min.
T24 DURATION
Double Knock 1 event detection time
10 s
T24 DELAY
Soak test duration
7 days
T30/1 DURATION
Auto Set pre-warning time duration
5 min.
T29/1
Auto Alarm Reset time-delay
3 min.
T30/1 DELAY
Exit time of zone
1 min.
T31-46/1
Entry time of zone
1 min.
T31-46/1
1-39
Timer types
To describe the function of a timer, a timer type can be allocated to each timer No.
Seven different timer types exist and can be used as required.
Timer type No.
Description
1
Normal function (output normally OFF)
2
Inverted function (output normally ON)
3
30 ms pulse width - only on I/O-board output address 001 to 016
4
Output alternating 0.5 Hz during time-duration
5
Like 4, but with inverted function (output normally ON)
6
Output alternating 0.25 Hz during time-duration
7
Like 6, but with inverted function (output normally ON).
See Chapter 3, Programming, for more information about the allocation of
timers/timer types to output soft types.
1-40
91000601
1.9
Alarm functions
Alarm Functions makes it possible to activate an output depending on alarms
from specific input addresses and not only from a zone as the normal output soft
types.
In general, an Alarm Function can only be active when the input condition is in
alarm, meaning that there must be an alarm message in the alarm display.
However, the input types "Follow me" and "Only in log system fault" can activate
an Alarm Function without creating an alarm message.
See also Section 1.9.4 for information about Alarm Functions indicating that all
detectors or certain detectors are in normal condition.
1.9.1
IF - THEN expressions
Normally the large number of input and output soft types, each with individual
characteristics, are more than adequate for creating the wanted input-output
reaction. Sometimes however, a special function not found as standard, is
needed. Such functions are often made by means of a small piece of hardware
or by interconnections between a number of relay outputs. In order to supply
some assistance in making "unforeseen" relations between input conditions and
outputs, some free programmable IF - THEN expressions (or alarm functions)
are added as a supplement to the fixed input/output soft types.
In general the input and output fields of the expressions refer to physical
addresses (not to soft types). The value of each field is either FALSE (0) or
TRUE (1) corresponding to the input/output conditions PASSIVE or ACTIVE.
The expressions are calculated according to the rules of Boolean Algebra, which
means that multiplications are made before additions.
Boolean Algebra:
1 + 1 * 0 = 1 + (1 * 0) = 1
The operands used are:
(and not (1 + 1) * 0 = 0)
+
(logical OR - selected by the
*
(logical AND - selected by the
- key)
- key)
In terms of Thor expressions, it works like this:
Ex.
001 = 002 + 003 * 004
which is translated into the verbal description: IF input address 002 is active OR
input address 003 AND 004 are both active, THEN output 001 is active, ELSE
output 001 is passive.
The number of expressions is 49 and each expression allows for a maximum of
11 input fields and 1 output field. The first field displayed is the expression number
851 to 899. The next 11 input fields are for standard input addresses. The value of
an input (true = active or false = passive) depends on the input soft type allocated
to this input address. The last field makes it possible to direct the expression to a
standard output address (3 digits) and to allocate a timer to this output (2 digits).
No further programming of the output is needed to make it follow the value of the
expression. If, however, the output should be reset at logon to a keypad, the same
output address must be programmed with an Output Soft type 25 in Menu 48.
91000601
1-41
If an input field is not filled-in or equal to 000, it is disregarded. The output field
needs not to be programmed if the expression is an input to another expression.
Apart from the standard input addresses, some special inputs are allowed in
order to make larger calculations (one expression may be the input to another)
or in order to take special conditions into account.
1.9.2
Alarm functions for local / transmission outputs
If the output address is programmed with an Output Soft type 25 in Menu 48,
then this output is reset at logon to a keypad within the zone (like a siren output).
The Output Soft type 25 must not be programmed with zone 00 but only another
zone No. included in the code/area that must reset the output.
If no Output Soft type is programmed to the output address, then the output will
work as a Transmission output which are reset when the inputs to the equation
are FALSE (all input messages reset from the display buffer).
1.9.3
Auto alarm reset of output alarm functions
If the Timer allocation to the output of an expression is Timer No. 23, then the
normal reaction of this output is turned around, which means that the output is
activated, when the expression becomes TRUE. When the expression comes
false, the output is reset after the time specified in the DURATION part of the
Timer No. 23 (see the example below for output address 400). This feature is
primarily introduced in order to establish the Auto Alarm Reset function, which
also requires the special operand 029 - ACTIVE to be used in the input field in
front of each input address in order to have the proper reaction.
Example: 851 = 029 * 100 + 029 * 101 + ...... = 40023
Important: If an address Input soft type 04 (Entry/Exit detector) is used in an
Alarm Function, the address must always be AND'ed with the special Operand
025 (Detector set). If this is not done, the Alarm Function output will be reactivated during the unset period (entry time). See the example below:
Example: 851 = 029*400*025*400 + .......=40023
1.9.4
Alarm function without alarm input condition
Although an Alarm Function only can be active when the input condition is in
alarm, it is possible to create Alarm Functions reacting on an output without the
detector to be in alarm condition.
This means that you can make an output, which can indicate if all or certain
detectors are in normal condition, before you try to set the zone by for example
a key-switch.
This is done by the operands ACTIVE (29) and PASSIVE (30) which will take in
the real condition of the detector alarm contact in Set or Unset condition. If this
Operand is not used the Alarm Function will work as normal meaning that it
must be in Alarm condition.
The SET (25) and UNSET (26) operands can also be used without having the
input to be in Alarm condition first.
1-42
91000601
1.9.5
Special operands
025
The set/unset condition of the input address to the right in this part of the
expression must be SET. Must be used together with * (logical AND) and works
for standard input addresses and Input soft types 01, 02, 04, 06, 08, 19 and 20
only.
026
The set/unset condition of the input address to the right in this part of the
expression must be UNSET. Must be used together with * (logical AND) and
works for standard input addresses and Input soft types 01, 02, 04, 06, 08, 19
and 20 only.
027
Inverting "operand". Used to invert the value of the input address to the right 027 * xxx corresponds to xxx passive = TRUE. Works for standard as well as
special input addresses.
028
The alarm condition of the input address to the right in this part of the
expression must be TAMPER (the default set-up is the alarm input of the SART). Must be used together with * (logical AND) and works for standard input
addresses only.
029
The actual input condition of the input address to the right in this part of the
expression must be ACTIVE (the default set-up does not distinguish between
active and passive). Must be used together with * (logical AND) and works for
standard input addresses only.
030
The actual input condition of the input address to the right in this part of the
expression must be PASSIVE (the default set-up does not distinguish between
active and passive). Must be used together with * (logical AND) and works for
standard input addresses only.
1.9.6
Standard input addresses
001 – 002
Loop Inputs of the CU-30
017 – 024
Vault Controller
025 – 029
Video Loss Camera 1 – 5
031 – 061
Bus Device Alarm/Fault Messages, address 01 – 31
070 – 072
Video Loss Camera 6 – 8
076 – 080
Minitel Fault Messages
081 – 092
Thor Intrusion Internal Fault Messages
100 – 130
S-ART inputs
200 – 230
S-ART inputs
300 – 330
S-ART inputs
400 – 430
S-ART inputs
500 – 531
Bus Device Tamper/Fault Messages, address 00 – 31
- 532
91000601
Printer
1-43
1.9.7
Standard output addresses
001 – 008
Outputs of the CU-30
100 – 129
S-ART outputs
200 – 229
S-ART outputs
300 – 329
S-ART outputs
400 – 429
S-ART outputs
900 – 999
Minitel outputs
1.9.8
Special input addresses
140 – 156
Pseudo input addresses describing the hold-up alarm condition of the system
(zone 00) and zone 01 to 16. TRUE if one or more messages of this kind are
found within the zone. FALSE when all such messages have been reset.
160 – 176
Pseudo input addresses describing the intrusion alarm condition of the system
Note!
Local alarm from Input Soft type 03 in the unset condition and tamper alarm no
matter the set/unset condition do not affect these input addresses.
180 – 196
Note!
System fault from Input Soft type 16 does not affect these input addresses.
240 – 256
Pseudo input addresses describing the tamper alarm condition of the system
260 – 276
Pseudo input addresses describing the technical alarm condition of the system
Note!
1-44
Pseudo input addresses describing the system fault condition of the system
Local technical alarm from Input Soft type 11 in the unset condition does not
affect these input addresses.
280 – 296
Pseudo input addresses describing the isolation condition of the system (zone
00) and zone 01 to 16. TRUE if one or more messages of this kind are found
within the zone. FALSE when all such messages have been reset.
340 – 356
Pseudo input addresses describing the fire alarm condition of the system (zone
00) and zone 01 to 16. TRUE if one or more messages of this kind are found
within the zone. FALSE when all such messages have been reset.
361 – 376
Pseudo input addresses describing the set/unset condition of the zones 01 to 16,
i.e. TRUE when zone is SET or PARTIALLY SET, FALSE when zone is UNSET.
600 – 850
Pseudo input addresses describing the set/unset condition of the areas, i.e. 600
is TRUE when all areas used are set (SYSTEM SET - isolation may be present),
while 601 to 850 represent the corresponding areas 001 to 250 - TRUE when
the area is physically or logically SET, FALSE when the area is PARTIALLY SET
or UNSET.
91000601
851 – 899
IF-THEN Expression Buffers. May be directed to standard output addresses and
at the same time be inputs to other expressions.
Note
If you are not using the operands ACTIVE (29) and PASSIVE (30), the functions
will remain as outlined in the table below. However, if the operands 29 or 30 is
used, the function will change accordingly. See Section 1.9.4 for more
information.
Conditions to become:
91000601
Input type and name
“True”
“False”
01 - Normal Night
Alarm Message
Alarm Reset
02 - Seismic Alarm
Alarm Message
Alarm Reset
03 - 24h (Fire door - related to OTYP 14)
Alarm Message
Alarm Reset
04 - Entry Route (With timer)
Alarm Message
Alarm Reset
05 - Bypass Unit
Active
Passive
06 - Normal Night 2 h (Test)
Alarm Message
Alarm Reset
07 - Tamper
Alarm Message
Alarm Reset
Alarm Message
Alarm Reset
09 - Hold-up 1 (blocks bells)
Alarm Message
Alarm Reset
Alarm Message
Alarm Reset
11 - Technical 1 (local)
Alarm Message
Alarm Reset
12 - Technical 2 (external)
Alarm Message
Alarm Reset
13 - Sys. Fault 1 (normal trouble)
Fault Message
Fault Reset
14 - Sys. Fault 2 (automatic reset)
Active
Passive
15 - Sys. Fault 3 (engineer reset)
Fault Message
Fault Reset
16 - Sys. Fault 4 (just event-log)
Active
Passive
17 - Key Storage box
Alarm Message
Alarm Reset
18 - Fire Alarm
Alarm Message
Alarm Reset
19 - Beam Pair 1 (With timer)
Alarm Message
Alarm Reset
20 - Beam Pair 2 (With timer)
Alarm Message
Alarm Reset
21 - Shock Count
Alarm Message
Alarm Reset
22 - Hold-up 2 (blocks bells)
Alarm Message
Alarm Reset
23 - Local perimeter detection
Alarm Message
Alarm Reset
24 - Follow Me
Active
Passive
Active
Passive
Active
Passive
27 - Set/Unset Area Pulse (Area 001-016)
Active
Passive
28 - Set/Unset Area Level (Area 001-016)
Active
Passive
29 - Alarm reset
Active
Passive
30 – 24 h Seismic Alarm
Alarm Message
Alarm Reset
31 – 24 h Night Deposit Box
Alarm Message
Alarm Reset
32 - Vindicator lock
Active
Passive
33 - High Security – entry door
Alarm Message
Alarm Reset
34 - Anti-mask
Alarm Message
Alarm Reset
35 - Primary Transmission Fault
Active
Passive
1-45
Alarm Message
Alarm Reset
An Alarm Reset is an alarm message manually deleted from the alarm list.
Fault Message
A Fault Message means an activation of the alarm input of the S-ART unit
(not the tamper input) resulting in a message in the fault list of menu 12.
Fault Reset
Active or Passive
Reaction time
1-46
An Alarm Message is a message in the alarm list, Menu 11, resulting from an
activation of the alarm input of the S-ART (not the tamper input).
A Fault Reset is a fault message manually deleted from the fault list.
Active or Passive condition describe the actual condition of the alarm input of
the S-ART.
Typical time from alarm detection to output activation is 1 to 3 s.
91000601
1.10
Single-site and multi-subsite system
By use of the option bit 14, it is possible to run the software in two different
modes, a multi sub-site mode (distributed system) or single site mode
(integrated system).
The purpose of the multi sub-site mode is to divide the Thor central unit into
several sub-systems where each subsystem has one or more Remote keypads to
operate the part belonging to the subsystem. In this mode alarms etc. are only
shown on the Remote keypads belonging to the zones from where the alarms are
coming. The user does not know what is going on the other sub-site systems. This
can be used for example in sites with several companies in the same building.
In the single site mode all alarms etc. can be seen by all codes and from all
Remote keypads, but still the reset of alarms, disarming of other zones etc. are
depending on the zone mask dependency.
In the following tables the user zone mask dependency of user (area) and
operating panel when operating a distributed or an integrated system is shown.
Two columns for each type of system are shown. The are labelled User and
RKP, respectively. When a "yes" is shown in the User column, it means that this
function or menu is using the area/zone mask to display or to allow the function.
On the contrary, when a "no" is written, the menu or function works global not
depending on the area/zone mask.
The RKPs can be defined to work on zones also (See Chapter 3, Programming).
In the RKP column, a "yes" means that the function or menu is using the
RKP/zone mask. Opposite when a "no" is written, it means that the menu or
function works global with no RKP/zone mask dependency.
Multi-subsite system
Single site system
User
RKP
User
RKP
Remarks
Menu 10 Code-Area status
- area display
- area setting
- area unsetting
- autoset area unset
- zone display
- zone setting
- zone unsetting
- auto set zone unset
- detector isolation
yes
yes
yes
yes
yes
yes
yes
yes
yes
no
yes
yes
yes
no
no
no
no
yes
yes
yes
yes
yes
no
no
no
no
yes
no
yes
yes
yes
no
no
no
no
yes
All codes
All codes
All codes
P2, P4 codes only
All codes
All codes
All codes
P2, P4 code only
P0-P1 max. 2
Menu 11 Alarm list
- alarm display
- intrusion alarm reset
- tamper alarm reset
- hold-up alarm reset
- technical alarm reset
- fire alarm reset
yes
yes
yes
yes
yes
yes
no
no
no
no
no
no
no
yes
yes
yes
yes
yes
no
no
no
no
no
no
All codes
All codes
P2-P4 codes only
All codes
All codes
All codes
Menu 12 System Fault List
- system fault display
- battery fault reset
- 1h mains fault reset
- system fault (3) reset
yes
yes
yes
yes
no
no
no
no
no
yes
yes
yes
no
no
no
no
All codes
All codes
All codes
P3-P4 codes only
Menu 13 Isolations List
- detector display
yes
no
no
no
All codes
Continued …
91000601
1-47
Multi-subsite system
Single site system
User
RKP
User
RKP
Remarks
Menu 21 Area Status
- area display
- area setting
- area unsetting
no
no
yes
yes
yes
yes
no
no
yes
no
yes
yes
All codes
All codes
All codes
Menu 22 Zone Status
- zone display
- zone setting
- zone unsetting
no
no
yes
yes
yes
yes
no
no
yes
yes
yes
yes
All codes
All codes
All codes
Menu 23 Detector Status
- detector display
- detector setting
- detector unsetting
- detector isolation
yes
yes
yes
yes
yes
yes
yes
yes
yes
yes
yes
yes
yes
yes
yes
yes
All codes
All codes
All codes
All codes
Menu 25 Event-Log
- log display
no
no
no
no
P1 – P4 codes only
Menu 26 Print Event-Log
- log print
no
no
no
no
Menu 27 Print Status
- status print
no
no
no
no
Menu 28 Print Set-up
- set-up printing
no
no
no
no
P2, P4 codes only
Menu 29 Alarm Counter
- counter display
no
no
no
no
P2, P4 codes only
Menu 31 Lamp Test
- lamp and display test
no
no
no
no
All codes
Menu 32 Walk test
- test output activation
yes
yes
yes
yes
Menu 33 Battery Test
- battery load test
no
no
no
no
Menu 34 Zone Test
- semi-automatic test
yes
yes
yes
yes
Menu 35 Detector Test
- individual input test
no
no
no
no
P4 codes only
Menu 36 Output Test
- individual output test
no
no
no
no
P2, P4 codes only
Menu 37 Printer Test
- test print-out
no
yes
no
yes
Menu 38 Bell Test
- bell output activation
no
no
no
no
Menu 41 Date and Time
- correction
no
no
no
no
Menu 42 Change of Code
- correction
yes
no
yes
no
Menu 43 to 54
- programming
no
no
no
no
P4 codes only (Note 1)
Menu 50 Allow Service
- allow service code
- set in service mode
- reset all alarm/fault
no
no
no
no
no
no
no
no
no
no
no
no
P4 codes only
Menu 51 End Service Mode
- disable service code
no
no
no
no
All codes
Note 1: Requires a printer connected to the Control unit.
1-48
91000601
1.11
Auto alarm reset
The purpose of automatic alarm reset is to passivate the alarm outputs and
prepare the installation for detecting another alarm condition without the need of
human interference. Not only the acoustical indicators are affected, also the
transmission outputs are reset to let the central alarm station personnel decide
whether the alarm condition is a "faulty one" or a condition requiring immediate
action (by repeated alarm transmissions).
Automatic alarm reset is performed within each zone by means of individual
zone timers, but using a time set-up common to all zones. When an alarm
condition within the zone is detected, the timer of this zone is started. If another
alarm condition of a different detector within the same zone takes place before
time-out, the timer is restarted.
At time-out, the actual input condition of all "auto alarm reset type" detectors
within the zone, which are elements of the alarm list, are checked. In case the
input condition of just one detector is ACTIVE, the timer is restarted and the
check performed at next time-out and so forth. When the input condition of all
such detectors are QUIET, all outputs within the zone, affected by automatic
alarm reset, are reset (if not already reset by the normal output timer) and the
alarm panel is prepared for a new alarm detection - also from detectors already
listed in the alarm list, which can only be reset by the user.
Fig. 1.9
91000601
Auto Alarm Reset signal diagram.
1-49
1.11.1
Input/output soft types affected by auto alarm reset
The table below lists the input and output soft types affected by an Auto Alarm Reset.
Input soft types
Input type 01 – Normal night
Input type 02 – Seismic alarm
Input type 03 – 24h (Fire door)
Input type 04 - Entry route
Input type 05 – Bypass unit
Input type 06 – Normal night 2 h
Input type 07 – Tamper
Input type 08 –Night deposit box
Input type 09 – Hold-up (only with option bit 3)
Input type 19 – Beam pair 1
Input type 20 – Beam pair 2
Input type 21 – Shock count
Input type 23 – Local Perimeter detection
Input type 30 – 24 h seismic
Input type 31 - Night deposit box 2
Input type 33 – High security entry door
Input type 34 – Antimask
Output soft types
Output type 01 - Common alarm 1
Output type 02 - Tamper alarm
Output type 04 – Seismic alarm
Output type 07 – Hold-up (only with option bit 3)
Output type 14 – Local alarm
st
Output type 23 – Perimeter 1 detector
nd
Output type 27 - Perimeter 2 detector
Output type 29 - Common alarm 2
Output type 33 - Intrusion
Output type 34 - Tamper
Output type 36 – Seismic alarm
Timer T30 DELAY is used for common Auto Alarm Reset time set-up where
DELAY can be set in the range 000 to 250 s. If DELAY is set to 254 s, the auto
alarm reset function is disabled.
1-50
91000601
1.12
Anti-hostage system
Introduction
The anti-hostage system is a way to prevent taking hostages when the bank
personnel meet in the morning by showing alarms or unsetting/unset status on
an indicator box with three LEDs visible from the outside of the bank.
The three LEDs - green, orange and red - on the indicator box have the
following meaning:
GO
Green LED lit means that the unsetting procedure has been completed
successfully; you may enter the bank.
WAIT
Orange LED lit means that the unsetting procedure is in progress but
has not yet been completed; you must wait for permission to enter the
bank.
STOP Red LED lit means that an alarm condition is present; it is not permitted
to enter the bank.
The anti-hostage system allows an external alarm to be generated in case of
assaults on persons that opens the bank in the morning.
If a certain procedure is not followed or a timer expires while unsetting the
intrusion system, an external alarm will be generated.
The anti-hostage system is allocated to a logical area containing only a single
zone (anti-hostage zone) containing all PIR detectors of the anti-hostage system
In addition to this, special functions such as lunch timer, delay of autosetting,
etc., are available
The anti-hostage system comprises a number ofinfrared (PIR) detectors in
addition to the indicator box located so that it is visible outside the bank.
Usually the intrusion system will consist of at least two areas: a peripheral area
and a main area.
Both areas are controlled by by week programs that will ensure that they are
automatically set as scheduled and that they can be manually unset on the
scheduled dates and times.
☛
91000601
Please note that the anti-hostage functions and associated function are enabled
only when option bit 23 is set to 1. See page 4-35.
1-51
1.12.1
Anti-hostage system operation
System status
When the first person arrives, the system is set and all LEDs on the box at are
under normal conditions turned off. If an alarm condition is present, the red LED
is lit and it is not permitted to enter the bank to unset the intrusion system.
Unsetting the
system
To unset the system when all LEDs are turned off, the person must enter his
pin-code on the 95T RKP and press the - key. The orange LED on the box
will be turned on, the alarm reaction of the PIR dectors will be bypassed (i. e.
temporarily disabled) and a verification period timer is started. The lit orange LED
indicates that persons arriving to the bank later, must wait for a permission to
enter the bank.
The first person must then walk a tour in the bank within the verification period to
activate all PIR detectors of the anti-hostage system. When the tour is finished, the
person returns to the 95T RKP and enters the same pin code again and presses the
- key. If all PIR detectors of the anti-hostage system were activated during the
tour, the verification period timer is stopped, the orange LED is turned off, the system
is unset, and the green LED is turned on. The lit green LED indicates that persons
arriving to the bank have permission to enter the bank immediately.
Hold-up
In case of a hold-up, the person held may limit his tour in the bank to ensure that
not all PIR detectors are activated. After this, the person returns to the 95T RKP
and enters his pin-code again. This will put all unactivated PIR detectors into alarm
condition, generate an external alarm and turn the red LED on.
If the verification period timer - started the first time the - key was pressed expires before the pin-code is entered again and the - key is pressed the
second time, all PIR detectors will go into alarm condition, generate an external
alarm and turn the red LED on.
After unsetting of
the system
After the unsetting, the system may be manually set again for example during
the lunch break.
A timer controls the time when a manual unsetting is allowed after a manual
setting has been performed. The time can be set in increments of one minute;
the minimum time that can be set is 10 minutes. The function is controlled by
the week program function FNC 11.
Setting the system
When the system has to be set, the person will enter his personal pin-code and
press the - key. The system is then set and all LEDs of the indicator box are
turned off.
After setting of the
system
After the system has been set after the normal working hours, it will remain set
until the mnual unsetting is performed the following morning within the period
where manual unsetting is allowed.
However, a guard may make his usual round in the bank using his alarm patrol
code (P3) that should be programmed to the logical area containing the antihostage zone.
The procedure for the unsetting and setting the system is the same as that
previously described and the anti-hostage system will provide identical reactions
to identical circumstances as described above.
It is not possible to use the alarm patrol code in weekends and on holidays. Only
day types 1 to 5 will allow the alarm patrol code to be used.
1-52
91000601
1.12.2
Anti-hostage zone
The anti-hostage zone is defined to be zone 15. In this zone, the alarm reaction
for the which are programmed for the zone can be bypassed (temporarily
disabled) by users with a priority 0 code or a priority 3 code (Alarm patrol code)
to an area that contains only zone 15.
All inputs (from PIR detectors) programmmed with input soft type 01 and
belonging to zone 15 can be put into the bypass mode where an activation of the
input will be stored.
The zone is put into this bypass mode the first time a user enters his pin-code
on the 95T RKP and presses the - key. At the same time a verification period
timer (Timer 50 – duration – see Section 1.8.1.) is started and the orange LED
on the box will be turned on.
The orange LED is controlled by a output soft type 50 (Section 1.6.2). The output
soft type is active while the zone is in the bypass mode The output soft type must
be programmed in zone 15 or as a common type (Zone 0) in order to work.
The user must then walk a tour in the bank within this verification period to
activate all PIR detectors of the anti-hostage system. When the tour is finished,
the user returns to the 95T RKP and enters the same pin code again and
presses the - key.
If all PIR detectors of the anti-hostage system were activated during the tour, the
orange LED is turned off, the system is unset, and the green LED is turned on.
The green LED can be controlled by a normal zone set (inverted) output soft type
or an alarm function, where timer 47 can be used for the activation. The timer 47
duration is set in increments of one minute. See Section 1.8.1.
If not all PIR detectors of the zone were activated during the tour or the
verification period timer expires, the entry of the pin-code again followed by the
pressing of the - key will put all PIR detectors into alarm condition, generate an
external alarm and turn the red LED on.
The red LED is controlled by a normal local alarm output soft type.
Peripheral area
and main area
The areas are controlled by automatic set/unset week programs that ensures
that the areas are set and that they are allowed to be unset on the scheduled
date and times.
Peripheral area
An automatic set/unset week program controls when it is allowed to manually
unset the area. It will normally not be allowable to unset the area during
nighttime but only during daytime (after lunch break).
When the area is automatically unset, it is allowable to manually set the area.
If during daytime, the peripheral area is set (at lunch break), it is not allowed to
unset the area before after a predefined (programmable) time.
Main area
The main area is also controlled by an automatic set/unset week program. The
week program will not unset the area but will give a user access to unset the
area manually. If the area is not unset within the allowed period, it will not be
possible to manually unset the area that day.
If the main area is not manually unset at the end of the period in which it may be
manually unset, the peripheral area must be set automatically.
If during daytime, the main area is set (at lunch break), it is not allowed to unset the
area before after a programmable time of minimum 10 minutes.
In the evening, if some of the personnel have to work late, it is possible to delay
the automatic setting with up to one hour. If the setting of the main area is
91000601
1-53
delayed, then the automatic setting of the peripheral area wil be delayed also
until the setting of the main area takes place.
Week program
interdependence
There is some interdependence between the functions of the automatic
set/unset week programs of the peripheral area and main area.
In general the interdependence is established by pairing the areas by incrementing
the area number by one. This means that if the main area is area 1 and the
peripheral area is area 2, the required interdependence can be established. The
same interdependence can also be established by for example area 2 and area 3
and by area 8 and area 1, etc.
All user dependent rights for setting and unsetting are only valid for P0 and P1
codes, when the CU is operating in bank mode. If not operating in bank mode, it
is only valid for P0 codes.
The normal function of P0 and P1 codes is preserved where the unsetting rights
are controlled by week programs.
Week program FNC 10
The week program function FNC 10 will allow manual unsetting at the start of
the period. If the area has not been manually unset at the end of the period, the
area + 1 is set automatically. This means that if the function is programmed for
area 1, then area 2 will be set automatically; if the function is programmmed for
area 8, then area 1 will be set. See also Section 3.7.1.
Lunch timer
A timer controls the time that must pass after a manual setting before a manual
unsetting is allowed. Timer 50 – delay is used for setting this time (Lunch timer).
This function is only valid for P0 and P1 codes, when the CU is operating in
bank mode. If not operating in bank mode (option bit 1 is set to 0), it is only valid
for P0 codes.
The function is only enabled when the week program period with FNC 11 is
started; it is disabled when the first automatic setting is activated.
Week program FNC 11
Week program function FNC 11 will allow manual setting and unsetting at the
start of the period, but only if the area is unset when the period starts. This
function is used for enabling the lunch timer function described above. See also
Section 3.7.1.
Delay of automatic
setting
If the automatic setting for the week program functions FNC 1 to FNC 8 is
delayed, the automatic setting for the area+1 is delayed also.
When the area, where the automatic setting was delayed, is set, the area+1 is
set too.
1-54
91000601
Installation
Installation
Introduction
This chapter provides the information needed to install the various components
of an intrusion system.
This chapter
91000601
Section
Page
Noise emmission prevention
2-2
90T CU-30 and 95T CU-30 central unit
2-3
95T CU-30-24V Central unit
2-12
S-ARTs
2-18
Remote keypads
2-37
General purpose Interface 95T GPI COM
2-39
GPI BR Bridge
2-49
GPI BRM/DLM Direct line modem interface
2-50
GPI DLC Bus amplifier
2-52
RS-485 bus connections
2-53
Cable length and dimension
2-54
Current consumption
2-55
2-1
Installation
2.1
Noise emmission prevention
Introduction
To prevent noise emmission and to comply with EN 50081-1, it is important that
the installation instructions of this manual are followed.
Protection needed
In addition to this, all cables leaving the Thor Central Unit box must be protected by
means of ferrite cores (except the mains power cable). This applies also to cables
from the 95T I/O-board (Section 2.2.4 and 2.3.2) and an internally mounted
99T IPI interface.
For this purpose, three ferrite clamp cores are supplied with the Thor Central
Units 90T CU-30, 95T CU-30, and 95T CU-30-24V.
Installing the ferrite
cores
Fig. 2.1
Example of a ferrite clamp core (side and top view, scale 1:1 ) as delivered and top view of
a ferrite clamp core clipped around two cables.
The ferrite clamp cores simply clip around the cables enabling the cores to be
installed after the cables have been connected to the ThorGuard Central Unit
CPU-board, a 95T I/O-board, or a 99T IPI interface.
☛
Each ferrite clamp core may accomodate two cables only and these cables must
be connected to terminals on the same side of the CPU-board.
The three ferrite clamp cores supplied will suffice for the majority of installations.
However, if more are needed, they are available from HI SEC International
under the stock No. 125034.
2-2
91000601
Installation
2.2
90T CU-30 and 95T CU-30 central unit
The Thor Intruder System central unit CU-30 can be delivered in two cabinet
types. The CPU board and the software functions are the same for both types.
!
2.2.1
Please note that the 90T CU-30 and the 95T CU-30 both are 12 V systems
Lay-out of the 90T CU-30 central unit
The 90T CU-30 can control one S-ART bus meaning max. 30 S-ARTs. The
cabinet has space for one 12 V, 6.5 Ah accumulator.
Fig. 2.1
90T CU-30 central unit layout. All dimensions is in mm.
241
40
237
317
12 V, 6.5 Ah accumulator
40
22
22
197
0 0 0 9 0 8 0 1 a
External dimensions H x W x D:
91000601
317 x 241 x 95 mm
2-3
Installation
2.2.2
Lay-out of the 95T CU-30 central unit
The 95T CU-30 can control one S-ART bus in the standard version but can
accommodate the optional 95T I/O board that can control three additional S-ART
busses, i.e. control of a maximum of 4 x 30 S-ARTs. The cabinet has space for
one 12V, 24Ah accumulator.
Fig. 2.2
95T CU-30 central unit layout. Optional 95T I/O board mounted. All dimensions is in mm.
375
40
445
525
+
12 V, 24 Ah accumulator
40
50
275
50
0 0 0 9 0 8 0 2 a
External dimensions H x W x D:
2-4
525 x 375 x 140 mm
91000601
Installation
2.2.3
95T CUB-30 CPU board
The 95T CUB-30 CPU board is used in both the 90T CU-30 and the 95T CU-30
central units.
Lay-out
Fig. 2.3
95T CUB-30 CPU board layout.
Connector for flat-cable
to 95T I/O
OP1
J5 – 12 V/24 V setting of
output voltage on S-ART
and RS 485 connectors
OP2
S-ART bus DC fuse
J6 – CPU reset
S-ART terminals
(Addr. 100-129)
SW3 – Address and
application switch
Input 1-2 terminals
Main CPU EPROM
Output 1-4 terminals
J2 – RAM battery
RS-485 fuse
J3 – Factory test only
Output 5-7 terminals
COM EPROM
RS-485 terminals
J1 – RS 485
end-of-line resistor
Relay terminals
RS-232 terminals
Battery terminals
OP3 fuse test LED
Battery fuses
Battery load
test terminals
!
Switch SW3
settings
91000601
Tamper
switch
AC power
terminals
Fuse test
socket
0 0 0 8 2 5 0 1 a
Jumper J3 is used during factory tests. It must not be removed .
Position
Application
Remarks
SW3/1 On
Central unit address 00,
COM address 01
Please note that 90T CU-30 uses two
addresses
SW3/1 Off
Central unit address 01,
COM address 02
Please note that 90T CU-30 uses two
addresses
SW3/2
RS-232 COM definition
See RS-232 COM port , page 2-7
SW3/3
RS-232 COM definition
See RS-232 COM port , page 2-7
SW3/4 On
No RS-485 encryption
-
SW3/4 Off
RS-485 encryption selected
-
2-5
Installation
Jumpers
Connection to
S-ART terminals
The 95T CUB-30 CPU-board is equipped with a number of jumpers for various
purposes. These are described in the table below:
Jumper
Description
J1
Connects the RS 485 end-of-line resistor when mounted
J2
Disconnects RAM battery when removed.
J3
Used during factory tests. Must not be removed.
J5
When mounted on the pins labelled ”12V”, the output voltage on S-ART and RS 485
screw terminal connectors is supplied from the internal 12 V DC supply. When
mounted on the pins labelled ”24V”, the output voltage on S-ART and RS 485
connectors should be supplied from an external power supply (12 V DC or 24 V DC).
J6
Resets CPU when mounted.
Fig. 2.4
Connections to S-ART terminals.
4
0 V
3
1 2 V
2
L -
1
L +
P 2
Connections to
output terminals
Fig. 2.5
Connections to Output 1 - 4 terminals and Output 5 - 7 terminals.
T 5 0 0 m A
F 4
1 2 V
O 4
4
2 0 0 3
5
O U T P U T
U L N
3
O 3
2
O 2
1
O 1
P 5
T 5 0 0 m A
4
1 2 V
O 7
3
O U T P U T
F 5
2
O 6
1
O 5
P 6
L 2
C O M
L 2
1
L 1
P 3
2-6
Connections to Input 1 - 2 terminals.
3
0 V
IN P U T
Fig. 2.6
2
Connections to
input terminals
L 1
1 0 k
1 0 k
K o n ta k t N .C
91000601
Installation
Connections to
relay terminals
Fig. 2.7
Example of connections to Relay terminals.
T a m p e r s w itc h c o n n e c te d to In p u t L 1 o r L 2 ( P 3 )
T a m p e r s w itc h c o n n e c te d to In p u t L 1 o r L 2 ( P 3 )
R e la y o u tp u t
R e la y o u tp u t
1
1 4 V
1 4 V
P 4
Tamper switch
5
1 4 V
3
C
N C
2
2
N C
4
N O
S ir e n w ith
b u ilt- in b a tte r y .
3
C
0 V
0 V
1 4 V
S ir e n w ith
b u ilt- in b a tte r y
1
5
N O
4
0 V
0 V
P 4
The CPU-board has an on-board tamper contact. This tamper contact is using
the input address 500 or 501 depending on the address selected on the RS-485
bus (00 or 01) (see CPU-board switch settings).
RS-232 COM port
The RS-232 serial port can have different functions depending on the switch
setting of switch SW3, 2 and 3. The serial port can be used as PC interface, as
printer interface, as modem and X28 interface, as an interface to the TCP/IP
interface 99T IPI, and as an interface to a SECOM alarm transmitter.
Printer interface
application
Switch position for printer application: SW3/2 = OFF, SW3/3 = OFF.
The printer can be used in two different ways: Intrusion or Access. Default the
printer interface will be an Intrusion printer. To change this the SW3/2 must be
changed with DC connected as follows:
SW3/2 OFF --> ON: Access printer
SW3/2 ON --> OFF: Intrusion printer
After changing SW3/2 for selecting printer type, power must be removed from the
central unit and the SW3/2 must be put back to the default printer setting (SW3/2
and 3/3 both OFF). When the power is put back the interface will start up in the
mode (intrusion or access) last selected when changing the switch with power on.
For the connection diagram, please refer to the table on page 2-41 about the
connection of a serial printer.
PC Interface
application
Switch position for PC interface application:
SW3/2 ON
SW3/3 ON
For the connection diagram, please refer to Section 2.6.1 on page 2-43.
Modem/X28 Interface
application
Switch position for modem/x28 application:
SW3/2 ON
SW3/3 OFF
91000601
2-7
Installation
The modem interface can be used in two different ways: Hayes modem or X28
Pad interface. Default the interface will be a Hayes modem interface. To change
this the SW3/2 must be changed with DC connected as follows:
SW3/2 OFF --> ON: X28
SW3/2 ON --> OFF: Hayes
After changing SW3/2 for selecting modem/x28 type power must be removed
from the central unit and the SW3/2 must be put back to the default Modem/X28
setting (SW3/2=ON, SW3/2=OFF). When the power is put back the interface will
start up in the mode (Hayes or X28) last selected when changing the switch with
power on.
For the connection diagram, please refer to Section 2.6.2 on page 2-44.
TCP/IP
The 99T IPI is a TCP/IP interface that can be mounted in both the 90T CU-30
and the 95T CU-30. See the Installation instructions, 99T IPI, ref. No 94000401
(English version) for more information.
SECOM transmitter
interface application
Switch position for SECOM transmitter application: SW3/2 = OFF, SW3/3 = ON.
For further information concerning the SECOM transmitter, please refer to the
French version of this manual.
LED indicators
The following LED indicators can be used to check if the CPU-board is running
under normal conditions:
OP1:
Indicates that the RS-485 bus communication is OK. The LED must
toggle with a frequency depending of the traffic on the bus. If no panels
are logged on to, the LED will flash every 1/2 minute when the clock in the
displays is updated. If one or more panels are logged on to the LED will
flash every time a display picture is changed. See Fig. 2.3 for position.
OP2:
Indicates that the S-ART communication is OK and must give a flickering
light or nearly steady light. See Fig. 2.3 for position.
OP3:
The LED OP3 will indicate fuse OK when lit if the fuse to test is inserted in
the test socket next to the LED. See Fig. 2.3 for position.
Fuses
F1, F2: T5A, fuses in Bat+ and Bat-.
2-8
F3:
T500mA, fuse for the S-ART bus DC output.
F4:
T500mA, fuse for DC output for the on-board outputs 1 - 4.
F5:
T500mA, fuse for DC output for the on-board outputs 5 - 7.
F6:
T500mA, fuse for DC output for the RS-485 bus.
91000601
Installation
2.2.4
Expansion board 95T I/O
The 95T I/O board gives the possibility to add 3 more S-ART buses when used
in connection with the 95T CU-30. The extra S-ART buses are using the
addresses 200 - 229, 300 - 329 and 400 - 429.
Moreover, the 95T I/O board is equipped with additional screw terminals for
connection of an external power supply to allow for external supply (24V DC or
12 V DC) on the S-ART and RS-485 buses.
Layout of the
95T I/O board
Fig. 2.8
The connector, screw terminals and fuses of the 95T I/O board.
S-ART line
(Addr. 400-429)
S-ART line
(Addr. 300-329)
S-ART line
(Addr. 200-229)
Connector for flat-cable
to CPU-board
Connections to
external power supply
9 8 0 6 1 1 0 2 b
The 95T I/O board can be mounted above the CPU-board on the stays in the
95T CU-30 cabinet.
A flat-cable delivered together with the 95T I/O board must be installed between
the CPU-board and the I/O-board.
Connections to the
95T I/O board
Fig. 2.9
Power supply and S-ART bus connections to the 95T I/O board.
0V
12V
L-
S-ART line
(Addr. 200-229)
L+
The connections are similar
for the S-ART lines
with the addresses 300-329
and 400- 429
PM
BM
BT1
BT0
24V
0V
0 0 0 8 2 4 0 1 a
Please note that the 95T I/O board cannot be mounted in the 90T CU-30 cabinet.
91000601
2-9
Installation
External power
supply
If you want to supply power to the S-ART and RS 485 screw terminal connectors
for operation of the units on the two buses, an external power supply such as
95T PS 24/3.8 (24 V DC) or 90T PS (24 V DC – available as spare part only)
can be used.
The connections between the power supply and the 95T I/O board are shown in
Fig. 2.10 and Fig. 2.11 below.
!
Remember to mount the jumper J5 of the 95T CUB-30 CPU board on the pins
labelled ”24V”, to supply the external power to the S-ART bus and RS-485
connectors.
Fig. 2.10 24 V DC supply from an external power supply.
95T I/O board
95T PS
1 1 5 V
C H E C K A C IN P U T
A C IN P U T V O L T A G E 1 1 5 /2 3 0 V C A N
C A U T IO N :
V O L T A G E B E F O R E P O W E R O N
A V O ID IN G D A M A G E P L E A S E
2 3 0 V
Jumper J5
B E S E L E C T E D B Y C H A N G IN G J U M P E R P O S IT IO N .
95T CUB-30
CPU-board
To battery
0 0 0 8 2 8 0 1 a
External power supply
connections
Fig. 2.11
Connection of external power supply 95T PS 24/3.8.
95T I/O board
95T PS board
Pin Pin Pin Pin
16 15 14 13
BT1
BT0
PM
BM
24V
GND
0 0 0 9 0 6 0 1 a
2-10
91000601
Installation
2.2.5
Power supply and battery
!
Please note that the CU-30 power supply is a 12V DC power supply.
The CU-30 power supply is included on the CPU board, only the transformer is
placed below the board. The CU-30 power supply is used in both the 90T CU-30
and 95T CU-30 cabinets.
Technical
specifications
Parameter
Value or description
Input voltage:
230 V AC +/- 15%
Fuse:
S 0.4 A (slow)
Load:
Max. 0.5 A on all output terminals
Max. battery charging current:
1A
Charging voltage:
13.1 V DC +/- 0.1 V at 0 0C
13.8 V DC +/- 0.1 V at 200C
14.2 V DC +/- 0.1 V at 500C
Voltage drop from battery supply to
terminals:
1.5 V
Max. battery size
91000601
90T CU-30: 6.5 Ah
95T CU-30: 15 Ah
2-11
Installation
2.3
95T CU-30-24V Central unit
The Central unit 95T CU-30-24V Central unit is mounted in a standard cabinet. It
has connection facilities for one S-ART bus with 30 addresses. However, it can be
equipped with the Expansion board 95T I/O that accomodates an additional three
S-ART buses. The CPU board contains RS-232 and RS-485 interfaces.
It has a 24 V, 3.8 A power supply for 1.2 or 1.8 A charging current to two 12 V,
24 Ah accumulators. For external consumption, 24 V, 2.0 A or 2.6 A is available.
2.3.1
General information
Disassembly of
cabinet
To disassemble the cabinet, unscrew the four screws in the front cover using a
2.5 mm Allen wrench and lift the cover off.
Remember to disconnect the grounding cable on the inside of the front cover.
Fig. 2.12 View of the 95T CU-30-24V with front cover removed.
Position of optional
95T I/O-board
Mounting holes
Mains voltage terminal
block with fuse
Mains cable entry
Connector for 95T I/O-board
below CU-board
Cable
entries
Grounding cable for
front cover
Battery interconnection
cable with fuse
Positive battery cable (red)
Negative battery cable (black)
Space for two 24 V/24 Ah
batteries
Mounting holes
98060401a
Layout
With the cover off, the 95T CU-30-24V appears as shown in the figure above.
Installation tasks
Installation of the CU comprises the following tasks:
● Installation of the optional 95T I/O-board, if required
● Mounting of the cabinet
● Connection to mains voltage
● Installation and connection of the backup batteries
!
2-12
The EN 60-950 Low Voltage Directive requires that permanently connected
equipment should be installed with a readily accessible disconnect device.
91000601
Installation
2.3.2
Installation of the optional I/O-board
The optional I/O-board is mounted in the position shown in Figs. 2.13 and 2.14.
The board includes the following items:
● Eight M3 x 6 mm screws
● Four 40 mm long, internally M3 threaded stays
● One interconnection cable
All items are placed in a plastic bag.
The installation comprises the following tasks:
● Mounting the board
● Connecting the board
Fig. 2.13 Position and mounting of the optional I/O-board.
Stays
Red cable
98061001a
Mounting
For mounting, you should use the eight M3 x 6 mm screws and the four stays
The four stays are mounted by means of four of the M3 screws in the position
shown in Fig. 2.14 above. The I/O-board is screwed onto the stays by means of
the remaining 4 M3 screws.
Interconnection
91000601
The I/O-board interconnection cable is polarized and cannot be inserted
wrongly. Locate the red cable and insert the connection cable in the connector
of the I/O-board and the PS-board with the red cable situated as shown in
above.
2-13
Installation
2.3.3
Mounting
The cabinet is mounted by means of four screws with a diameter of approx.
5 mm. Do not use a smaller screw dimension. The screws should be able to
carry the load from the backup batteries.
Mark the holes to be drilled for the fastening screws. You can mark their position
through the mounting holes in the cabinet or you can use the measurements on
the drilling plan below.
Fig. 2.14 Position of mounting holes.
38.5 mm
445 mm
Outline
of
cabinet
38.5 mm
272 mm
50 mm
372 mm
50 mm
98060801a
Before you fasten the mounting screws fully, insert all cables to be connected in
to the cabinet through the cutouts and grommets.
The mains cable should be inserted through the grommet in the upper left hand
side of the cabinet. See Fig. 2.13 and 2.16.
You are now ready to connect mains voltage as described in the following
section.
2-14
91000601
Installation
2.3.4
Connection to mains voltage
The 95T CU-30-24V should be connected to 230 V AC mains and ground as
shown in the figure below.
Remember that local regulations may require the CU is installed with an external
mains power switch.
!
The EN 60-950 Low Voltage Directive requires that permanently connected
equipment should be installed with a readily accessible disconnect device.
Fig. 2.15 Mounting and connection of mains cable. The optional I/O-board with cable is not
shown.
Live
Cable relief
Neutral
Ground
Grommet
Fuse
Mains voltage terminal
block with fuse
98061002a
Fuse
The mains voltage terminal block is equipped with a fuse (1A slow blow) in
series with the live terminal.
Do not switch on
Do not switch power on until you have completed the mounting and connection
of the backup batteries as described in the following section.
91000601
2-15
Installation
2.3.5
Installation of backup batteries
General information
The cabinet of the CU can accommodate two 24 V/24 Ah back-up batteries. The
batteries are not included with the CU.
The interconnection cable for the batteries are placed inside the cabinet in a
plastic bag.
The batteries must not exceed the following dimensions:
Height: 170 mm
Width: 172 mm
Depth: 129 mm
Fig. 2.16 Position and connection of back-up batteries.
Battery interconnection
cable with fuse
Positive battery cable (red)
Negative battery cable (black)
-
+ -
+
98060301a
Interconnection
cable
Find the interconnection cable and open the fuse holder. Remove the fuse to
separate the cable into two parts.
Mount one part of the interconnection cables on the positive terminal of one of
the batteries. Mount the other part of the interconnection cable on the negative
terminal of the other battery.
Left hand battery
Place the left hand battery with the orientation shown in Fig. 2.17, so that it rests
on the edge of the cabinet and the negative terminal is accessible for
connection.
Mount the negative cable (black) from the power supply board. When done,
push it carefully in place
Right hand battery
Place the right hand battery with the orientation shown in Fig. 2.17, so that it
rests on the edge of the cabinet and the negative terminal is accessible for
connection.
Mount the positive cable (red) from the power supply board. When done, push it
carefully in place
Mounting fuse
Ensure that no conductors or cable terminals are in contact with the cabinet
before you mount the fuse again.
2-16
91000601
Installation
2.3.6
Connection terminals and jumpers
This section indicates the connection terminals and jumpers of the CU-board
and the connection terminals of the I/O-board.
CU-board terminals
The CU-board has one set of terminals for connection of the S-ART bus with the
address range 100-129. The DC voltage available is 24 V for operation of
detectors, etc. See the figure below for position of terminals.
Jumper J 5
This jumper is used for switching between 12 V and 24 V for the S-ART
connector, the RS 485 interface connector. When the CU is delivered it is set for
24 V. This setting must not be changed.
For information about the remaining inputs, outputs and interfaces and setting of
jumpers, switches etc., see Section 2.2.3
Fig. 2.17 CU-board terminals and jumpers.
J5 – 12V/24 V setting of
output voltage on S-ART
and RS 485 connectors
S-ART line/24 V DC
(Addr. 100-129)
Input
SW3 – Address and
application switch
Output
J2 – RAM battery
Output
J1 – RS 485
end-of-line resistor
RS-485 interface
RS-232 interface
Relay
98061101a
I/O-board terminals
The I/O-board has three sets of terminals for connection of three S-ART buses
with the address ranges 200-229, 300-329, and 400-429. The DC voltage
available is 24 V for operation of detectors, etc. See the figure below for position
of terminals and Section 2.2.4 for more information.
Fig. 2.18 I/O-board terminals.
S-ART line/24 V DC
(Addr. 400-429)
S-ART line/24 V DC
(Addr. 300-329)
S-ART line/24 V DC
(Addr. 200-229)
98061102a
91000601
2-17
Installation
2.4
S-ARTs units
This section provides an overview of the S-ART units available and describes
the connection of the S-ART bus to the S-ART Controller. The connection of the
individual S-ART units to detectors is described in Section 2.4.4.
A last section shows how S-ART addresses are coded for the S-ART types
where the address coding is not described in Section 2.4.4.
2.4.1
List of S-ART units
Eight types of S-ART units are available for different applications as follows:
90T S-100
One common alarm/tamper input (range 50 m) with one end-of-line resistor and
one alarm resistor. To be used for monitoring of door contacts, window contacts
etc. with no need for 12 V supply. The internal tamper contact is a magnetic
reed contact.
90T S-101:
One alarm input and one tamper input (range 10 m) each with one end-of-line
resistors. 12 V DC output 50 mA. To be used for monitoring of active detectors
with the need of 12 V supply. The internal tamper contact is a magnetic reed
contact.
90T S-102
One alarm input and one tamper input, normally closed contact (range 10 m).
One voltage free, 1 A changeover relay output. To be used where a relay output
is needed. The internal tamper contact is a microswitch.
90T S-103
One alarm/tamper input with one end-of-line resistor and one alarm resistor.
Can be used with longer cables between the detector and the S-ART. One
voltage free, 1 A changeover relay output. 12 V DC output, 50 mA. To be used
in high security installations where a special surveillance of the alarm/tamper
input is needed. The input is monitored against resistance, DC voltage, zener
diodes etc. The internal tamper contact is a microswitch.
90T S-106
S-ART with six alarm/tamper loops each with one end-of-line resistor and one
alarm resistor. One NPN or PNP transistor output. The internal tamper switch is
a microswitch.
90T S-107
Miniature S-ART to be installed inside a detector. One alarm/tamper input with
one end-of-line resistor and one alarm resistor, 12 V DC output and one
transistor output. Contains no internal tamper switch.
90T S-108
Sub-miniature S-ART unit that can be mounted inside various detectors. It is
equipped with leads for direct connection to the terminals of the detector by
means of five leads. One alarm input and one tamper input each with one endof-line resistor.Contains no internal tamper switch.
90T S-130
The S-ART 90T S-130 has thirty alarm inputs with an end-of line resistor that can
be set to 2.2 kΩ, 5.6 kΩ or 10 kΩ. Thirty selectable polarity anti-mask inputs for
use with detectors with an anti-mask facility is also present together with thirty
open collector outputs with indicator LEDs. Contains no internal tamper switch.
2-18
91000601
Installation
2.4.2
S-ART housing
The S-ARTs 90T S-100, 90T S-101, 90T S-102 and 90T S-103 are all delivered in
the housing shown in the figure below. The dimensions are: 65 x 130 x 19.6 mm.
Fig. 2.19 Drawing of the normal S-ART housing.
Fixing holes
S-ART
130
65
Cable inlets
Cover
Bottom
A smaller S-ART box can be used for example where the position or place of
the S-ART demands It is available under the stock No. 90T S-099. It includes a
magnet. The dimensions are: 65 x 65 x 19.6 mm.
Fig. 2.20 Drawing of the small S-ART housing 90T S099.
Fixing holes
Magnet
65
65
Cable inlets
Bottom
Note
91000601
Cover
The S-ARTs 90T S-103, 90T S-106, and S-130 cannot be placed inside the
housing 90T S-099.
2-19
Installation
2.4.3
S-ART controller connections
One set of four terminals for one S-ART bus are placed on the CPU board. Max.
30 S-ARTs addresses are available on the S-ART bus. With the I/O-board
installed, 90 addresses can be added. All 120 addresses (30 + 90) can be used
freely.
The four buses consist of four wires each to which the S-ARTs are connected.
Two of the wires are used for data communication with the various S-ARTs; the
other two are used for power supply of the units.
All S-ART types are installed in the same way regarding to the connections with
the bus as shown in the following diagram. For the connection diagram of the
different S-ART types, please refer to the next section.
Fig. 2.21 Connections between the S-ARTs and the CPU-board.
When connecting the S-ARTs to the bus cable care must be taken not to
interchange terminals 2 and 4. The communication will in many cases work but
there is a possibility of noise interference if the two terminals are interchanged.
"Star"-connections are allowed if wanted. The cables can be pulled in the
easiest and shortest possible way.
Technical data
Parameter
Fuses on CPU board
Line: 100 mA.
DC: 500 mA.
Power consumption
Line : max 60 mA,
DC max 500 mA
Total DC for four lines: 750 mA.
Wire length
500 m shielded, 1000m unshielded, twisted pairs/0,6 mm or
0,9 mm. Separate cable for each line.
Addresses
S-ART bus 1: 100-129.
S-ART bus 2: 200-229.
S-ART bus 3: 300-329.
S-ART bus 4: 400-429.
Detection time
2-20
With optional I/O-board.
Max. 250ms (software controlled).
91000601
Installation
2.4.4
S-ART detector connections
This section describes the connection of the individual S-ART units to various
types of detectors.
90T S-100
Description
S-ART unit to be used together with normal contacts. It includes tamper
monitoring on the same cable.
Fig. 2.22 Connections to the 90T S-100 S-ART.
Technical data
Parameter
Alarm/tamper loop
Any voltage free contact normally closed.
Terminating resistor Reol
21.5 kΩ, 1%
Max. length of cable
50 m
Normal condition
19.6 kΩ < Reol < 23.9 kΩ
Sensitivity alarm
25.8 kΩ < Reol < 27.8 kΩ
Sensitivity tamper
Reol < 18.2 kΩ or Reol > 29.9 kΩ
S-ART Line current consumption
2 mA
24V DC current consumption
0 mA
Temperature range
-25 ºC to +70 ºC
The S-ART Line current consumption is the current taken from the bus L+ and L-.
91000601
Note
An open loop on the Alarm/tamper loop or "cover open" will give a message 3 in
Menu 35, Test Input.
Note
The best noise immunity is achieved by connecting the alarm resistor (4.7 kΩ) to
terminal 6 (COM) as shown in the connection diagram.
2-21
Installation
90T S-101
Description
S-ART unit to be used together with active detectors, which need a 12V DC supply
voltage.
Technical data
Parameter
Alarm/tamper loop
21.5 kΩ, 1%
10 m
Normal condition
18.4 kΩ < Reol < 23.7 kΩ
Sensitivity alarm/tamper
2 mA
0 mA
12 V DC output
12 V ± 5%
12 V DC supply current
Max. 30 mA (Vin = 28 V DC at +70 ºC)
Temperature range
-25 ºC to +70 ºC
2-22
91000601
Installation
90T S-102
Description
S-ART unit to be used where an output relay is needed.
1 6
D C +
3
D C +
4
0 V
5
n .c .
A L A R M
6
n .c .
C O M
7
S1 2 A V B / O 5 T 0 A m G A E
0 V
A L A R M
T A M P E R
1
L -
2
2
L -
4
L +
8
1
L +
8
N C
1 0
N O
+
S IR E N E
Technical data
H i S e c
In t.
9
-
Parameter
Alarm/tamper loop
None
10 m
Relay in normal: 0 mA
Relay activated: 12 mA
2 mA
Relay switching voltage
Max. 125 V AC or 150 V DC
Relay switching current
Max. 1 A
Relay switching power
Max. 30 W or 60 VA
12 V DC supply current
Temperature range
-25 ºC to +70 ºC
91000601
2-23
Installation
90T S-103
Description
High performance S-ART unit to be used where higher security, longer cables,
12 V DC etc. are needed.
6
C O M
7
1 2 V /5 0 m A
3 k 9
n .c .
8
A L A R M
+ 1 2 V
0 V
P 2
A L A R M /S A B O T A G E
H i S e c
In te r n a tio n a l
1 6
8
4
0 V
5
n .c .
D C +
0 V
4
2 1 k 5
T A M P E R
L -
D C +
3
R e o l
2
L -
L +
2
1
1
L +
9
N C
1 0
-
N O
+
S IR E N
Technical data
2-24
Parameter
Alarm/tamper loop
21.5 kΩ, 1%
1000 m
Normal condition
19.1 kΩ < Reol < 23.5 kΩ
Sensitivity alarm
25.2 kΩ < Reol < 27.4 kΩ
Sensitivity tamper
Typically 2 mA
Input voltage
14.5 to 30 V DC
Output voltage
12 V ± 5%
Output current
Relay switching voltage
Max. 125 V AC or 150 V DC
Relay switching current
Max. 1 A
Relay switching power
Max. 30 W or 60 VA
Temperature range
-25 ºC to +70 ºC
Note
An open loop on the Alarm/tamper loop or "cover open" will give a message 3 in
Menu 35, Test Input.
Note
terminal 6 (COM) as shown in the connection diagram.
91000601
Installation
90T S-106
Description
Fig. 2.26
The S-ART 90T S-106 is designed for installations where several detectors are
close to each other. The 90T S-106 contains six input loops and one NPN or
PNP transistor output.
The 90T S-106 is delivered in housing larger than the normal housing to provide
additional space for cables. The dimensions are: 106.5 x 158 x 20.3 mm.
Connections to the 90T S-106 S-ART.
Note
the C -terminal (COM) as shown in the connection diagram.
The six input loops are numbered from 0 to 5. The addresses used on the
S-ART bus depends on the programmed address on the address switch (see
the table below).
The address of the output (npn or pnp) is automatically set to the address of
loop 0.
The tamper contact is in series with the tamper input on loop 0. An open loop on the
Alarm/tamper loop or "cover open" will give a message 3 in Menu 35, Test Input.
Address and
protocol switch
The addresses used and the protocol to use on the S-ART bus are set by
opening or closing the jumpers on the address switch. See the example below.
The example shows that inverted
protocol has been selected and
the addresses have been set to
the range 24 to 29.
“P” - Closed
“1” - Closed
“2” - Closed
“4” - Open
91000601
2-25
Installation
Protocol setting
The jumper “P” sets the protocol applied:
Open: Normal S-ART protocol
Closed: Inverted S-ART protocol (Please remember the Invert attribute in Menu 47)
Address setting
Technical data
2-26
The jumpers 1, 2 and 4 set the addresses to use. They are set in sets of six
addresses as follows:
S-ART address
Switch "1"
Switch "2"
Switch "4"
00 - 05 (for example 100 - 105)
Closed
Closed
Closed
06 - 11 (for example 106 - 111)
Open
Closed
Closed
12 - 17 (for example 112 - 117)
Closed
Open
Closed
18 - 23 (for example 118 - 123)
Open
Open
Closed
24 - 29 (for example 124 - 129)
Closed
Closed
Open
Parameter
Alarm/tamper loop
10 kΩ, 1%
1000 m
Sensitivity alarm
± 20 %
Sensitivity tamper
± 40 %
Typically 8 mA
Current consumption
10 mA at 12 V DC (excluding the output current)
Max. output current
50 mA.
Temperature range
-25 ºC to +70 ºC
91000601
Installation
90T S-107
Description
90T S-107 is a miniature S-ART unit that can be mounted inside various
detectors. It is equipped with leads for direct connection to the terminals of the
detector. The S-ART unit is fixed inside the detector by means of a selfadhesive pad fixed to the rear side of the S-ART unit. See the figure below.
Fig. 2.27 90T-S107 S-ART in natural size showing self-adhesive pad and dimensions.
C o m p o n e n t s id e v ie w
E d g e v ie w
S e lf- a d h e s iv e
p a d w ith
p r o te c tio n
p a p e r
1 0 0 m m
4 5 m m
O N
1
2
3
4
5
6
7
8
S w itc h e s fo r s e ttin g a d d r e s s ,
te r m in a tio n a n d n o r m a l/in v e r te d
c o m m u n ic a tio n
6 m m
2 8 m m
0 0 0 8 2 3 0 2 a
The 90T S-107 is equipped with a set of switches placed as shown above.
Switches 1 to 5 are used for setting the address. Switch 6 is used for selection
of the termination while the switches 7 and 8 are used for setting the
communication (normal or inverted).
The 90T S-107 is delivered with three resistors to be used in pairs depending on
the required termination (10 kΩ or 21.5 kΩ).
G re y
M a u v e
B lu e
G re e n
Y e llo w
O ra n g e
R e d
B ro w n
A la r m /S a b o ta g e in p u t
0 V
1 2 V o u tp u t (3 0 m A )
0 V
D C +
S - A R T L in e S - A R T L in e +
D e te k to r te s t
S u p p ly v o lta g e
fo r d e te c to r
O N
1
1 0 k Ω
( 4 . 7 k Ω)
A la r m
2
e o l
2 1 .5 k Ω
( 1 0 k Ω)
S a b o ta g e
O N
3
4
A d d re s s
5
6
7
8
O F F
C o m m u n ic a tio n
T e r m in a tio n
91000601
R a
R
D e te c to r
0 0 0 8 2 3 0 1 a
2-27
Installation
Setting the address
The address of the S-ART unit is set by means of the switches 1 to 5. The
address can be set in the range from 00 to 29. Setting takes place as shown in
the table below:
Switch number
Address
Setting the
termination
1
2
5
Address
00
ON ON ON ON
ON
4
01
OFF ON ON ON
ON
02
ON OFF ON ON
ON
03
OFF OFF ON ON
ON
04
ON ON OFF ON
ON
05
OFF ON OFF ON
06
1
2
3
4
5
Switch number
Address
1
2
3
4
5
10
ON OFF ON OFF ON
20
ON ON OFF ON OFF
11
OFF OFF ON OFF ON
21
OFF ON OFF ON OFF
12
ON ON OFF OFF ON
22
ON OFF OFF ON OFF
13
OFF ON OFF OFF ON
23
OFF OFF OFF ON OFF
14
ON OFF OFF OFF ON
24
ON ON ON OFF OFF
ON
15
OFF OFF OFF OFF ON
25
OFF ON ON OFF OFF
ON OFF OFF ON
ON
16
ON ON ON ON OFF
26
ON OFF ON OFF OFF
07
OFF OFF OFF ON
ON
17
OFF ON ON ON OFF
27
OFF OFF ON OFF OFF
08
ON ON ON OFF ON
18
ON OFF ON ON OFF
28
ON ON OFF OFF OFF
09
OFF ON ON OFF ON
19
OFF OFF ON ON OFF
29
OFF ON OFF OFF OFF
The termination is set by means of switch 6. If you use termination with 10 kΩ
resistor, the switch should be set ON; using the 21.5 kΩ, the switch must be set
OFF.
The delivered resistors of 21,5 kΩ, 10 kΩ and 4,7 kΩ are applied as follows:
Switch 6
Setting the
communication
3
Switch number
Reol
Ra
ON
10 kΩ
4,7 kΩ
OFF
21,5 kΩ
10 kΩ
The communication on the S-ART bus for the signals from the alarm and
sabotage contacts can be either normal or inverted.
The required communication is set by means of the switches 7 and 8. Both
switches must be either ON or OFF.
Switch 7 and 8
Communication
Both ON
Normal
Both OFF
Inverted
In Fig. 2.28, the switches 1 to 5 are set to address 09, switch 6 to OFF
corresponding to the application of the resistors 21.5 kΩ and 10 kΩ. The
switches 7 and 8 are set ON providing normal communication (Non-inverted).
2-28
91000601
Installation
90T S-108
Description
90T S-108 is a sub-miniature S-ART unit that can be mounted inside various
detectors. It is equipped with leads for direct connection to the terminals of the
detector by means of five leads. The S-ART unit is fixed inside the detector by
means of a self-adhesive pad fixed to the rear side of the S-ART unit. See the
figure below.
Fig. 2.29 90T S-108 S-ART in natural size showing self-adhesive pad and dimensions.
E d g e v ie w
C o m p o n e n t s id e v ie w
B ro w n
R e d
A d d r e s s s e ttin g
O ra n g e
Y e llo w
S e lf- a d h e s iv e
p a d w ith
p r o te c tio n
p a p e r
G re e n
2 5 m m
4 .5 m m
1 0 0 m m
Connections
2 5 m m
0 0 0 8 2 3 0 3 a
Brown
L+
Red
L-
Alarm
Orange
Yellow
Green
Tamper
00090101b
Connection table
Technical data
91000601
Colour
Description
Brown
S-ART line +
Red
S-ART line -
Orange
Alarm input
Yellow
Common alarm/tamper (ground)
Green
Tamper input
Parameter
Alarm/tamper loop
Typically 0.8 mA
Temperature range
-25 ºC to +70 ºC
2-29
Installation
Setting the address
The address of the 90T S-108 is set in a similar way as for S-ARTs 90T S-100
to 90T S-103 by cutting of jumpers (Section 2.4.5).
The jumpers of the 90T S-108 are formed as holes near the edge of the circuit
board and are cut by means of a small pair of side-cutters. The holes are
numbered 1, 2, 4, 8, and 16. The table below shows which jumpers to cut to
achieve a certain address.
Hole number
Address
1
2
4
8
Hole number
16 Address
1
2
4
8
Hole number
16 Address
1
2
4
8
16
00
O O O O
O
10
20
∪ O O O
O
11
O ∪ O ∪
∪ ∪ O ∪
O
01
O
21
O O ∪ O
∪ O ∪ O
∪
02
O ∪ O O
O
12
O O ∪ ∪
O
22
O ∪ ∪ O
∪
03
∪ ∪ O O
O
13
∪ O ∪ ∪
O
23
∪ ∪ ∪ O
∪
04
O O ∪ O
O
14
O ∪ ∪ ∪
O
24
O O O ∪
∪
05
∪ O ∪ O
O
15
∪ ∪ ∪ ∪
O
25
∪ O O ∪
∪
06
O ∪ ∪ O
O
16
O O O O
∪
26
O ∪ O ∪
∪
07
∪ ∪ ∪ O
O
17
∪ O O O
∪
27
∪ ∪ O ∪
∪
08
O O O ∪
O
18
O ∪ O O
∪
28
O O ∪ ∪
∪
09
∪ O O ∪
O = Uncut
O
19
∪ ∪ O O
∪
29
∪ O ∪ ∪
∪
∪ = Cut
∪
In the example to the right , the
jumpers 1 and 4 have been cut
while the jumpers 2, 8 and 16 are
uncut thereby fixing the address
to 05.
2-30
91000601
Installation
90T S-130
Description
The S-ART 90T S-130 is designed for installations where several detectors are
close to each others. It has thirty alarm inputs with an end-of line resistor that
can be set to 2.2 kΩ, 5.6 kΩ or 10 kΩ. The end-of-line resistance is the same for
all alarm loops. In addition to this, it contains thirty selectable polarity anti-mask
inputs for use with detectors with an anti-mask facility.
Via output modules (One included) 30 open collector outputs with indicator
LEDs are available.
The 90T S-130 comprises an S-ART controller board connected to the S-ART
bus, a Connector board for connection of the inputs and an Output module for
the outputs . Interconnections between the three types of units are performed by
means of flat-cables. See the figure below.
Fig. 2.31 90T S-130 S-ART including connector board and one output module.
Connector board
Output module
S-ART controller
board
Technical data
Parameter
Number of alarm loops
30
Alarm/tamper loop
2.2 kΩ ±1 %, 5.6 kΩ ±1 %, or 10 kΩ ±1 %
Max. length of alarm loop cable
1000 m (Max. resistance 200 Ω, max. capacity 200 nF).
Typically 8 mA
Supply voltage
11 to 16 V DC
Current consumption
Typically 25 mA at 13.6 V DC (excluding output current)
Number of outputs
8 open collector outputs (can be expanded to 30)
Maximum supply voltage for loads
45 V DC
Max. output current
250 mA. with all outputs on.
Temperature range
0 ºC to +70 ºC
Dimensions:
90T S-130 controller: 166.5 x 72 x 26 mm
Connector board: 175 x 72 x 49.5 mm
Output module: 53 x 72 x 30.5 mm
91000601
2-31
Installation
Jumpers and
connectors of
controller board
Fig. 2.32 Position of jumpers and connectors of S-ART 90T S-130 controller board.
Flat-cables to connector board
Jumper D
Jumper C
Jumper B
Jumper A
S-ART bus
connector
+12 V
Ground
LL+
Jumper 4
Jumper 3
Jumper 5
Jumper 2
Jumper 1
Output module connectors
0 0 0 9 0 1 0 2 a
S-ART bus
connections
The S-ART bus is connected to the S-ART bus connector together with the 12 V
supply voltage (11 to 16 V DC). See Fig. 2.32
Output module
connectors
Four connectors for connection of one to four output modules by means of flatcables. See page 2-34 for information about the output module.
Setting the address
(jumpers 1 and D)
The jumpers 1 and D are used for setting the address range of the 90T S-130. An
S-ART bus can accommodate 30 addresses. This means that only one
90T S-130 can be connected to the S-ART bus.
However, you can set the 90T S-130 only to use either the address range 00 to 15
or 16 to 29 by the setting of jumper 1. By means of jumper D, you can select which
part of the addresses to use. With no jumper on D, the address range is set to 00
to 15; with a jumper installed, the address range is set 16 to 29
See Fig. 2.32 for position of jumpers 1 and D.
Jumper setting for the various address settings (See Fig. 2.32 for real position of jumpers)
Addresses 16 to 29
J P 1
J P 1
C
D
J P 1
D
Addresses 00 to 15
C
Full address range
C
D
0 0 0 9 0 4 0 2 a
Enabling/disabling
anti-mask inputs
(jumpers A, B, and C)
2-32
Jumpers A and B allows you to enable or disable the anti mask inputs, while
jumper C sets the polarity of the anti-mask. When delivered, jumpers A and B
(and C) are not fitted, meaning that the anti-mask inputs should not be used.
See Fig. 2.32 for position of jumpers A, B, and C.
91000601
Installation
With only jumper A installed, the triggering of an anti-mask input generates a
sabotage message.
With only jumper B installed, the triggering of an anti-mask input generates an
alarm message.
The jumper C sets the polarity of the anti-mask inputs to use either a normally
closed contact (NC) when mounted or a normally open contact (NO) when
removed.
End-of-line resistor
(jumpers 2, 3, and 4)
By means of the jumpers 2, 3, and 4, you can set the end-of-line resistor to 2.2 kΩ,
5.6 kΩ, or 10 kΩ. Please note that the value of 5.6 kΩ requires a 5.6 kΩ resistor
mounted on JP5 as shown below. See Fig. 2.32 for position of jumpers 2, 3, and D.
Jumper setting for the various end-of-line resistor values
2.2 kΩ
J P 5
10 kΩ
5.6 kΩ
J P 4
J P 4
J P 4
J P 3
J P 3
J P 3
J P 2
J P 5
J P 5
J P 2
J P 2
5 .6 k Ω
0 0 0 9 0 4 0 1 a
Terminals and
connectors of
Connector board
Fig. 2.33 Position of screw terminals and connectors of S-ART 90T S-130 connector board.
Anti-mask alarm inputs
Alarm inputs
Terminal 30
Terminal 1
Row 1
Row 2
Row 3
Tamper
switch
input
Free terminals for distribution of power
to detectors from external power supply
Flat-cables to S-ART controller board
0 0 0 9 0 1 0 3 a
Alarm inputs
The alarm inputs from the detectors are connected to the alarm input terminals
Row 2 and the common ground Row 1 (See Fig. 2.33 and the following table).
Anti-mask inputs
The anti-mask inputs from the detectors are connected to the antimask inputs
(Row 3 and the common ground Row 1 (See Fig. 2.33 and the following table).
91000601
2-33
Installation
Address
Row 2
Row 3
Row 2
Row 3
Row 2
Row 3
Row 2
Row 3
Row 2
Row 3
Row 2
Row 3
Terminal
1
00
2
3
4
03
4
5
04
6
9
10
6
14
10
11
15
12
16
21
16
17
22
17
18
17
12
20
15
16
11
19
14
15
Address
18
13
14
9
11
13
13
8
10
5
05
8
09
Terminal
12
7
08
3
Address
7
07
2
02
Terminal
06
1
01
Address
23
18
Terminal
19
19
20
20
21
21
22
22
23
23
24
24
Address
Terminal
25
24
25
26
25
26
27
26
27
28
27
28
29
28
29
30
29
30
Free terminals
The two rows, each consisting of thirty terminals, can be used for distribution of
power to detectors. The screw terminals of each row are interconnected so that
you can use one row for positive supply voltage and one row for the negative
supply voltage.
Tamper switch
input
These terminals (See Fig. 2.33) are used for connection of a tamper switch to be
placed in the box in which the 90T S-130 is mounted. If no tamper switch is used,
the terminals should be interconnected by a jumper.
Output module
Up to four output modules (Fig. 2.34) can be connected to the controller board by
means of flat-cables. See Fig. 2.32 for position of the connectors.
The output module is delivered with a 50 cm long flat-cable for connection to the
controller board.
Fig. 2.34 Position of jumpers and connectors of S-ART unit 90T S-130 output module. Please
note that the connectors for terminal rows K1 and K2 have been removed to show
jumpers J3 and the labelling (1 to 8) of the connectors.
Jumpers J2 for outputs 1 to 4
Indicator LEDs for outputs 5 to 8
Indicator LEDs for outputs 1 to
1
Normally closed
3
position
2
Connector for flat-cable to
Controller board
4
7
3
6
4
5
J 1
1
Normally
Closed
position
8
J 1
J 2
J 3
Terminal row K1 (Common)
K
1
K
1
OFF
position
J 3
2
3
4
5
6
7
8
2
Terminal row K2
(Output - NO or NC)
ON
position
0 0 0 9 0 4 0 3 a
Jumpers J1 and J2
2-34
These jumpers are used for setting the output relays to be either normally open
(NO) or normally closed (NC). When delivered, the jumpers are set to normally
open (NO). See also Fig. 2.34.
91000601
Installation
Indicator LEDs 1 to 8
Each relay is associated with a numbered indicator LED (1 to 8) situated next to
relay. The LED (red) is switched on when the relay is activated.
Terminal rows
K1 and K2
The terminal rows K1 (1 to 8) and K2 (1 to 8) are used for connection of devices
to be switched by means of the relays.
The K1 terminals are connected to the common contact of the relays. As
standard, the common contact of all relays are connected to ground by means
of the jumpers J3. See also the paragraph below.
The K2 terminals are connected to either the NC or NO contacts of the relays
depending on the setting of the jumpers J1 and J2.
Jumpers J3
The J3 row of jumpers (See Fig. 2.34) connects - as standard - the common
contact of the individual relays to ground, meaning that these jumpers are set in
their ON position when delivered. If this setting is not required for some of the
relays or all, the required jumpers can be set to their OFF position (See Fig. 2.34).
The jumpers are accessible when you remove (pull off) the connector for the
terminal row K1.
2.4.5
Coding of S-ART-addresses
When installing S-ARTs, the address code field of each S-ART must be coded
with an address. The address coded on the S-ART will be added to the loop no.,
for example address 22 on loop No. 1 will show No. 122 in the display etc.
Coding of 90TS-100, 90TS-101, 90TS-102 and 90TS-103
Five small jumpers are available on each S-ART board numbered 1, 2, 4, 8 and
16. Each jumper adds the value numbered to the address if it is cut, see the
below example. An S-ART with no jumpers cut will have the address 0.
The jumper to be cut depends on the address. The address is coded in binary
numbers, for instance address 19 can be written as 10011 => 16 = 1, 8 = 0, 4 =
0, 2 = 1, and 1 = 1. If this address is to be coded the jumpers marked 16, 2 and
1 must be cut.
Coding examples:
91000601
Fig. 2.35 Example of an uncoded S-ART and coding of the addresses 19 and 05.
2-35
Installation
Table for coding S-ARTs
The table applies to the S-ARTs 90T S-100, 90T S-101, 90TS-102 and
90T S-103.
Fig. 2.36 Jumpers to cut for setting the address of an S-ART.
2-36
91000601
Installation
2.5
Remote keypads
This section describes how to mount the Remote keypad 95T RKP and how to
set its address on the RS-485 bus (Thor bus).
2.5.1
Remote keypad 95T RKP
The unit is opened by loosening the Allen screw on top of the cabinet.
Fig. 2.37 Mechanical measurements and lay-out of the Remote Keypad 95T RKP.
48
23
48
Fixing hole
SW 1
Jumper for "Off the
wall" contact
75LBC176
IC 7
152
Jumper J1 for RS485
"end of line" resistor
D - D + OV12-24V
RS 485
J1
1 2 3 4
P2
RS485
Terminals
68
Cable inlets
Fixing holes
12
66
12
The recommended mounting height of the panels is app. 150 - 155 cm, to the
upper edge of the cabinet.
91000601
2-37
Installation
Technical data
Parameter
Supply voltage
10V - 30V DC
Current consumption
80mA at 24VDC. Typically 60mA with backlight on
Cable Length
Max. 1200m - shielded or unshielded, twisted pairs
Temperature range
0 - 55 ºC
Address setting in the Remote Keypad 95T RKP
The address used by the terminal must be programmed during power-up of the
terminal. The programmed address will be stored in EEPROM and will not be lost
even with no power connected. The below shown procedure must be used to
program the address. The code 654321 cannot be changed. Please note that this
code used here does not make a login to the central unit. This can be done after.
Fig. 2.38 Programming the address.
The address can later be changed by reprogramming the terminal during the 15
seconds after power on to the terminal.
2-38
91000601
Installation
2.6
General purpose Interface 95T GPI COM
The General Purpose Interface 95T GPI COM can be used for the following
applications depending on the SW1 switch setting:
● Printer interface
● PC interface
● Modem/X28 interface
● SECOM alarm transmitter interface
● TCP/IP interface
The various applications are described in the following sections.
Fig. 2.39 Layout of the 95T GPI COM board.
Please note that J2 (defining the used EPROM type) must be moved to the
position shown on the above drawing if you are updating an existing 90T GPI PC
or other (EPROM size 256) to an 95T GPI COM (EPROM size 512).
91000601
2-39
Installation
Address switch setting
Five switches are used to program the address of each unit on the bus. The switch
SW1 is placed on the CPU - board (see drawing).
The addresses are set binary from 01 to 31. Since the master of the bus always
has address 00, this address can not be used by a printer interface.
Address
Switch setting
54321
Address
Switch setting
54321
Address
Switch setting
54321
00
Not applicable
01
00001
02
00010
03
00011
04
00100
05
00101
06
00110
07
00111
08
01000
09
01001
10
01010
11
01011
12
01100
13
01101
14
01110
15
01111
16
10000
17
10001
18
10010
19
10011
20
10100
21
10101
22
10110
23
10111
24
11000
25
11001
26
11010
27
11011
28
11100
29
11101
30
11110
31
11111
0 means the switch is in the ON position and 1 means the switch is in the OFF
position. Please note the position ON/OFF marked on the switch.
The switch SW1/8 is used for selecting encrypted / non-encrypted
communication.
SW1/8 = ON: Non-encrypted communication
SW1/8 = OFF: Encrypted communication
SW1/6 and SW1/7 are used to select the wanted application. Please refer to the
below descriptions.
Printer interface application
Switch position for printer application: SW1/6 = OFF, SW1/7 = OFF.
The printer can be used in two different ways: Intrusion or Access. Default, the
printer interface will be an Intrusion printer. To change this the SW1/6 must be
changed with DC connected as follows:
SW1/6 OFF --> ON: Access printer
SW1/6 ON --> OFF: Intrusion printer
After changing SW1/6 for selecting printer type, power must be removed from
the interface and the SW1/6 must be put back to the default printer setting
(SW1/6 and 7 both OFF). When the power is put back the interface will start up
in the mode (intrusion or access) last selected when changing the switch with
power on.
2-40
91000601
Installation
Serial printer
connection
A standard 80 columns serial printer can be used. The below table shows the
connections for a serial printer and the 95T GPI COM or 95T CU-30:
GPI, terminal
block P2
CU-30, terminal
block P10
Signal function
Standard 25-pin
printer connector
No. 1
No. 1
TxD - Transmitted data
Pin 3
No. 2
No. 2
RxD - Received data
No. 3
0 V - Power ground
No. 4
24V - supply for low volt. printer
No. 5
No. 3
RTS - Request To Send
Pin 6
No. 6
No. 4
CTS - Clear To Send
Pin 11 or 20
No. 7
No. 5
Gnd - Signal ground
Pin 7
For the RS-485 bus connections please refer to Section 2.11.
Serial Printer setup:
- Baud rate: 1200 baud.
- Number of data bits: 8.
- Number of stop bits: 1.
- Parity: even.
- Termination of line: CR + LF.
- Protocol: Hardware handshake.
Intrusion/Access
Printer
Maximum one printer interface by application can be installed on the RS-485
bus. That means in a Thor Intrusion system, one printer interface, in a Thor
Access Control System, one printer interface and in an Integrated system, two
printer interface units.
A table showing the function of the two bus printer possibilities and the internal
printer depending on the programming is shown below:
Acc.
Int. printer 90T CU-120
Opt.4
Function
0
Intrusion
0
1
External Printer 1
Function
SW 1/6
Access
Off-->On
Intrusion
On-->Off
External Printer 2
Function
SW 1/6
Intrusion/access
0
1
Intrusion/access
Intrusion/access
On-->Off
1
Intrusion/access
Access
Off-->On
0
Intrusion
Intrusion
On-->Off
0
Intrusion
Access
Off-->On
Intrusion
On-->Off
Access
Off-->On
Intrusion
On-->Off
Access
Off-->On
0
0
Intrusion
Acc. Opt.4 is Option bit 4, which is programmed during initialization of the Thor
reader. See Manual for Thor Access Control System.
91000601
2-41
Installation
The following rules can be given:
● Maximum 2 printers can be dedicated to access (incl. printer on Intrusion
CPU-board).
●
Maximum 2 printers can be dedicated to intrusion (incl. printer on Intrusion
CPU-board).
● The printer on the Intrusion CPU board always counts as 1 even if it is not
installed.
For further information about the formats of the print-outs please refer to the
description for the menus in the Thor Access Control or Thor Intrusion,
Operating Instructions.
When the printer(s) are used for real time printing of the events an "I" for
Intrusion events or an "A" for Access control events will appear in the beginning
of each line.
2-42
91000601
Installation
2.6.1
PC Interface application
Switch position
Switch position for PC interface application: SW1/6 = ON, SW1/7 = ON.
Connections
Fig. 2.40 Connection diagram
J u m p e r fo r "E n d
o f lin e " r e s is to r
fo r R S 4 8 5
A d d r e s s S w itc h S W 1
R S 4 8 5
C o n n e c tio n s
S W 1
P C
D
w ih 9 p in c o n n e c to r
P 1
-
1
D
8
6
5
4
3
2
J 6
1
R 8
+
0 V
F e m a le c o n n e c to r
7
S W 2
J 3
T E R M .
T a m p e r c o n ta c t
4
+ D C
1
T x
C U -3 0
P 2
6
2
1
7
3
4
9
5
R x
2
8
R S 2 3 2
C o n n e c tio n s
0 V
7
J 4
8
L T 1 2 8 1
R S 2 3 2 D r iv e r
P C
w ih 2 5 p in c o n n e c to r
rs m
e d if
e r w
r b o
u s t b e
u s e d
ith o p to a rd
G P I
E p ro m
R a m
2 5 6 k
J 5
J u m p e
re m o v
to g e th
c o u p le
J 2
N o te : T h e C a n n o n c o n n e c to rs a re s h o w n
fr o m th e s o ld e r s id e
C U -3 0
P 2
1
1
2
2
3
4
5
6
7
8
7
9 1 0 1 1 1 2 1 3
8
1 4 1 5 1 6 1 7 1 8 1 9 2 0 2 1 2 2 2 53 2 4
F e m a le c o n n e c to r
91000601
2-43
Installation
2.6.2
Modem/X28 Interface application
Switch position
Switch position for modem/x28 application: SW1/6 = ON, SW1/7 = OFF.
The modem interface can be used in two different ways: Hayes modem or X28
Pad interface. Default the interface will be a Hayes modem interface. To change
this the SW1/6 must be changed with DC connected as follows:
SW1/6 OFF --> ON: X28
SW1/6 ON --> OFF: Hayes
After changing SW1/6 for selecting modem/x28 type power must be removed
from the interface and the SW1/6 must be put back to the default Modem/X28
setting (SW1/6=ON, SW1/7=OFF). When the power is put back, the interface
will start up in the mode (Hayes or X28) last selected when changing the switch
with power on.
Connections
Fig. 2.41 Connection diagram
N o te : th e C a n n o n c o n n e c to rs a re
s h o w n fr o m th e s o ld e r s id e
A d d r e s s s w itc h S W 1
R S 4 8 5
C o n n e c tio n s
S W
T E R M .
8
7
6
5
4
3
2
1
J 6
1
J 3
2 5 p in m a le c o n n e c to r
fo r th e R S 4 8 5 b u s
P 1
D
D
S W 2
R 8
1
M o d e m
+
0 V
1
7
2
3 4
C U -3 0
P 2
1
T x
5
2 0
4
+ D C
2
1 2
R x
5
R S 2 3 2
C o n n e c tio n s
7
0 V
8
L T 1 2 8 1
E E P R O M
2 8 C 6 4
2 5 6 k
J 2
J 5
2 5
R a m
8
2 0
P a d X 2 8
G P I_ M I
T h e s e ju m p e r s m u s t b e
r e m o v e d w h e n u s in g th e
o p to - c o u p le r b o a r d
7
3 4 5 6
2
1 2
1
2
1 4
C U -3 0
P 2
1
T x
R x
5
R S 2 3 2
C o n n e c tio n s
7
0 V
8
2.6.3
SECOM transmitter interface application
Switch position
Switch position for SECOM transmitter application: SW1/6 = OFF, SW1/7 = ON.
For further information concerning the SECOM transmitter, please refer to the
French version of this manual.
2-44
91000601
Installation
2.7
99T IPI TCP/IP interface
Introduction
The 99T IPI (TCP/IP Interface) is a versatile TCP/IP interface board designed
for interfacing Thor units - containing a GPI (General Purpose Interface) - with
TCP/IP networks.
The 99T IPI provides an Ethernet connection to a 10baseT LAN/WAN through an
RJ 45 connector on the interface or a PPP connection to a LAN/WAN.
The interface is available either as factory mounted in the 95T GPI XXX IP
interfaces (New version) or as a separate unit.
As a separate unit it can be internally mounted in for example an Intrusion Central
Unit or a 95T GPI XXX interface (Old version) or externally mounted in a metal
box and connected to a 95T GPI XXX interface (Old versions).
Setup
For setup of the interface, you can connect to the interface either via the RS-232
interface or via the TCP/IP network using the default TCP/IP address and get
access from your web browser to a number of home pages for the setup.
More information
Detailed information about the 99T IPI TCP/IP interface can be found in the
Installation instructions for the TCP/IP Interface 99T IPI, ref. No. 94000401
(English version).
2.7.1
Factory mounted TCP/IP interfaces
When the 99T IPI is factory mounted in a 95T GPI XXX. it is available in the
following configurations:
● 95T GPI BRM IP
● 95T GPI DLM IP
● 95T GPI MI IP
The three interfaces are basically identical with respect to the hardware and differs
only by the software contained in the EPROM on the main interface board.
95T GPI BRM IP
The 95T GPI BRM IP - similar to the 90T GPI BRM – but with communication via a
LAN/WAN using TCP/IP instead of a dedicated line. The interface is connected to
the HUB of the network via an RJ 45 connector or an RS-232 PPP interface.
95T GPI DLM IP
The 95T GPI DLM IP - similar to the 90T GPI DLM – but with communication via a
LAN/WAN using TCP/IP instead of a dedicated line. The interface is connected to
the HUB of the network via an RJ 45 connector or an RS-232 PPP interface.
95T GPI MI IP
The 95T GPI MI IP is basically a dial-up modem communicating via a LAN/WAN
using TCP/IP instead of the PSTN. The interface is connected to the HUB of the
network via an RJ 45 connector or an RS-232 PPP interface. The 95T GPI MI IP
uses an EPROM identical to the EPROM of the 95T GPI COM. However, it can
only be used in the the modem interface configuration.
EMC protection
These interfaces all meet the demands for EMC protection according to the CE
mark as specified in the generic standard for industrial products.
91000601
2-45
Installation
2.7.2
99T IPI TCP/IP interface as separate unit
As a separate unit, the 99T IPI can be used for providing a TCP/IP connection for
THOR/REFLEX equipment instead of the RS-232 connection normally used. The
connection is accomplished as a 10baseT Ethernet connection or a PPP connection
to the LAN/WAN. The following mountings and connections can be used:
Internal mounting,
(CU 30)
The 99T IPI can be mounted in a 90T CU 30 or 95T CU 30 and connected through
an RS-232 interface directly to the GPI COM part of the CU 30. The interface is
connected to the HUB of the LAN/WAN via an RJ 45 connector.
It is delivered with a mounting kit containing the items needed for a standardized
mounting in a 90T CU 30 or 95T CU 30.
Internal mounting
(95 T GPI COM)
The unit can also be mounted in a 95T GPI COM as an add-on board similar to
the 90T GIB Galvanic Isolation Board. In this case, the connection of the
99T IPI to the LAN/WAN must be accomplished by a PPP connection to a Router.
It is delivered with a mounting kit containing the items needed for a standardized
mounting in a 95T GPI COM.
Internal mounting
(other units)
It can also be mounted in other types of units that include a GPI COM part for
communication, such as 95T CU-30-120, 95T CU-30-24V, etc. The 99T IPI
interface is connected to the HUB of the LAN/WAN via an RJ 45 connector.
Guidelines regarding mounting and mounting accessories are provided in
Section 3 of the Installation Instructions for the 99T IPI, ref. No. 94000401.
External mounting
(95 T GPI XXX)
In cases where a TCP/IP communication via a 10baseT Ethernet connection, is
required with older versions of the 95T GPI XXX, the 99T IPI can still be used if
it is mounted in a separate metal box and connected to the RS-232 interface
terminals of the 95T GPI XXX. The 99T IPI interface is connected to the HUB of
the LAN/WAN via an RJ 45 connector.
Guidelines regarding mounting box and mounting accessories are provided in
Section 3 of the Installation instructions for the 99T IPI, ref. No. 94000401.
2.7.3
99T IPI interface applications
Introduction
The main applications of the 99T IPI interface are currently as TCP/IP modem
connection and TCP/IP tunnel connection.
that are TCP/IP network equivalents to the well-known dial-up line and
dedicated line connections, respectively, where the dedicated line or the dial-up
line are substituted by a connection via the customer´s LAN/WAN.
TCP/IP tunnel
connection
2-46
An example of the TCP/IP tunnel connection is shown in Fig. 2.42 below. Two
sub-buses are connected to the master bus over a LAN/WAN. Each connection
requires a 95T GPI DLM IP and a 95T GPI DLM IP.
The connection to the LAN / WAN network is a standard Ethernet RJ 45 to a HUB.
Both interfaces of the connection will be programmed with a fixed TCP/IP
destination address, a default gateway and subnet address. Immediately after
power up reset, they will establish a transparent, reliable TCP/IP connection. If
the connection is lost, they will attempt to re-establish the connection.
Two interfaces will provide a full duplex transparent connection across the
customer´s network.
91000601
Installation
Fig. 2.42 Examples of the application of the 95T GPI DLM IP and 95T GPI BRM IP for connection
of sub-buses to the master bus via the customer´s WAN/LAN.
Tunneling
GPI COM
RS-485
CU 30
95T GPI
DLM IP
95T GPI
DLM IP
TCP/IP
TCP/IP
Customer HUB
PC
Address 0000
Customer
LAN/WAN
Customer HUB
Customer HUB
TCP/IP
RS-485
TCP/IP
RS-485
95T GPI
BRM IP
95T GPI
BRM IP
9 9 1 0 1 1 0 1 a
TCP/IP modem
connection
An example of the TCP/IP modem connection is shown in Fig. 2.43 below. The
remote sites are connected to the customer´s LAN/WAN via 95T GPI MI IP
interfaces.
When an 95T GPI MI IP interface receives a connection request including an IP
address it will establish a TCP connection on the network and transmit all mails
transparently on the network. The connection to the LAN / WAN network can be
standard Ethernet RJ 45 or a PPP connection via RS232 to a Router.
In the TCP/IP modem configuration, the 95T GPI MI IP will be fully compatible
with the default X28 configuration available in the 95T GPI COM.
Fig. 2.43 Examples of the application of of the 95T GPI MI IP for connection of remote sites via
the customer´s LAN/WAN.
Dial-up
95T GPI
MI IP
95T GPI
MI IP
GPI COM
RS-485
CU 30
TCP/IP
PC
TCP/IP
Customer HUB
Customer
LAN/WAN
Customer
HUB
TCP/IP
95T GPI
MI IP
99T IPI
Remote site mounted in
Bus 00
CU 30
Customer
HUB
TCP/IP
Remote site
Bus 00
95T GPI
MI IP
Customer
HUB
TCP/IP
Remote site
Bus 00
95T GPI
MI IP
9 9 1 0 1 1 0 2 a
91000601
2-47
Installation
2.7.4
99T IPI and 95T GPI XXX IP specifications
This section provides the main specifications of the 99T IPI interface as a
separate unit and the main specifications of the 95T GPI XXX IP interfaces
(95T GPI BRM IP, 95T GPI DLM IP, and 95T GPI MI IP).
99T IPI
specifications
Parameter
RS-232 port:
Baud rate:
Flow control:
Data bits:
Parity:
Stop bits:
Selection:
Programming:
TCP/IP port:
Baud rate:
Connector:
Cable:
Cable length:
For GPI connection (Screw terminals)
9600 Baud (Default)
XON/XOFF (Default)
8 (Default)
Even (Default)
1( Default)
By jumper setting (J6 and J7)
Via
10baseT Ethernet interface
10Mbit/s
RJ 45
According to Category 5
Max. 100m
Supply voltage: 9 to 30 V DC
Current consumption:
At 12 V DC: Typically 110 mA
Temperature range: -10 to +60 °C
Dimensions: H x W x D: 29.5 mm x 74 mm x 100 mm
Weight: 61 g
95T GPI XXX IP
specifications
Parameter
RS-485 port Baud rate: 9600 Baud
RS-232 port (On 99T IPI):
Baud rate:
Flow control:
Data bits:
Parity:
Stop bits:
TCP/IP port:
Baud rate:
Connector:
Cable:
Cable length:
For connection of Service PC (Screw terminals)
9600 Baud (Default)
XON/XOFF (Default)
8 (Default)
Even (Default)
1 (Default)
10baseT Ethernet interface
10Mbit/s
RJ 45
According to Category 5
Max. 100m
Supply voltage: 9 to 30 V DC
Current consumption:
Temperature range: -10 to +60 °C
IP Class: IP41
Dimensions: H x W x D: 175 mm x 150 mm x 55 mm
Weight: 630 g
2-48
91000601
Installation
2.8
GPI BR Bridge
The 95T GPI BR Bridge interface is used to connect two RS-485 buses together
(See the system diagram for multi-bus systems in Chapter 1 of the Technical
manual for the Thor Access Control System).
Connections
The Bridge will always have address 00 on the second bus (Lower level).
Fig. 2.44 Connection diagram.
3
SW1
1
P1
J3
TERM.
1 2 3 4 5 6 7 8
SW2
R8
DD+
0V
24 V
1
Master bus
(Upper level)
4
Power LED
Address and
application
switch SW1
Tamper
contact
P2
1
DD+
J6
Jumper for
end-of-line
resistor for
Master bus
Second bus
(Lower level)
0V
J4
8
J2
J5
Jumper for
end-of-line
resistor for
second bus
SW1: 1 - 5: Master bus address, Low = 0, High = 1
8: Communication, Non-encrypted = 0, Encrypted = 1
Note
91000601
The Bus above (bus 00) and the bus below (bus xx) must not have the same 0 V.
The Bridge makes a galvanic separation (optocoupler) between the two bus
systems. If the 0 V from the two bus systems are connected together, it will
create earth loops that can give electrical noise problems.
2-49
Installation
2.9
GPI BRM/DLM Direct line modem interface
The 95T GPI BRM and 95T GPI DLM interfaces are used when the distances
between two bus systems are more than 1.2 km and where it is not possible to
use the 95T GPI DLC bus amplifier.
The maximum distance between the BRM and DLM interfaces is specified by
the modem supplier. The 95T GPI BRM and 95T GPI DLM interfaces must
always be used together. Seen from the system (AIMS software) the readers
connected after the modem line are shown as if a Bridge was installed.
Maximum 31 readers can be installed at the end of the modem line.
System diagram
Fig. 2.45 System diagram.
Bus level 1 (Bus 00), max 1.2 km
95T GPI DLM
Modem
Direct line
or 2 wires
The two interfaces
must have the same
address (XX)
Modem
95T GPI BRM
Bus level 2 (Bus XX), max 1.2 km
2-50
91000601
Installation
Connections
fo r R S 4 8 5
A d d r e s s S w itc h S W 1
R S 4 8 5
C o n n e c tio n s
S W 1
D
D
+
P 1
1
M o d e m
8
T x
3
2
J 6
1
C U -3 0
P 2
1
R x
2
R S 2 3 2
C o n n e c tio n s
4
4
2
5
+ D C
3
6
R 8
0 V
7
7
S W 2
J 3
T E R M .
0 V
7
J 4
8
N o te : T h e C a n n o n c o n n e c to r is s h o w n
fr o m th e s o ld e r s id e
L T 1 2 8 1
Modem
specifications
91000601
Parameter
Speed:
9600 baud
Protocol
Asynchronous, half duplex
Line:
Transparent
Data:
8 bit, Even parity
G P I
E p ro m
R a m
2 5 6 k
J 5
rs m u s t b e
e d if u s e d
e r w ith o p to r b o a rd
J 2
J u m p e
re m o v
to g e th
c o u p le
2-51
Installation
2.10
GPI DLC Bus amplifier
The 95T GPI DLC can be used to prolong the RS-485 bus extra 1.2 km or to
make a branch out from the bus if a star cabling of the RS-485 bus is needed.
Note
System diagrams
After a 95T GPI DLC interface only one address can be connected. This
address can be a 95T GPI BR bridge meaning a completely new bus.
Fig. 2.47 Extension of the RS-485 bus or addition of new bus level.
B u s le v e l 1 ( B u s 0 0 )
B u s le v e l 1 ( B u s 0 0 )
9 0 T G P I D L C
9 0 T G P I D L C
T h e in te r fa c e a n d th e
re a d e r m u s t h a v e th e
s a m e a d d re s s
B u s le v e l 1 ( B u s 0 0 )
M a x . d is ta n c e 1 .2 k m
T h e tw o in te r fa c e s
m u s t h a v e th e
s a m e a d d re s s
9 0 T G P I B R
B u s le v e l 2 ( B u s X X )
Connections
3
SW1
1
P1
J3
TERM.
1 2 3 4 5 6 7 8
SW2
R8
DD+
0V
24 V
1
Master bus
(Upper level)
4
Power LED
Address and
application
switch SW1
Tamper
contact
P2
1
DD+
J6
Jumper for
end-of-line
resistor for
Master bus
Second bus
(Lower level)
0V
J4
8
J2
J5
Jumper for
end-of-line
resistor for
second bus
2-52
91000601
Installation
2.11
RS-485 bus connections
The RS-485 bus is used for communication with Remote Keypads, Access Control
Terminals, remote printer interface etc. The RS-485 bus terminals in the Central
unit are placed on the 95T CUB 30 CPU board.
All units are connected in parallel on the bus as shown below . Star-connections
exceeding 0.3 m in length are not allowed but the Central unit can be placed
anywhere on the bus and does not need to be in one of the ends of the bus cable.
Fig. 2.49 Example of an RS-485 connection diagram.
Remote Keypad 95T RKP
Remote Keypad 95T RKP
D - D + 0 V 2 4 V
Jumper
OFF
D - D + 0 V 2 4 V
Jumper OFF
Jumper OFF
Max.
cable
length
0.3 m
Remote keypad
95T RKP
D - D + 0 V 2 4 V
Star-connected
1 2 V
0 V
D +
D -
Jumper ON
IC 3 6
E X T E R N R E A D E R
Jumper
ON
P 3
5 V
D 0 D 1
F 1
Access Control
Terminal 95T ACM
F 2
R S 4 8 5 /P O W E R
P 1
0 V L E D 1 L E D 2 D -
D +
0 V
2 4 V
P 2
L +
S -A R T
L - D C + D C -
S-ART bus
95T CUB 30 CPU board
0 0 0 9 1 1 0 1 a
The bus must be terminated in each end with a 220 Ω resistor. This end-of-line
resistor is present in all units, it must therefore be disconnected by removal of a
jumper from the devices connected to the bus between the two ends of the bus. In
the example above, the end-of-line resistor is still connected in the Access Control
Terminal and in the 95T CUB 30 CPU board which are both placed in the ends of
the RS-485 bus. The jumpers are placed as shown in the figure above.
It is allowed to connect up to four bus devices to the power terminals (0V and
24V) of the RS-485 bus of the CPU-board. Additional bus devices must be
powered from an external eparate power supply.
☛
Please remember that the 0V must be connected through all devices including
the external power supply.
In each Access Control terminal, you may connect a local separate S-ART bus
with maximum 15 S-ARTs. This bus must not be connected together with the
S-ART busses coming from the intrusion central unit. The S-ART bus of the
Access Control Terminal is used for connection of the door contact, electric
striking plate, exit pushbutton etc. to the reader. Please refer to the Technical
Manual of the Thor Access Control System for further information.
91000601
2-53
Installation
2.12
Cable length and dimension
When installing acoustical and optical warning devices, remote keypads and
S-ARTs, cable length and current consumption must be taken into account
when selecting the cable dimension.
Connections to the I/O Board are carried out using standard installation cable.
For the RS-485 bus, shielded cable with twisted pair is recommended. The total
length should not exceed 1200 m, and the supply voltage at the end of the line
should not drop below 10 V. All devices on this line must be connected in series
- "star-connections" exceeding 0.3 m in length are not allowed.
For the S-ART lines, unshielded cable with twisted pair is recommended. The
total length including "star-connections" should not exceed 1000 m. The line
voltage at the far end should not drop below 12 V (normally 17 V). The minimum
supply voltage accepted depends on detector types etc.
The voltage drop of a two-wire cable (both conductors included) may be
calculated from:
Ua = (Rd x Idc x L) : 500, where Ua = Voltage drop in volt.
Rd = Wire resistance in Ω/m.
Idc= Current consumption in mA.
L = Cable length in metres.
Resistance of a 0.6 mm diameter (0.25 mm²) cable is Rd = 6.15 Ω/100m.
2-54
91000601
Installation
2.13
Current consumption
The table below lists typical current consumptions at 12 V and 24 V for the
various units of an intrusion system. All values provided are for one S-ART, one
keypad, etc.
The values for the different S-ARTs do not include load on the outputs.
Equipment
Normal
Alarm
95T CU-30 Main controller
115 mA at 12 V
115 mA at 12 V
95T I/O - I/O Board
20 mA at 12 V
20 mA at 12 V
Remote Keypad/Card reader, 95T types.
With backlight on, add 60 mA
60 mA at 24 V
60 mA at 24 V
90T GPI COM General Purpose Interface
50 mA at 24 V
100mA at 24 V
(communicating)
99T IPI
110 mA at 12 V
60 mA at 24 V
110 mA at 12 V
60 mA at 24 V
95T GPI XXX IP
170 mA at 12 V
120 mA at 24 V
170 mA at 12 V
120 mA at 24 V
90T - S100
0 mA at 12V/24 V
2 mA at 17 V
0 mA at 12V/24 V
2 mA at 17 V
90T - S101
0 mA at 12V/24 V
2 mA at 17 V
0 mA at 12V/24 V
2 mA at 17 V
90T - S102
0 mA at 12V/24 V
2 mA at 17 V
0 mA at 12V/24 V
2 mA at 17 V
90T - S103
0 mA at 12V/24 V
2 mA at 17 V
0 mA at 12V/24 V
2 mA at 17 V
90T - S106
0 mA at 12V/24 V
12 mA at 17 V
0 mA at 12V/24 V
12 mA at 17 V
90T - S107
0 mA at 12V/24 V
2 mA at 17 V
0 mA at 12V/24 V
2 mA at 17 V
90T – S108
0 mA at 12V/24 V
2 mA at 17 V
0 mA at 12V/24 V
2 mA at 17 V
90T – S130
25 mA at 12V/24 V
8 mA at 17 V
25 mA at 12V/24 V
8 mA at 17 V
The listed values are useful for not only calculating cable length and dimension,
but also for calculating the total power consumption and the battery capacity
needed. During log-on to a remote keypad etc., the current will increase with
typically 60 mA due to the backlight and status lamps.
For the calculation of the battery capacity needed, the S-ART consumption is
the total of the consumption at 24 V/12 V and at 17 V.
91000601
2-55
Programming
Introduction
This chapter provides the information needed to program the intrusion system
from a remote keypad.
This chapter
91000601
Section
Page
General
3-2
Start-up procedures
3-3
Programming of input addresses
3-5
Programming of output addresses
3-6
Programming of zones, areas and codes
3-7
Programming of remote keypads to zones
3-8
Auto set time programming
3-9
3-1
Programming
3.1
General
All programming of the system can be performed from any of the Remote
keypads.
When a system is going to be installed it is only pre-programmed with the
internal monitoring addresses, and all external addresses, zones etc. must be
defined in the user programming.
All programming menus are explained in Chapter 4, Operating instructions.
To start-up, a Card reader please refer to the Technical Manual for Thor Access
Control System.
3-2
91000601
Programming
3.2
Start-up procedures
3.2.1
Start-up of a Thor Intrusion central unit.
To start-up a Thor central unit the following must be connected as a minimum:
● A Remote keypad or card reader on the RS-485 (the card reader must be
initialized to mode 03)
●
The BAT ON/OFF Jumper must be connected on the CPU-board.
After connecting the power and short-circuiting the reset pins (approx. 2 s)
placed on the CPU-board, the following procedure can be followed to program a
new system. Please note the switch setting (SW1) on the CPU-board for the
different software modes.
Step
What to do …
1
Enter the preliminary Service Code 654321. If a reader is used to initialize a Thor
intrusion system a special procedure is used to call the preliminary engineer code
as follows:
a:
b:
c:
d:
Press - key and read the Master card.
Press - key (YES) for Intrusion Menus.
Key in 01.
Key in the preliminary engineer code 654321.
2
Call Menu 50 to put the system in Service Mode and then Menu 42 to program
the normal engineer code and alarm patrol code.
3
Call Menu 45 to allocate an area No. and a priority 4 to the engineer code and a
priority 3 to the alarm patrol code. If a card reader is used as a terminal the
service user No. must be No. 101, as this user No. is predefined to the service
card for the reader. After this, it is possible to make a new log-on with the normal
engineer code.
4
Call Menu 43 to program all zone names.
5
Call Menu 44 to define the zone - area relationship. The areas 1 to 8 must be
used for auto set. If this feature is not used, they can be programmed freely.
6
Call Menu 45 to allocate users to the defined areas and the user priority. One or
more users can be defined for each area. In this menu only a user number is
defined, the code is programmed in Menu 42. The service engineer can program
normal operator codes during start-up only, meaning that an engineer code
cannot change any already programmed codes
7
Call Menu 46 if the predefined detector name list must be changed.
8
Call Menu 47 to set-up all input addresses in the installation. To each address is
programmed a zone no., an input soft type no., a detector name no., and four
attributes.
9
Call Menu 48 to setup all output addresses in the installation and the belonging
zone No. or total installation.
10
Call Menu 49 to set-up the timers in the system. Each timer can be connected to
one or more output soft types, which is done in Menu 53.
Continued …
91000601
3-3
Programming
Step
What to do …
11
Call Menu 53 to connect the defined timers to the wanted output soft types.
12
Call Menu 57 to program the Alarm Functions.
13
Call Menu 54, if some of the Remote keypads or Card readers must be allocated
to special zones. All panels are preprogrammed to cover all zones.
14
Call Menu 52 to program the Site code (if any) and the RS-485 communication
mode (option 8). If the RS-485 communication mode is changed, the central unit
must be reset before the new communication mode starts.
15
Normally the built-in clock does not need to be adjusted as it runs on the internal
RAM-memory back-up battery. Even if the BAT ON/OFF switch on the
CPU-board has been in the off position, it is not necessary to program the time
and date in Thor. If, anyhow adjustment is needed it is done by calling Menu 41.
16
Call Menu 42. All user codes can be programmed. Please note that the Service
code cannot change already made user codes but only create these the first
time.
17
Call Menu 51 to leave Service Mode. Also if the system has been reset the menu
51 must be called to leave Service Mode.
18
Call Menu 55 to program the area week programs and the connected function to
each time period. When a week program is made for one area, exit the Menu 55,
and the same menu must be called again, if another area should be
programmed.
Up to eight areas can be programmed with each a different week program.
19
Call Menu 56 to program the holiday list connected to the two special days
programmed in the above menu.
20
Call Menu 28 to make a print-out of the complete system programming.
The Auto Set is then ready for use and will perform the programmed function at
the first coming programmed time.
In the sections 3.3 to 3.7 are explained in details the programming philosophy
for the mentioned programming menus in the start-up procedure.
3-4
91000601
Programming
3.3
Programming of input addresses
An input address in Thor can be an S-ART, a loop on the I/O-board or an internal
monitoring function, for example, monitoring of the RAM memory. All used input
addresses must independent of these hardware types of signals be programmed
with the parameters shown in the below figure. The internal monitoring addresses
are preprogrammed with some predefined data (See Chapter 1, Functional
description). However, these data can be changed if required.
Fig. 3.1
Input address parameters.
As shown an input address is defined by:
● A soft type defining the function of the address (Menu 47).
● A physical zone where the address (detector) is installed (Menu 47).
● A detector name that will be displayed in case of alarm or fault messages
from the address. A list of max. 250 names can be made by the Menu 46
and the connection to the address is programmed with Menu 47.
● Four attributes connected to each address. The function of the attributes is
described in Section 1.5.2.
The Menus 46 and 47 are explained in details in Chapter 4, Operating Instructions.
91000601
3-5
Programming
3.4
Programming of output addresses
An output address in Thor intrusion can be an S-ART or an output on the I/O
interface board. An S-ART can be used as an input address and as an output
address at the same time and with complete independent functions. All used
output addresses must be programmed with the parameters described and shown
in the figure below.
Fig. 3.2
Output address parameters.
In Menu 48, each output address must be programmed with an output soft type.
A zone No. is programmed in the same menu. This zone No. defines which
input in which zone activates the output address. It is not necessarily the
physical zone where the output is placed. For example, it is possible to have a
zone for a vault with some detectors and then an output programmed with an
output soft type with the same zone No. in the guard room to activate video
equipment in case of alarm from the vault zone.
If the zone No. is programmed as 00 the output will react as a general signal
from the complete system for this output soft type.
As shown in the above figure, to each output soft type by zone a timer can be
connected. This means that for example all output addresses defined as output
soft type No. 1 (Common alarm 1) in zone 01 uses timer No. 7, which has been
programmed to have a duration of 180 s, no delay and a timer type 1 (normally
off). Other addresses with output soft type No. 01 but defined for another zone
than 01, can be defined to another timer No. The timer definition regarding
output soft type and zone No. is made in Menu 53.
Before connecting timer No. to output soft type no., each timer No. must be
defined with a timer type. Seven different timer types are available, see the
figure and the function description for exact definition of each timer type. In the
timer type programming it is decided, if the output soft type will be normally on /
off, pulsating etc.
3-6
91000601
Programming
3.5
Programming of zones, areas and codes
In the figure below is shown the relation between zones, areas, users and codes.
Fig. 3.3
Relation between zones, areas, users and codes.
Each user can have a six digit pin-code, see code list and a priority P0 to P6
(see User list), which defines the menus the user is allowed to use.
Several users can be connected to one area. All set / unset manipulations with
these user codes will physically set or unset the area, meaning that the first
code belonging to the area will set or unset the area not depending on what has
been done with the other codes to the area.
Two types of areas can be defined, logical or physical, describing the set/unset
procedures.
Physical areas: If the areas 001 and 002 in the above shown example are defined
as physical areas the setting and unsetting of the common zone 01 will work as
follows: The first code from area 001 or 002 in the morning will unset the
corresponding area and also the common zone. In the evening when the first area
is set, the common zone 01 will also be set. If the people from the other area must
leave the building through the common zone, this programming does not work and
the areas must be defined as logical areas as explained below.
Physical areas are indicated by "axxx" in the System Programming print-out.
Logical areas: If the areas 1 and 2 are defined as logical areas the setting and
unsetting of the common zone 01 will work as follows: The first code from area
001 or 002 in the morning will unset the corresponding area and also the
common zone. In the evening when the first area is set the common zone 01 will
not be set before all areas covering the common zone have been set. In this
case the people from area 001 can set the area and leave the building and the
people in area 002 can still work and leave through zone 01 and make the
setting of area 002, when they want. The setting of zone 01 takes place when
both areas are set.
Logical areas are indicated by "Axxx" in the System Programming print-out.
91000601
3-7
Programming
3.6
Programming of remote keypads to zones
In Menu 54, a Remote keypad or other type of operating terminal can be
programmed to belong to one or more zones. This feature is illustrated by the
example below.
Fig. 3.4
Division of an area into zones.
The remote keypad near the entrance door is programmed to cover zone 01, 02,
03 and 05 and the RKP near the stock to cover zone 04. A user code for area 1
covering zone 01 to 05 will set and unset - at the main entrance RKP - zone 01,
02, 03 and 05 but not 04.
The same user code used on the RKP 2 will only set and unset zone 04. By doing
like described, it is possible with the same code to set/unset different zones from
different RKPs and it is not necessary for the user to remember more than one
code.
3-8
91000601
Programming
3.7
Auto set time programming
This section describes the week time programming for auto setting including the
autoset and autounset functions and the holiday list.
3.7.1
Area week time programming
The week time programs for auto setting can be programmed by a P2 or P4
user code. It is possible to auto set and unset up to max 8 areas, area 001 to
008. For each area, a separate week program must be programmed.
A week program comprises 7 days: Monday to Sunday plus 2 special days
which refer to the holiday list. In this way, it is also possible to program half
working days, for example the 24th of December or other specific dates.
The figure below shows an example of a typical time program for a normal day.
Fig. 3.5
Example of typical time program for a normal day.
One day can have max. 8 periods where the first always starts at 00:00 and the
last always at 24:00. In the above example, the system is set until 8:00, after
which it is possible to unset the area. However, the area is not unset before 9:00
by the first coming user. At 12:00, it is automatically set and again unset at
14:00. At 18:00 it is auto set if no user has requested a delay in the setting. If a
user has requested a delay, the auto set will take place at 20:00 and the
complete program changes to the next day at 24:00.
Each period must be programmed with a function (FNC). Eleven functions FNC
1 to FNC 11) are available as described below.
91000601
FNC 1
Setting the area at the beginning of the period or setting at the end of the period
if delay has been requested from one of the Remote keypads. Delay can only be
requested once
FNC 2
Setting the area at the beginning of the period.
FNC 3
Setting the area at the beginning of the period and enabling manual unsetting at
the end of the period.
FNC 4
Unsetting the area at beginning of the period.
FNC 5
No change.
3-9
Programming
FNC 6
At the beginning of the period and each 10 minutes in the period, it is verified that
the area is set. If the area is not set, an alarm is generated on an input address
corresponding to the area number. There is no reaction if the area is set.
It is possible to delay the function in the pre-warning period. If this is the case, the
verification will only take place at the end of the period.
Related inputs:
3-10
Area 1: Input No. 62
Note
FNC 6 corresponds to FNC 5 (No change) in the way that it is the prior function
that decides the use of code priorities. If for example, the function before FNC 6
is a FNC 2, then it is not possible for P0 and P1 codes to perform an unsetting.
Only if another function used before FNC 6 allows the unsetting, a manual
unsetting can be performed.
FNC 7
When the function becomes active and the area is unset, then a timer is started
(timer 18 –duration in minutes) and when the timer expires, the area is
automatically set. 10 minutes before the automatic setting the pre-warning
output type is activated, as normal.
If the area is unset when the function is active, the timer will be started as
above.
It is possible to delay the automatic setting (when the pre-warning is active) by
means of Menu 14. The setting is then delayed for the programmed time (Timer
18 – delay in minutes).
FNC 8
Operates as FNC 1. However, if there are any active detectors in the area to be
set, the setting is cancelled and a set fault message is sent.
This message will contain a list of all the detectors that where active when the
Auto-Arm function would have set the area, maximum 100. The message is
sent to following devices: Alarm / event transmitter, INCOM, GPI Host interface
and Modem interface.
FNC 9
FNC 10
Allows manual unsetting at the start of the period. If the area is not unset at the
end of the period, the area+1 is set automatically.
FNC 11
Allows manual setting and unsetting at the start of the period, but only when the
area is unset when the period starts.
91000601
Programming
3.7.2
Holiday list
A holiday list of 25 periods can be made in Menu 56. For each period, a day No.
(1-9) must be programmed, which refers to the 7 week days and 2 special days
in the area week program.
Normally 2 different special days will be programmed. One day, which is closed
the whole day and another day, which is open half day. This makes it possible to
have special opening times for certain dates during a year.
It is also possible to use one of the normal week day No. 1 - 7 together with a
period in the holiday list, if the programmed time for this day is suitable for the
holiday period.
The holiday list is common for all 8 area week programs using the same day ref.
No. from each week program.
Please refer to Section 4.6 for the Menu 56 for information about programming.
91000601
3-11
Programming
This page is intentionally left blank.
3-12
91000601
Operating instructions
Introduction
This chapter describes the operating facilities of the remote keypads and the
way in which the system is operated on a daily basis. In addition to this, an
overview of the available menus gives an introduction to the following sections
describing in detail the function keys of the keypads, and the operator codes and
priority. After this follows a detailed description of the individual menus and their
use.
This chapter
91000601
Section
Page
Operating facilities
4-2
Operation in general
4-3
Submenu 2 - Display/change of status
4-17
Submenu 3 - System test
4-22
Submenu 4 - Programming
4-26
Autoset programming
4-40
4-1
4.1
Operating facilities
The user terminal (Remote Keypad) has four Indication lamps, a two-line
alphanumeric display and a numeric keyboard with six additional function keys.
The four indication lamps are used for the following functions:
Green power lamp:
Indicates mains power present. Flash indicates battery operation (mains
power dropout).
Red alarm lamp:
Lit after log-on to indicate the presence of an alarm condition within the
keypad-area. The alarm condition can be seen on the display. Turned
off, when all alarm messages are reset.
Yellow system fault lamp:
Lit after log-on to indicate the presence of a system fault within the
keypad-area. The fault condition can be seen on the display. Turned off,
when all fault messages are reset.
Yellow set lamp:
Lit after log-on, when all zones of the code used are set (code-area set).
Display
Two lines of each 16 characters displaying the status of the system and operating
instructions. Normally date and time are displayed. The backlight is turned-on as
soon as the keyboard is activated and automatically turned-off again two minutes
(normally) after the last keystroke.
Buzzer
Used for acoustical indication of alarm/fault and entry/exit time. Also activated for a
short time to indicate operating fault.
Keyboard
The keyboard includes the numerical keys
and six function keys:
to
used for entry of codes etc.
This key is used for setting.
This key is used for unsetting.
This key is used for alarm/fault reset.
This key selects the displayed menu-function.
This key is used for step back and log-out.
This key steps through the different menus.
The function keys are described in detail in Section 4.2.5.
4-2
91000601
4.2
Operation in general
The Thor operating procedure is menu-based which means, that all operating
features are displayed as the operator replies to the questions asked by
pressing YES ( - key) or NO ( - key).
The menu includes a main menu for daily operating and three sub-menus for
status display or change of status, system test and programming. Operating
requires a 6-digit code to be keyed-in. The menu-functions displayed depend on
the code-priority (Seven levels).
4.2.1
Daily operation
Prior to any operating procedure, date and time are displayed. This is also the
normal display upon log-out (by means of the - key or automatically after
normally 2 minutes without operating). In case the system holds alarm/fault
messages, which the operator in question might have the priority to reset, but has
not yet done so, the buzzer sounds for approx. 15 s at log-out.
Menu 00
Fig. 4.1
Example of Normal display.
The backlight of the display is normally turned-off, but is turned-on as soon as the
keyboard is used - and an access code is requested. A flashing cursor indicates
which digit is expected. If the first keystroke was a decimal figure, it is regarded
first digit of the code. Digits are indicated by * in the display. By entering an illegal
code, the buzzer sounds for a short while and a new attempt is requested. After
three attempts, the keypad is blocked for 5 minutes.
Menu 01
Fig. 4.2
Example of Access code request.
After code acceptance, status of the code-area (or zone) Menu 10 is displayed.
91000601
4-3
Menu 10:
Fig. 4.3
Example of Display of status of code-area.
The set/unset condition displayed depends on whether your code is allocated to
a physical area or to a logical area.
Codes allocated to a logical areas operates in such a way, that zones common
to more of those areas are not physically set until all such areas have been
requested set.
Codes allocated to a physical areas perform normal physical setting/unsetting of
the common zones.
You can read Section 1.4, The logical area concept, to get more information
about logical and physical areas. See especially page 1-13.
By using the - key, the set/unset condition of zones belonging to the area are
displayed one by one, and may be altered physically by means of the or
keys. In case of alarm messages etc. within the zone in question, the number of
alarms is displayed. After having displayed the last zone, or at any time using
the - key, the area condition is displayed again.
AREA UNSET means, that all detectors (apart from tamper etc.) of the area are unset.
PARTIALLY SET means, that only a part of the area is set, either because the
setting was performed by means of a keypad belonging to only a part of the
area, or because zones or detectors have been individually set/unset in Menus
10, 22 or 23.
AREA SET means that all detectors of the area are set (no isolations). Zones
common to more logical areas are not physically set until the last one of such
areas have been set.
SYSTEM SET means, that all areas are set (isolations may be present).
ZONE NAME UNSET means, that all detectors (apart from tamper etc.) of the
zone are unset.
ZONE NAME P.SET means, that some detectors (apart from tamper etc.) of the
zone are physically set and some are either unset.
ZONE NAME SET means that all detectors of the zone are set (isolations
accepted).
Normally the lower line displays operating instructions SET=
or UNSET= .
In case of alarm messages etc., the lower line of the display informs of the
number of alarm messages (if present) or system fault messages (if present) or
isolated detectors. By means of the - key a jump to the Alarm List Menu 11 or
the System Fault List Menu 12 or the Isolated Detector List Menu 13 occurs.
If no operating steps are performed within 5 s, alarm and system fault messages
are displayed automatically one by one in intervals of 2 s. See Autoscroll, page 4-9
for more information.
4-4
91000601
Unsetting
From a Remote Keypad
After having entered the protected premises along the designated entry route,
the access code is keyed-in, Menu 10 displayed and the - key is pressed to
unset the area. The display changes accordingly. The -key performs log-out,
which also happens automatically 2 minutes after the last keystroke.
From a Card Reader
Unsetting from a reader demands a card belonging to a personnel group
programmed for unsetting and a PIN-code corresponding to the card. After
having read the card and entered the PIN-code the - key can be pressed and
the corresponding area will be unset and at the same time the door will be
opened.
Fig. 4.4
Example of the unsetting procedure from a Card reader.
The PIN-code must only be entered once, before or after entering
if the card is programmed with or without normal use of PIN-code.
91000601
depending on
4-5
Setting
From a Remote Keypad
The access code is keyed-in, Menu 10 displayed and the
initiate the setting procedure.
Fig. 4.5
- key is pressed to
Example of setting the system from a remote keypad (RKP).
Normally you are then requested to leave the premises along the designated
entry/exit route - the buzzer sounds to indicate exit time is running. The - key
performs log-out, which also happens automatically 2 minutes after the last
keystroke.
In case setting is not possible due to the condition of the system, the individual
reasons - active detectors - are displayed (non-reset passive alarm and system
fault messages do not affect the setting procedure). If a detector fault cannot be
corrected (window closed etc.), the detector may be isolated (depends on
detector type and code priority) using the - key, upon which the next fault is
displayed. No more than one detector within each zone is allowed isolated using
code priority P0-P1. At an attempt of isolating more detectors, Menu 10 is
displayed as AREA UNSET - 001 ISOLATIONS. P2-P4 codes are allowed to
isolate an unlimited number of detectors.
By using the - key, elements of the detector fault list are just displayed (not
isolated) - after the last element, Menu 10 appears again allowing for a new
attempt of setting.
Such isolated detectors take no part in the setting procedure to follow. Upon the
next unsetting, the condition of these detectors are normal unset again.
☛
Please note that detectors in the exit/entry route (input soft type 4) will not give a
Set fault indication in case of active detectors, but if the detector is still active at
the end of the exit time give an external alarm.
In case the alarm input of a detector is active, it may be isolated without
disabling the ability to react to a tamper alarm condition.
If the central unit is setup to work in the Bank mode (see CPU switch setting),
another possibility exists when the setting of an area is giving a set fault. In
stead of isolating the detector a "forced setting" can be performed. This is done
by using the - key twice when having a set fault from a detector. The system
will then perform the setting and go into alarm condition.
4-6
91000601
Fig. 4.6
Example of normal setting and forced setting.
From a Card Reader:
Setting of an area from a reader demands a card belonging to a personnel group
programmed for setting and a PIN-code corresponding to the card. After having
read the card and entered the PIN-code the - key can be pressed and the
corresponding area will be set.
Fig. 4.7
Example of setting the system from a Card reader.
The PIN-code must only be entered once, before or after entering
the card is programmed with or without normal use of PIN-code.
, depending on if
In case setting is not possible because of active detectors, the reader will
display the same menus as in the Remote Keypad and the procedures to isolate
etc. are the same as described above.
91000601
4-7
Menu 11:
Alarm display
Fig. 4.8
Example of displaying alarms.
By NO ( ), Menu 12 appears.
All alarm messages of the system or within the code-area (depends on system
programming) are displayed including DETECTOR NAME, alarm type
(HOLD-UP, TAMPER, ALARM, FIRE or TECHNIC), actual input condition (+ for
ACTIVE and - for QUIET) and ALARM TIME in order of appearance - except for
the first alarms, which are always hold-up alarms, if present. If the event belongs
to the area of the code, it is erased from the list by pressing the - key, upon
which the next event is displayed. If the element is not erased the buzzer sounds
for a short time and the display remains unchanged. In this case the - key is
used to display the next element. By means of the - key additional information
concerning zone relationship, detector number and actual input condition are
displayed. This key is also used to return to the list again.
After having tried to reset all events, the list holds the elements only, which cannot
be reset - either because the operator is not allowed to or because the actual
condition of the input (see input types) does not allow for resetting. Such remaining
messages are displayed by pressing the - key repeatedly. When the list is
empty, Menu 11 appears again; this is also achieved using the - key.
Menu 12:
System fault display
Fig. 4.9
Example of displaying system faults.
All fault messages of the system or within the code-area (depends on system
programming) are displayed including DETECTOR NAME, actual input condition
(+ for ACTIVE and - for QUIET) and FAULT TIME in order of appearance. If the
event belongs to the area of the code, is erased from the list by pressing the
- key, upon which the next event is displayed. If the element is not erased the
buzzer sounds for a short time and the display remains unchanged. In this case
the - key is used to display the next element. By means of the - key
additional information concerning zone relationship, detector number and actual
input condition are displayed. This key is also used to return to the list again.
After having tried to reset all events, the list holds the elements only, which cannot
be reset - either because the operator is not allowed to or because the actual
condition of the input (see input types) does not allow for resetting. Such remaining
messages are displayed by pressing the - key repeatedly. When the list is
empty, Menu 12 appears again; this is also achieved using the - key.
If a log-out is performed with alarm or system fault messages not erased, the
Remote Keypad will sound the buzzer in 15 seconds to remind the user not to
forget to clear information, which is not valid any more.
4-8
91000601
Menu 13:
List of isolations
Fig. 4.10 Example of displaying list of isolations.
All detectors of the system or within the code-area, isolated during the setting
procedure or in Menu 23, are displayed including DETECTOR NAME, ZONE
NAME, DETECTOR NUMBER and actual input condition (ACTIVE or QUIET) by
using the - key and the - key. When the - key is pressed, Menu 13
appears again.
Autoscroll
Fig. 4.11
Example of automatic presentation of system messages by means of autoscroll.
The - key will unset the area, but not stop the autoscroll. The - key will set
the area and stop the autoscroll. The - key will reset the alarm or fault
message (if so allowed), but will not stop the autoscroll. The - key and the
- key will perform immediate operation as usual, but not stop the autoscroll.
The - key will stop the autoscroll and perform a step back as usual.
The purpose of autoscroll is to present messages of the system to untrained
personnel in an automatic way. After log-on, the main menu (set/unset condition
of the area) remains for 5 s. In case of alarm messages or system fault
messages, each element is displayed for 2 s. After the last message, the main
menu is displayed again, and the sequence is repeated.
91000601
4-9
Menu 14:
Delay autoset
Fig. 4.12 Example of delaying autoset.
In systems where auto-set time programs are programmed it is possible to delay
the auto-set each period in the week program by calling Menu 14. After keying in
the area number (between 1 - 8), the auto-set time will be delayed the specified
time. By pressing , the menu is left without delaying the auto-set time.
Menu 14 can be called from all types of Remote Keypads or Card readers.
4.2.2
Sub-menus
From the daily operating procedure a jump to the special functions is performed
by entering XX, where XX indicates the number of the wanted function.
The special functions are divided into three submenus:
Fig. 4.13 The three submenus with special functions.
Direct jump to any menu can be made by entering the menu number indicated on
the menu overview diagram.
4-10
91000601
4.2.3
Intrusion menus on the Card Reader
The above description is valid for using the system from a Remote Keypad. To do
the same on a Card Reader the following procedure can be used.
Fig. 4.14 How to access the three submenus with special functions from a Card Reader.
When using the card reader to operate the intrusion system it is necessary with a
card and a corresponding PIN-code. Before reading the card the - key is
pressed to tell the reader not to open the door but to go into "Menu" - mode. After
entering the card and PIN-code, the user has the choice between "Access Menus"
or "Intrusion Menus". Choosing the "Intrusion Menus" the user can do all the
menus described in this manual.
91000601
4-11
4.2.4
Overview of the menus
The overview of the menus in the figure below shows how reach the menus and
the priority required to get access to the displays of the menus for viewing,
testing and programming.
Fig. 4.15 Overview of the menus available with number and priority required for access to the displays of the menus.
4-12
91000601
4.2.5
Use of the function keys
It is always possible to use function keys different from the ones suggested by
the display.
If the unsetting key is pressed, when a menu-picture is displayed (not inside a
selected menu), all zones of the operating keypad common to the code used are
unset, after which the new condition is displayed by Menu 10. During isolation of
setting faults and inside Menu 22 (zone setting-unsetting) and Menu 23 (detector
setting-unsetting-isolating) the key unsets a part of the system only.
If the setting key is pressed, when a menu-picture is displayed (not inside a
selected menu), all zones of the operating keypad common to the code used are
set, after which the new condition is displayed by Menu 10. In case of setting
faults however, a fault list appears. Inside the Menus 21 (area setting), 22 (zone
setting-unsetting) and 23 (detector setting-unsetting-isolating) the key sets a part
of the system only.
If the reset key is pressed after having entered Menu 50 (service mode), an
attempt is made to reset all the alarm/fault messages, the code used is allowed
to reset, after which the new condition is displayed by Menu 10. Please note that
it takes app. 3 s by alarm or fault message before returning to Menu 10. During
alarm reset (Menu 10 and 11) and fault reset (Menu 10 and 12), attempts are
made to reset messages one by one only.
In the System Programming Menus the cursor can be moved to the right by
the - key to the wanted place where a new parameter is needed.
When the menu key (NO-key) is pressed, the next menu appears. By pressing
the - key in a sub-menu, the display will show the starting point of this
sub-menu. During display of most lists etc., the key is used to bring the next
element forward. After having displayed the last element, you are returned to the
first element.
The select key (YES-key) is used to select the displayed Menu. It is also used to
get more information, when an input (detector) condition is displayed - and to
return to the first picture. Such additional information is not necessarily needed
by the operator, but is useful to engineers as zone name, detector number, type
of event and actual input condition are included.
Detector window
Fig. 4.16 Explanation of the detector window content.
This key performs an escape/log-out function. When it is pressed inside a selected
menu, a jump back to the menu select picture occurs. By pressing the - key, the
starting point of the sub-menu will appear and finally back to Menu 10.
A maximum of four activations are required to log-out and turn-off the backlight of
the display. This also happens automatically 2 minutes (normally) after the last
keystroke.
91000601
4-13
4.2.6
Operator codes
In order to make a change of status such as setting, alarm reset, system test,
programming etc. a 6-digit code must be entered. This code is allowed to
operate the complete system or a part only as defined by programming.
To each code belongs a hold-up code equal to the code + 1. Codes with last
digit = 9 have no hold-up function. When a hold-up code is used, a time-limited
transmission to the alarm station takes place. The condition is not indicated in
the display, just by the event-log and some output types.
Special hold-up codes can also be created. These codes will give the abovedescribed reaction and they are programmed by giving the user a priority P5.
Upon three unsuccessful attempts of entering a code, the keypad is blocked for
five minutes.
When a code is modified, it is compared to all other codes of the system and
rejected in case of to big resemblance (4 similar digits). 000000 may always be
programmed and disables the code. Upon CPU-reset certain predefined codes
are available, see Menu 42.
250 codes with different priorities (up to seven – P0 to P6) can be programmed.
See the following section for more information.
4.2.7
Code priority
This section describes the priority that can be assigned to the individual users of
the system. Seven priorities are available.
The priority defines the operating rights assigned to the operators as follows:
Priority P6
The low priority operator code allows the user to set his own area. The P6 user
has only access to Menu 10 and the - key to display zone status. The P6 user
cannot reset alarms, but entry of the code will stop sirens, bells, etc.
Priority P5
The hold-up code has the same rights as a P0 code. When using a P5 code, a
hold-up alarm will be created as described above.
Priority P4
The engineer code allows for all kinds of operation - except from changing P0 P2 codes. The code is accepted 2 minutes after an alarm/fault condition, and
may be used until all such messages are reset. A P1 - P2 operator may allow,
by typing 50, the engineer code to be used one time only - until log-out.
When a P4 code types 50, the system is in service mode allowing for unlimited
use of the engineer code for general alarm/fault reset, most system test etc.
until service mode is reset by typing 51 (all codes are allowed to do so).
The system programming (Menu 43 -54) requires service mode. Service mode
is indicated by a pseudo-fault message being displayed and a transmission
output "Trouble" being activated (both automatically reset by typing 51) and
prevents alarm conditions from activating the local strobe and bell outputs.
Priority P3
4-14
The alarm patrol code allows for most kinds of operating - except from system
programming and some system test facilities. The code is accepted 2 minutes
after an alarm/fault condition, and may be used until all such messages are
reset.
91000601
Priority P2
The master manager code allows for all kinds of operating - except from
changing P3-P4 codes, input test and system programming. Can allocate Users
to Areas and change the priority for a user (P0 to P2 only) (Menu 45). Can
always override automatic set/unset commands. Can make a reset of tamper
alarms if the Option bit 5 (Menu 52) enables this function.
Priority P1
The manager code like P2 allows for most kinds of operating, most test
facilities, changing of date and time and change of own code and P0 codes.
Cannot in Bank mode unset an area, which includes zones controlled by an
automatic set period. Can only isolate one detector in each zone.
Priority P0
The operator code allows for setting/unsetting, alarm/fault reset (not tamper
alarm and some system faults) and lamp test. Cannot unset an area, which
includes zones controlled by an automatic set period. Can only isolate one
detector in each zone.
Function or menu No.
Description
P0
P1
Unset:
Own area
Yes
Auto set area
No
Set
P2
P3
P4
P5
Yes
Yes
No
Yes
P6
Yes
Yes
Yes
No
No
Yes
No
No
Foreign area
No
No
No
No
No
No
No
Own area
Yes
Yes
Yes
Yes
Yes
Yes
Yes
Foreign area
Yes
Yes
Yes
Yes
Yes
Yes
No
Isolate detectors
Yes*
Yes*
Yes
Yes
Yes
Yes*
Yes*
Alarm (intrusion)
Yes
Yes
Yes
Yes
Yes
Yes
No
Tamper alarm
No
No
Yes/No
Yes
Yes
No
No
Hold-up alarm
Yes
Yes
Yes
Yes
Yes
Yes
No
Technical alarm
Yes
Yes
Yes
Yes
Yes
Yes
No
Fire alarm
Yes
Yes
Yes
Yes
Yes
Yes
No
Battery/1h mains fault
Yes
Yes
Yes
Yes
Yes
Yes
No
System faults
No
No
No
Yes
Yes
No
No
Menu 14
Delay auto-arming
Yes
Yes
Yes
Yes
Yes
Yes
No
Menu 21
Display area status
Yes
Yes
Yes
Yes
Yes
Yes
No
Menu 22
Display zone status
Yes
Yes
Yes
Yes
Yes
Yes
No
Menu 23
Display detector status
Yes
Yes
Yes
Yes
Yes
Yes
No
Menu 25
Display event-log
No
Yes
Yes
Yes
Yes
No
No
Menu 26
Print event-log
No
Yes
Yes
Yes
Yes
No
No
Menu 27
Print status
No
Yes
Yes
Yes
Yes
No
No
Menu 28
Print programming
No
No
Yes
No
Yes
No
No
Menu 29
Display alarm counter
No
No
Yes
No
Yes
No
No
Menu 31
Test lamps
Yes
Yes
Yes
Yes
Yes
Yes
No
Menu 32
Test PIR etc
No
Yes
Yes
Yes
Yes
No
No
Menu 33
Test battery
No
Yes
Yes
Yes
Yes
No
No
Menu 34
Test zones
No
Yes
Yes
Yes
Yes
No
No
Menu 35
Test inputs
No
No
No
No
Yes
No
No
Menu 36
Test outputs
No
No
Yes
No
Yes
No
No
Menu 37
Test printer
No
Yes
Yes
Yes
Yes
No
No
Menu 38
Test bells
No
Yes
Yes
Yes
Yes
No
No
Menu 41
Program date and time
No
Yes
Yes
Yes
Yes
No
No
Menu 42
Program access codes
No
Yes
Yes
No
Yes
No
No
Menu 43
Program zone names
No
No
No
No
Yes
No
No
Menu 44
Program area-zones
No
No
No
No
Yes
No
No
Menu 45
Program code-area
No
No
Yes
No
Yes
No
No
Menu 46
Program detector names
No
No
No
No
Yes
No
No
Menu 47
Program inputs
No
No
No
No
Yes
No
Reset
No
Continued ...
91000601
4-15
Function or menu No.
Description
P0
P1
P2
P3
P4
P5
P6
Menu 48
Program outputs
No
No
No
No
Yes
No
No
Menu 49
Program timers
No
No
No
No
Yes
No
No
Menu 50
Allow for service code
No
Yes
Yes
No
No
No
No
Set in service mode
No
No
No
No
Yes
No
No
Reset all alarm/fault
No
Yes
Yes
Yes
Yes
No
No
Menu 51
Cancel service mode
Yes
Yes
Yes
Yes
Yes
Yes
No
Menu 52
Program Options and Site code
No
No
No
No
Yes
No
No
Menu 53
Program output-timer
No
No
No
No
Yes
No
No
Menu 54
Program keypad-zones
No
No
No
No
Yes
No
No
Menu 55
Program Auto Set programs
No
No
Yes
No
Yes
No
No
Menu 56
Program Holiday list
No
No
Yes
No
Yes
No
No
Menu 57
Program Alarm Functions
No
No
No
No
Yes
No
No
Menu 58
Adjust clock (CU-30 only)
No
No
Yes
Yes
Yes
No
No
Menu 59
Reset
No
No
No
No
Yes
No
No
* Only 1 detector in each zone.
4-16
91000601
4.3
Submenu 2 - Display/change of status
This section describes the menus and displays of submenu 2 used for displaying
and changing the status of areas, zones and detectors, viewing and printing the
event log and printing the system programming.
Menu 21:
Status of areas
Fig. 4.17 Example of Menu 21: Area status with associated displays.
The setting condition (UNSET, PART SET or SET) and alarm condition (QUIET,
ACTIVE (active inputs), ALARM or FAULT (system fault)) of each area, included in
the keypad-area, are displayed. If the condition is normal (QUIET), a (partly) unset
area may be logically set by means of the pushbutton - even though the area
includes zones not belonging to the code used. Zones of the area belonging to the
code may be unset as well by means of the pushbutton. After having performed
a setting/unsetting, the new condition is displayed. The next area is brought
forward by pressing the - key. After having displayed the last area (max. 250),
the first one (001) appears again. By means of the - key, a return to
Menu 21 is made.
Menu 22:
Status of zones
Fig. 4.18 Example of Menu 22: Zone status with associated displays.
The setting condition (UNSET, P.SET or SET) and alarm condition (QUIET,
ACTIVE (active inputs), ALARM or FAULT (system faults)) of each zone,
included in the keypad-area, are displayed. If the condition is normal (QUIET), a
(partly) unset zone may be physically set by means of the pushbutton although the zone does not belong to the code used. If the zone belongs to the
code, it may be unset as well by means of the pushbutton. After having
performed a setting/unsetting, the new condition is displayed. The next zone is
brought forward by pressing the - key. After having displayed the last zone
(16), the first one (01) appears again. By means of the - key, a return to
Menu 22 is made.
91000601
4-17
Menu 23:
Status condition
Fig. 4.19 Example of Menu 23: Detector status with associated displays.
By NO ( ), Menu 25 or 20 appears.
All inputs included in zones common to the keypad and the code used are
displayed by detector name, address, set/unset condition (SET, UNSET or
ISOLATED), alarm condition (ALARM, TAMPER, HOLD-UP, FIRE, TECHNIC or
SYS.FAULT), actual input condition (QUIET or ACTIVE) and zone relationship.
Set detectors may be unset by means of the - key. Unset detectors may be
set by means of the - key - provided the actual input condition is QUIET - or
isolated by means of the - key.
Isolated detectors may be reconnected (set) by the - key. After having
performed a change of status, the new condition is displayed. The next detector
is selected by the - key.
After the last defined detector address, the first one is displayed. By entering
XXX, detector address XXX is displayed. By means of the - key, a return to
Menu 23 is made.
Menu 24:
Remote keypad data
Fig. 4.20 Example of Menu 24: Remote keypad data.
This menu requires at least a manager code (P1).
In the menu is shown the complete address used on the RS-485 bus by the
terminal.
Example:
01 02 00
This means that the terminal is connected to the bus No. 01 and using address
02 on the bus. The 00 is not used for the moment.
The second line in the menu indicates the version of the software in the
terminal. Please note that it is not the software version of the central unit. This
can be displayed in Menu 29.
4-18
91000601
Menu 25: Event-log
Fig. 4.21 Example of Menu 25: Review log menu with associated displays for viewing the event log.
The event-log stores the last 997 events and requires at least a manager code
(P1) to be used. The second line displays time of occurrence of the event, which
code was used (U250) or zone number (Z 16) in case no code is involved and
event number, while the upper line displays events (the latest event is displayed
first) such as:
C123 RESET
C 007 HOLD-UP
C 011 TAMPER2
C 123 ALARM
C 001 TECHNIC +
C 001 TECHNIC C 005 FIRE
C 081 SYS.FAULT
C 001 TEST STA:1
C 002 ISOLATED
C 004 UNSET
C 004 SET
C 100 ZONE TEST
14 DEC 90
K002 HOLD-UP
K007 UNSET
K008 SET
K001 LOG-ON
K003 LOG-OFF
K002 BLOCKED
Z003 UNSET
Z004 SET
A005 UNSET
A006 SET
A001 AUTO SET
A001 AUTO UNSET
M035 EXECUTE
M035 END TEST
K031 UP/DOWNLOAD
Reset of alarm/fault message with detector address specification.
Hold-up alarm with detector address specification.
Tamper alarm with detector address and type specification.
Intruder alarm with detector address specification.
Technical alarm with detector address specification.
Disappearance of technical alarm with detector address specification.
Fire alarm with detector address specification.
System fault with detector address specification.
Alarm condition during detector test 35.
Isolating a detector with detector address specification.
Physical unsetting a detector with detector address specification.
Physical setting a detector with detector address specification.
Alarm condition during zone test 34.
New date (recorded at midnight 00:00).
Hold-up code alarm with keypad address specification.
Unsetting keypad-zones different from a complete area.
Setting a keypad-area different from a complete area.
Code acceptance with keypad address specification.
Auto-clear or log-off with C-key with keypad address specification.
Blocking of keypad after 3 attempts of entering a (faulty) code.
Physical unsetting a zone with zone number specification.
Physical setting a zone with zone number specification.
Unsetting an area with area number specification.
Setting an area with area number specification.
Automatic setting an area with area number specification.
Automatic unsetting an area with area number specification.
Execution of a menu-function with menu number specification.
End of test menu
Up/download from the AICS software.
In order to step through the log, the - key is used. By typing a 3-digit number, a
jump directly to this event number is performed. Just alarm/fault messages and
new dates are displayed by using the - key. Pressing the - key hereafter
performs a return to the normal log at the event prior to the alarm/fault/date. After
having displayed the last event (oldest), the first one is displayed again. By means
of the - key, a return to Menu 25 is made.
91000601
4-19
Menu 26:
Print event-log
Fig. 4.22 Example of Menu 26: Print event-log.
This feature requires at least a manager code (P1). The oldest event is printed
first. Each event of up to 998 takes approx. 2 s to print. By means of the - key,
printing is stopped and a return to Menu 26 is made.
Please refer to the list of events explained for Menu 25 to get information about
the print-out formats. The format of the print-out corresponds to the format of an
on-line printer connected to the central unit or printer interface. The lines below
are an example of such a print-out.
Menu 27:
Print status
Addr.
Alarm type
Time
Detector name
Zone name
C104
ALARM
09:45
INFRARED DETEC.
RECEPTION
Fig. 4.23 Example of Menu 27: Print status.
This feature requires at least a manager code (P1). For each input detector, the
set/unset/isolated/alarm/actual condition is printed and for each zone, the
set/unset condition is printed. By means of the - key, printing is stopped and a
return to Menu 27 is made.
Menu 28:
Print system program
Fig. 4.24 Example of Menu 28: Print system program.
This feature requires a master manager code (P2) or the engineer code (P4). All
system programming (Menu's 43 and up) are printed-out. By means of the - key,
printing is stopped and a return to Menu 28 is made.
4-20
91000601
Please note that in the Area - Zone print-out a "Axxx" means a logical area and
"axxx" means a physical area.
Menu 29:
Alarm counter
Fig. 4.25 Example of Menu 29: Alarm counter.
Counter value
Program version
This function requires a master manager code (P2) or the engineer code (P4). The
alarm counter stores the total number of external alarms released since the alarm
system was produced. The counter is never reset. By pressing the - key, the
program version used and a checksum of the system programming are displayed.
By means of the - key, a return to Menu 29 is made.
91000601
4-21
4.4
Submenu 3 - System test
This section describes the menus and displays of submenu 3 used for testing the
various parts of the system.
Menu 31:
Lamp test
Fig. 4.26 Example of Menu 31: Lamp test.
This test requires no special code priority. The 5 status lamps starts flashing in 1 s
intervals and the display shows the text above alternating with all segments turned
on in 5 s intervals. By means of the - key, the test is stopped and a return to
Menu 31 is made.
Menu 32:
Walk test
Fig. 4.27 Example of Menu 32: Walk test.
This test requires at least a manager code (P1). It is performed within the
common code/keypad area. The test outputs are activated in order to check the
reaction of passive infrared detectors by means of their built-in test lamps. This
picture remains for 25 min. (opposite to the normal auto-clear after 2 minutes).
By means of the - key, the test is stopped and a return to Menu 32 is made.
If Seismic detectors with testable functions are defined in the common area, the
test vibrator will be activated during a specified time (timer 26, delay) (normally
45 s). After or during this time the detector must give an alarm signal. If not, the
detector will automatically be shown in the display as a detector with fault. The
time-out for the seismic test follows the timer 26. The test must be stopped by
pressing the - key after the 45 s.
☛
4-22
The detectors that are tested must be in unset condition.
91000601
Menu 33:
Battery test
Fig. 4.28 Example of Menu 33: Battery test.
This test requires at least a manager code (P1). When the test is started, the
battery charging circuit is disconnected for 15 s, and the complete installation is
supplied from the battery voltage. 1 s later the battery condition is displayed (OK or
FAULT). This procedure is repeated each 16 s until auto-clear (2 min.) or until the
- key is pressed, after which Menu 33 appears again. A battery fault message is
not allowed reset until the battery condition is normal (OK).
Menu 34:
Zone test
Fig. 4.29 Example of Menu 34: Zone test.
This test requires at least a manager code (P1). By entering a zone number (01 to
16) within the common code/keypad area, this zone is transferred to a test state.
During this test, the normal alarm reaction is blocked - instead an "alarm condition"
is indicated by activating output type ENTRY/EXIT for 5 s. (programmable) and the
internal buzzer for approx. 1 s. All input activations may be repeated and are listed
in the event log. Hold-up, tamper and fire detectors are not to be tested, an
activation results in a normal alarm reaction. In order to select another zone, the
number is just overwritten or the - key pressed to bring the next zone forward.
The test is unlimited in time, but may be stopped by the - key, in which case
Menu 34 appears again.
Menu 35:
Input test
Fig. 4.30 Example of Menu 35: Input test.
This test requires the engineer code (P4) to be used and the system in Service
mode. When a 3-digit address is entered, the input is transferred to a test state.
During this test, the normal alarm reaction is blocked - instead an "alarm condition"
is indicated by activating the output ENTRY/EXIT for 5 s. (programmable) and the
91000601
4-23
internal buzzer for approx. 1 s. All input activations may be repeated and are listed
in the event log. Status of S-ART inputs are displayed and updated each 5 s as
follows:
0 = quiet
1 = alarm
2 = sabotage
3 = sabotage and alarm
4 = no communication
5 = parity fault
In order to select another detector (incl. hold-up, tamper and fire), the number is
just overwritten or the - key pressed (next number). The test is unlimited in
time, but may be stopped by the - key, in which case Menu 35 appears again.
A programmed or a non-programmed input address can be tested by this menu.
☛
Menu 36:
Output test
This menu can only be called on one Terminal at a time.
Fig. 4.31 Example of Menu 36: Output test.
Choice of output
This test requires a master manager code (P2) or the engineer code (P4) to be
used. By entering a 3-digit output number, this is activated. In order to select
another output, the number is just overwritten or the - key pressed (next
number). The test is unlimited in time, but may be stopped by the - key.
Menu 37:
Printer test
Fig. 4.32 Example of Menu 37: Printer test.
This test requires at least a manager code (P1). The character set of the printer is
printed-out.
By means of the - key, printing is stopped and a return to Menu 37 is made.
4-24
91000601
Menu 38:
Bell test
Fig. 4.33 Example of Menu 38: Bell test.
This test requires at least a manager code (P1). It is performed within the common
code/keypad area. Bell and strobe outputs are activated - output type 01.
By means of the - key, the test is stopped and a return to Menu 38 is made.
91000601
4-25
4.5
Submenu 4 - Programming
This section describes the menus and displays of submenu 4 used for
programming the system.
Menu 41:
Date and time
Fig. 4.34 Example of Menu 41: Date and time.
Correction of date
Correction of time
This function requires at least a manager code (P1). The date is corrected by
typing year, month and day. When the last digit is entered, the time automatically
appears in order to adjust it by typing hours and minutes. If the date is not to be
changed, the time is displayed by pressing the - key, which is also used to
return to the date. The date and time is not corrected until the - key is pressed,
upon which the seconds are reset; the picture remains. By means of the - key, a
return to Menu 41 is made.
Menu 42:
Change of code
Fig. 4.35 Example of Menu 42: Change of code.
Code input
Code choice
A manager (P1) is allowed to change his own code and operator codes (P0)
within his own area. A master manager (P2) is allowed to change all P0 - P2
codes. An engineer (P4) is allowed to change all P3 - P4 codes. Alarm patrol
personnel (P3) are not allowed to change any codes. 6 new digits are entered
(displayed as ******) and the - key is pressed to store the new value. If the
resemblance of the new code is to big to existing codes (4 digits alike at the
same positions), it is refused - indicated by the internal buzzer being activated
for a short time and by the display remaining unchanged. If the new code is
accepted, the next code with the same or lower priority is selected. By using the
- key, no programming is made; instead the next element is brought forward
by using the - key, or a jump to another element is performed by typing the
number. By using the - key at any time, a return to Menu 42 is made.
A code may be blocked (unacceptable) by changing it to 000000, which is
always possible no matter the rules concerning resemblance.
4-26
91000601
A code, the last digit of which is 9, has no hold-up code function, which is
defined as code + 1 (i.e. one added to the last digit).
Upon CPU-reset, an engineer code (P4) of 654321 or a master manager code
(P2) of 123456 is always usable for one operation - until first coming log-out.
Menu 43:
Zone names
Fig. 4.36 Example of Menu 43: Zone names.
Name typing
This function requires the engineer code (P4) to be used, printer to be
connected and Service mode. Each zone may be given a name (max. 10
characters - default zone 01, zone 02 etc.) by typing the 2-digit decimal value of
standard ASCII-characters corresponding to the table below. By doing so, the
characters appears at once in the upper line - one by one - beginning to the left.
The zone name is updated, when the - key is pressed, after which the next
zone is displayed. By using the - key, no programming is made; instead the
next element is brought forward by using the - key or a jump to another
element is performed by typing the number.
The - key can be used to move the cursor to the wanted place without
changing the characters.
In case the name should remain unchanged, the
appears again. Auto-clear time is 10 minutes.
- key is used and Menu 43
Table of printable ASCII-characters
Value Character Value Character Value Character Value Character
00
01
02
03
04
05
06
07
32
33
34
35
36
37
38
39
40
91000601
→
Æ
Ö
Å
↓
Space
!
“
#
$
%
&
'
(
41
42
43
44
45
46
47
48
49
50
51
52
53
54
55
56
57
)
*
+
,
.
/
0
1
2
3
4
5
6
7
8
9
58
59
60
61
62
63
64
65
66
67
68
69
70
71
72
73
74
:
;
<
=
→
?
@
A
B
C
D
E
F
G
H
I
J
75
76
77
78
79
80
81
82
83
84
85
86
87
88
89
90
K
L
M
N
O
P
Q
R
S
T
U
V
W
X
Y
Z
4-27
Menu 44:
Area-zone relation
Fig. 4.37 Example of Menu 44: Area-zone relation.
Zone selection
Area selection
connected and Service mode. First decide whether the area should be logical by
typing "1" in the upper line (L:1) or physical by typing "0" (L:0). After having done
so, the cursor jumps to the lower line. By typing "1" here, the zone displayed by
the upper line (zone 01 to the left - zone 16 to the right) belongs to the area, by
typing "0", it does not. By pressing the - key, the new value is stored and the
next element appears. By using the - key, no programming is made; instead
the next element is brought forward by using the - key or a jump to another
element is performed by typing the number. By using the - key at any time, a
return to Menu 44 is made. Auto-clear time is 10 minutes.
Menu 45: Code-area
relation
Fig. 4.38 Example of Menu 45: Code-area relation.
Area/priority
Code choice
connected and Service mode. The area, to which the code belongs, is typed as
a 3-digit figure (001 to 250) and the code priority is defined by one digit (0 =
normal operator code, 1 = normal manager code, 2 = master manager code, 3 =
alarm patrol code and 4 = engineer code). By pressing the - key the new
value is stored and the next element appears. By using the - key, no
programming is made; instead the next element is brought forward by using the
- key or a jump to another element is performed by typing the number. By
using the - key at any time, a return to Menu 45 is made. Auto-clear time is 10
minutes.
4-28
91000601
Menu 46:
Detector names
Fig. 4.39 Example of Menu 46: Detector names.
Name typing
connected and Service mode. A detector name list of 254 elements may be
filled out (max. 16 characters) by typing the 2-digit decimal value of standard
ASCII-characters corresponding to the table below. By doing so, the characters
appears at once in the upper line - one by one - beginning to the left. The
detector name is updated, when the - key is pressed, after which the next
element is displayed. By using the - key, no programming is made; instead
element is performed by typing the number.
The - key can be used to move the cursor to the wanted place without
changing the characters.
In case the name should remain unchanged, the
appears again. Auto-clear time is 10 minutes.
- key is used and Menu 46
Table of printable ASCII-characters
Value Character Value Character Value Character Value Character
00
01
02
03
04
05
06
07
32
33
34
35
36
37
38
39
40
→
Æ
Ö
Å
↓
Space
!
“
#
$
%
&
'
(
41
42
43
44
45
46
47
48
49
50
51
52
53
54
55
56
57
)
*
+
,
.
/
0
1
2
3
4
5
6
7
8
9
58
59
60
61
62
63
64
65
66
67
68
69
70
71
72
73
74
:
;
<
=
→
?
@
A
B
C
D
E
F
G
H
I
J
75
76
77
78
79
80
81
82
83
84
85
86
87
88
89
90
K
L
M
N
O
P
Q
R
S
T
U
V
W
X
Y
Z
A list of 254 preprogrammed names is available after a reset of the RAM memory.
The list of names can be seen by making a print-out of the Set-up. All preprogrammed names can be changed if needed.
91000601
4-29
Menu 47:
Input set-up
Fig. 4.40 Example of Menu 47: Input set-up.
connected and Service mode. The zone ZZ, to which the input belongs, is typed
as a 2-digit figure (01 to 16), the input type TT as a 2-digit figure according to the
list below, the detector name NNN as a 3-digit figure according to a free
programmable detector name list and the attributes are selected by entering a 0
(not present) or a 1 (present) below I (isolation allowed), S (soak test), C (Invert)
and D (double knock). By pressing the - key, the new value is stored and the
next element appears. By using the - key, no programming is made; instead
element is performed by typing the number. By using the - key at any time, a
return to Menu 47 is made. Auto-clear time is 10 minutes.
The input soft types are described in detail in Section 1.5.2 and include:
4-30
Type
Description
Type
Description
00
Not defined
18
Fire Alarm
01
Normal Night
19
Beam Pair 1
02
Seismic Alarm
20
Beam Pair 2
03
24h
21
Shock Count
04
Entry Route
22
Hold-up 2
05
Bypass Unit
23
Local Perimeter Detection
06
Normal Night 2h
24
Follow Me
07
Tamper
25
Set/Unset Zone Pulse
08
Night Deposit Box
26
Set/Unset Zone Level
09
Hold-up 1
27
Set/Unset Area Pulse
10
Technical/Film Counter
28
Set/Unset Area Level
11
Technical 1
29
Alarm Reset
12
Technical 2
30
24 h Seismic
13
System Fault 1
31
Night Deposit Box 2
14
System Fault 2
32
Vindicator Lock
15
System Fault 3
33
High Security – Entry Door
16
System Fault 4
34
Anti-mask
17
Key Storage Box
35
Primary Transmission Fault
91000601
Menu 48: Output
zone/type
Fig. 4.41 Example of Menu 48: Output zone/type.
Output programming
Output choice
connected and Service mode. The zone, to which the output belongs, is typed
as a 2-digit figure (01 to 16 or 00 = common output) upon which the cursor
jumps to the second line, where 2 digits, defining the type of the output
according to the list below, are entered. By pressing the - key, the new value
is stored and the next element appears. By using the - key, no programming
is made; instead the next element is brought forward by using the - key or a
jump to another element is performed by typing the number. By using the
- key at any time, a return to Menu 48 is made. Auto-clear time is 10 minutes.
The output types are described in detail in Section 1.6.2 and include:
General purpose outputs
91000601
Signalling outputs
Type
Description
Type
Description
00
Not defined
32
Set/Unset Area
01
Common Alarm
33
Intrusion
02
Tamper Alarm
34
Tamper
04
Seismic Alarm
35
More than One Alarm
05
Local Shock Count Alarm
36
Seismic Alarm
06
Set/Unset (Zone)
37
External Shock Count Alarm
07
Hold-up Alarm
38
Set/Unset
08
More Than One Hold-up Alarm
39
Hold-up/Duress
09
Technical Alarm 1
40
Duress
10
Technical Alarm 2
41
Technical 1
12
System Fault
42
Technical 2
14
Local Alarm
43
Transmission Test 1
16
SW. Power
44
Trouble
17
Entry/Exit
45
1h Mains Fault
18
Set/Fault
46
Fire Alarm
19
Test
47
Isolation
20
Fire Reset
48
CPU-Reset
21
Fire Alarm
49
Transmission Test 2
22
Glass Break
23
Perimeter 1st Detector
24
Follow Input
25
Local Alarm Function
26
Auto-Set Prewarning
27
Perimeter 2nd Detector
29
Common Alarm 2
4-31
Menu 49: Timer set-up
Fig. 4.42 Example of Menu 49: Timer set-up.
Time-delay/duration
Timer type
Timer choice
connected and Service mode. 3 digits describing the time setting in seconds are
to be entered. Time-duration = 000 means, that the output is not activated at all,
while 999 means no time-limitation. The maximum time-delay is 254 s.
Using the - key makes it possible to select one of 7 timer types: "1" = normal
function, "2" = inverted function (output normally ON), "3" = 30 ms cannot be
used, "4" = output alternating 0.5 Hz during time-duration, "5" = like 4, but with
inverted function (output normally ON), "6" = output alternating 0.25 Hz during
time-duration and "7" = like 6, but with inverted function (output normally ON).
The timer is updated, when the - key is pressed, upon which the next timer
appears. By using the - key, no programming is made; instead the next
element is brought forward by using the - key or a jump to another element is
performed by typing the number. By using the - key at any time, a return to
Menu 49 is made. Auto-clear time is 10 minutes.
The timer types are described in detail in Section 1.8 and include:
4-32
No.
Description
No.
Description
1
24
Double Knock time window
2
25
Test time for Normal Night
3
Glass Break Reset timer
26
Timer for inhibition of Night Deposit Box
4
Timer for Input test and Zone test
27
Beam Pair time window
5
Timer for automatic set and isolation
28
Timer for Transmission Test 1
6
Time before Mains Fault indication
29
Automatic Set Pre-warning Time duration
7
Freely allocable to output types
30
Soak test duration
8
31
Exit Time for Zone 1 – 16
9
32
10
33
11
34
12
35
13
36
14
37
15
38
16
Automatic Seismic test timer
39
17
Transmission test 2
40
18
Timer for Autoset Function 7
41
19
Max. time before 2nd perimeter output
42
20
Time window for Shock count
43
21
Key storage box timer
44
22
Technical/film counter timer
45
23
Auto Alarm Reset timer for Alarm Function
46
91000601
Menu 50:
Enable service mode
Fig. 4.43 Example of Menu 50: Enable service mode.
This function is selected by typing "50" and requires a manager code (P1) or the
engineer code (P4) to be used. By answering NO ( - key), Menu 10 appears. If
the manager code (P1) is used, answering YES ( - key) allows the engineer
code (P4) to be used for one time only (until first-coming log-out following
engineer code usage) and Menu 51 appears. In case alarm/fault messages are
present and have been so for at least 2 minutes, the engineer code (P4) may
still be used. If the engineer code (P4) is used, answering YES ( - key) brings
the system into service mode allowing for time-unlimited use of this engineer
code (P4) until service mode is reset by typing 51 (all codes are allowed to do
so). After having entered the service mode, Menu 51 appears. Service mode is
indicated by a pseudo-fault message being displayed and a transmission output
"Trouble" being activated (both automatically reset by typing 51) and prevents
alarm conditions from activating the external strobe and bells (Output soft type
01 and 29).
Common alarm/fault reset can be performed by pressing the
using a P2-P4 code.
Menu 51:
Disable service mode
- key in Menu 50
Fig. 4.44 Example of Menu 51: Disable service mode.
This function is selected by typing "51", which is allowed using any code priority. By
answering NO ( - key), Menu 10 appears. By answering YES ( - key), the
engineer code is no more allowed to be used and service mode (if present) is
reset, indicated by the pseudo-fault message disappearing automatically, upon
which Menu 10 appears. In case alarm/fault messages are present and have been
so for at least 2 minutes, the engineer code may still be used.
Menu 52:
Options
91000601
Fig. 4.45 Example of Menu 52: Options.
4-33
In Menu 52, you can program a number of system options as shown below.
Fig. 4.46
Overview of functions of option bit 1 to option bit 16.
Option bit number: 16 15 14 13 12 11 10 9 8 7 6 5 4 3 2 1
Encrypted communication
Disable hold-up code
Integrated/distributed system
Industrial/bank set-up
Set-LED indication includes panel zones
Country selection
Real-time print on top bus
ITYP 04 setting fault
Disable alarm/fault buzzing
Disable P2 users to clear tamper alarms
Enable setting fault for battery/mains fault
Auto-alarm reset on hold-up detectors
Allow only P4 users to correct clock
Special bank features
Fig. 4.47
Overview of functions of option bit 17 to option bit 24.
Option bit number: 24 23 22 21 20 19 18 17
Special area setting/unsetting menu
Anti Hostage feature and other special features
Unused
Unused
Unused
Unused
Unused
Unused
The following table describes the functions that can be enabled or disabled by
the setting of the option bits. Regarding the Option bits 9, 10 and 11, please
refer to the section below the table.
Bit
1
2
3
4
Function
0
Special bank features enabled. These features comprise zone and detector
names added to the PC-event mail, auto-arm pre-warning using the buzzer of
Remote Keypads and Access Control Terminals is included with the auto-arm
zones. Auto-arm pre-warning starts 20 minutes before the auto-arming.
1
Special bank features disabled.
0
Allow only P4 users to correct clock enabled. P3 and P2 users may correct with ±2 min.
1
Allow only P4 to users to correct clock disabled.
0
Auto-alarm reset on hold-up detectors disabled.
1
Auto-alarm reset on hold-up detectors enabled.
0
Setting fault for battery/mains fault enabled.
1
Setting fault for battery/mains fault disabled.
Continued …
4-34
91000601
Bit
Function
0
The P2 user is able to delete tamper alarms.
1
The P2 user cannot delete tamper alarms (only P3 and P4 users).
0
The terminal buzzer will be activated in case of alarm or fault (if not in service mode).
1
The terminal buzzer is disabled in case of alarm or fault. Entry/exit buzzer will
always work.
0
Input soft type 04 (entry/exit route detectors) will not give a set fault if the
detector is active when a set command is performed. When the exit time is
running out and the detector is still active an alarm will be created.
1
Input soft type 04 (entry/exit route detectors) will give a set fault if the detector is
active when a set command is performed.
0
Print-out will be done on the printer installed on the same bus as the central unit.
1
Print-out will be done on the printer installed on the top bus 00.
9
-
See the section: Option bits 9, 10, 11 on the next page
10
-
11
-
12
0
The LED is active when the zones corresponding to the user area are physically
set. The LED is OFF if the zones are unset or partly set.
1
The LED is active when the zones included in the Panel - Zone programming is
physically set. The LED is OFF if the zones are unset or partly set.
0
Bank set-up
P0, P1 and P3 users are not allowed to unset zones included in "auto set areas"
until such zones are released for unsetting by the auto set function. This means,
that if they set their own area during business hour before the normal auto-set
period, they are not able to unset it again.
During auto set, automatic isolation is not allowed. In case of active detectors,
forced setting is performed and an alarm condition is released. This is also the
case if forced setting is carried out during manual setting - by pressing the closed
lock key instead of the open lock key, when the setting fault list comes up.
1
Normal industrial set-up
0
Option 14 is used for selecting whether the system operates as independent
subsystems or as one large system. When the option bit is 0, the keypad
displays alarm/fault/isolation messages within the complete system, no matter
which code is used for log-on. The alarm/fault lamps of the keypads reflect the
status of the keypad-area. Resetting of alarm/fault messages is still allowed
within the code area only. (single site)
1
When the option bit is "1", the keypads display only alarm/fault/isolation messages
within the area of the intruder code. The alarm/fault lamps reflect the status of the
keypad-area only, independent of the code priority used. (multi-sub sites)
0
Hold-up code function enabled (code + 1 except from codes with 9 as the last digit)
1
The hold-up code function is disabled
0
Non-encrypted communication
1
Encrypted communication.
5
6
7
8
13
14
15
16
17 - 22
23
24
91000601
Unused
0
Anti-hostage function and associated functions are disabled
1
Anti-hostage functions and associated functions are enabled. See also Section 1.12
0
Normal setting/unsetting procedure.
1
Special area setting/unsetting menu. See the section: Option bit 24 on the next page.
4-35
Option bits 9, 10, 11
Two different EPROM's exist for the 95T/90T CU-30): EU1-078.xxxx.xxx and
EU2-078.xxxx.xxx.
The difference between the EU1 and the EU2 versions is which languages they
are supporting. The different languages are shown in the following table:
EU1-078.xxxx.xxx
EU2-078.xxxx.xxx
11
10
9
version
version
0
0
0
English (load default)
English (load default)
0
0
1
English
English
0
1
0
Dutch
Czech
0
1
1
Swedish
German
Option bit
1
0
0
Norwegian
Portuguese
1
0
1
Spanish
Russian
1
1
0
Danish
Italian
1
1
1
French
Polish
Option bit 23
See Section 1.12 for more information about the anti-hostage functions and associated
functions.
Option bit 24
The special area setting/unsetting procedure used on an 95T RKP is activated
when option bit 23 is set to 1. The procedure is described below:
1.
Enter the 6-digit code. The display will indicate AREA SET (as normal)
2.
Press the Unset button. The display will indicate AREA NO.: _ _ _
3.
Enter the required area number.
The area with the number entered can only be unset if all zones in the
area belongs to the area of the current user, then only the zones that
are common for both the user and the area will be unset.
The display will now indicate for example AREA005 UNSET, if all zones
belong to the user.
The special area setting procedure used on an 95T RKP corresponds to the
above procedure. If a setting fault occurs, it is possible to isolate as normal.
Site code
In Menu 52, you can also program a site code. This site code is specially used in
connection with an IMS management system, where the IMS software also is
programmed with a site code. Only if the two site codes are identically, it is
possible to communicate between the PC and the Intrusion system.
If a Thor Access Control System is connected to the Intrusion System, this site
code will automatically be programmed with the site code from the access cards
after a CPU reset and at least one reader initialized.
4-36
91000601
Menu 53:
Output type/timer
Fig. 4.48 Example of Menu 53: Output type/timer.
This function requires the engineer code (P4) to be used, printer to be connected
and Service mode. The timer allocated to an output type is displayed by pressing
the - key or by overwriting the output type number. By overwriting the 4-digit
output type number, a menu allowing for changing the allocated timer by
overwriting the 2-digit number (01 - 48) appears. By pressing the - key, the new
value is stored and the next output type appears. The first 2 digits of the output
type represents the zone relationship (00 to 16 or 99, where 00 means the
complete installation, while 99 means, that all output types 00yy to 16yy makes
use of the selected timer), and the next 2 digits represents the output type itself. By
using the - key at any time, a return to Menu 53 is made. Auto-clear time is 10
minutes.
Menu 54:
Keypad-zone relation
Fig. 4.49 Example of Menu 54: Keypad-zone relation.
This function requires the engineer code to be used, printer to be connected and
Service mode. By typing "1", the zone displayed by the upper line (zone 01 to
the left - zone 16 to the right) belongs to the operating keypad, by typing "0", it
does not. Keypad 00 is the main control unit, while keypad 01 to 31 are remote
operating keypads, readers etc. By pressing the - key, the new value is stored
and the next element appears. By using the - key, no programming is made;
instead the next element is brought forward by using the - key or a jump to
another element is performed by typing the number. By using the - key at any
time, a return to Menu 54 is made. Auto-clear time is 10 minutes.
Only zones common to the keypad and the code used are allowed set/unset.
☛
91000601
Please note that Keypad 00 cannot be present.
4-37
Menu 57:
Alarm functions
During the establishment or modification of an expression, it is checked, that valid
figures are used for all fields. The validity of each individual input field and the
operand to the right is checked, when the operand is selected (or passed by
means of the alarm reset key). The validity of the output field including timer
allocation is checked, when the timer is selected (or passed by means of the alarm
reset key). In case of invalidity, a return to the first digit of the input field (or output
field) takes place leaving this part of the expression unchanged.
Fig. 4.50 Example of Menu 57: Alarm Functions.
The validity of a complete expression is checked when it is stored by means of
the - key. In case of invalidity - inconsistency between input field and operand
- the complete expression is returned unchanged.
The keys of the keypad have the following functions:
Performs a jump back to the alarm functions select menu
leaving the expression, in which it was pressed, unchanged.
Performs a jump from the first window (first ½ expression) to
the next window (second ½ expression) and further on to the
general new number select menu.
Is used to store the expression in either one of the two
windows.
Is used as logical OR operand. Can also be used to move the
cursor from one operand to the next (will leave the input field as
000) to come to the Output address field. If the key is used
within an input field, the operand to the right is changed
accordingly and a jump to the first digit of the next input field
(or back to the first input field - within the first ½ expression
window only) takes place.
4-38
91000601
Is used as logical AND operand. Can also be used to move the
cursor from one operand to the next (will leave the input field as
000) to come to the Output address field. If the key is used
within an input field, the operand to the right is changed
accordingly and a jump to the first digit of the next input field (or
back to the first input field - within the first ½ expression window
only) takes place.
Makes the cursor step one position to the right and back to the
first digit within each window (½ expression).
Numerical keys (0 to 9) are used for entry of numbers in input
fields or in output/timer fields only. If they are used in an
operand field, a jump back to the first digit of the input field to
the left occurs.
Menu 58:
Adjust Clock
Only available in connection with 90T CU-30 and 95T CU-30.
It is possible to correct the clock, if it goes to fast or too slowly. It can be corrected
with max. +/- 999 seconds per week. Applies only to hardware without RTC-clock.
Fig. 4.51 Example of Menu 58: Adjust Clock.
The first digit of the correction factor
indicates + or -, where 0 = - and 1 = +.
Menu 59:
Reset
This menu is used for resetting the CU from the keypad. When the menu is
activated then the output type 48 (CPU reset) is activated for 5 s before the reset
takes place. Only P4 codes are allowed to use this menu and the CU must be in
service mode.
Fig. 4.52 Example of Menu 59: Reset.
91000601
4-39
4.6
Autoset programming
Priority 2 and Priority 4 codes can use the Auto Set programming menus. The
programmed times can be printed out by Menu 28, Print Setup.
Menu 55: Edit area
week programs
This function is used to create, change or delete a week program for an area. A
week program has 7 normal days (Monday = day1) and two special days (day 8
and day 9) referring to the holiday list.
Fig. 4.53 Example of Menu 55: Edit area week programs.
One digit is keyed in for the area number 1- 8, for which this week program is
programmed. After that day1 is displayed with the starting time 00:00. The first
period will then be from 00:00 to xx:x0 where x is keyed in. The xx:x0 time will
after automatically be transferred to the starting time of the next period for
day1 to avoid that the user makes a time program with holes or overlapping
times. One day is finished when 24:00 is programmed for the end-time and the
next day2 is shown in the display. If the - key is used in this position a copy of
the day before will be made for this day.
If one of the menus is left by the - key, the programming of time programs is
left without storing the data for this week program (area) number.
By keying in 00:00 to 00:00 the week program is deleted.
It is possible to program in 10 minutes intervals. That means that it is only
necessary to key in 3 digits. The last digit is always 0.
The FNC field is programmed with the function for the area. One of the following
functions can be allocated to the time periods for area week time program.
4-40
FNC 1
Setting the area at the beginning of the period or setting at the end of the period
if delay has been requested from one of the Remote keypads. Delay can only be
requested once
FNC 2
Setting the area at the beginning of the period.
FNC 3
Setting the area at the beginning of the period and enabling manual unsetting at
the end of the period.
FNC 4
Unsetting the area at beginning of the period.
FNC 5
No change.
FNC 6
At the beginning of the period and each 10 minutes in the period, it is verified that
the area is set. If the area is not set, an alarm is generated on an input address
corresponding to the area number. There is no reaction if the area is set.
91000601
It is possible to delay the function in the pre-warning period. If this is the case, the
verification will only take place at the end of the period.
FNC 7
When the function becomes active and the area is unset, then a timer is started
(timer 18 –duration in minutes) and when the timer expires, the area is
automatically set. 10 minutes before the automatic setting the pre-warning
output type is activated, as normal.
If the area is unset when the function is active, the timer will be started as
above.
It is possible to delay the automatic setting (when the pre-warning is active) by
means of Menu 14. The setting is then delayed for the programmed time (Timer
18 – delay in minutes).
FNC 8
FNC 9
FNC 10
Allows manual unsetting at the start of the period. If the area is not unset at the
end of the period, the area+1 is set automatically.
FNC 11
Allows manual setting and unsetting at the start of the period, but only when the
area is unset when the period starts.
Menu 56: Edit
holiday list
Fig. 4.54 Example of Menu 56: Edit holiday list.
This function is used to create a holiday list that refers to the above programmed
week programs for the day8 and day9.
The list has max. 25 periods where start date and end date are programmed for
each period. A period includes the start date and end date.
91000601
4-41
4-42
91000601
Denmark
United Kingdom
France
Netherlands
HI SEC International
Marielundvej 16
DK- 2730 Herlev
Denmark
4B Victoria Avenue
Camberley Surrey GU15 3HX
United Kingdom
ZAC de Nanteuil
12, rue Jules Ferry
F-93561 Rosny sous Bois
France
Populierendreef 968B
NL-2272 HW Voorburg
Holland
Tel.: +45 44 50 78 00
Fax: +45 44 50 78 01
E-mail: dk @ hisec.com
Tel.: +44 (0) 1276 679 950
Fax: +44 (0) 1276 679 949
E-mail: gb @ hisec.com
Tel.: +33 (0) 1 48 12 90 10
Fax: +33 (0) 1 48 12 90 20
E-mail: fr @ hisec.com
Tel.: +31 (0) 70 386 1103
Fax: +31 (0) 70 387 4095
E-mail: nl @ hisec.com
Spain
Germany
USA
C/. Ávila, 48-50
3° Planta, local G-H
E-08005 Barcelona
Spain
Westerholtstraße 6
D-46119 Oberhausen
Germany
6829 K Avenue,
Suite 101
Plano, TX 75074
USA
Tel.: +34 93 300.46.95
Fax: +34 93 485.60.78
E-mail: hisec @ ciberset.com
Tel.: +49 (0) 208 - 611193
Fax: +49 (0) 208 - 6290299
E-mail: ghr @ hisec.com
Tel.: +1 (972) 509 7744
Fax: +1 (972) 509 0144
E-mail: jje @ hisec.com

Thor Intrusion System

Transcription

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