the document the recipient acknowledges these rights and undertakes not to
publish the document nor the subject thereof in full or in part, nor to make them
available to any third party without our prior express written authorization, nor to
use it for any purpose other than for which it was delivered to him.
Edition: 01.05.2016
Document ID: A6V10276959
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Table of contents
1 Meaning of symbols ......................................................................................... 11
23.25 ATP Category Timings ..................................................................................... 363
Meaning of symbols
1
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Symbol
Description
Not available for SPC42xx, SPC43xx.
Only available for SPC controller with IP interface
(SPC43xx/SPC53xx/SPC63xx).
Not available for installation type Domestic.
Only available in unrestricted mode.
Find further information about Security Grade, Region or Mode in text.
See Appendix for further information.
SPC4xxx
IP
!
!
1 Meaning of symbols
There are several symbols in the document:
2
Security
Target group
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Target readers
Qualification
Activity
Condition of the
equipment
Installation personnel
Technical training for
building or electrical
installations.
Assembles and
installs the hardware
components on site.
Individual
components that
need to be
assembled and
installed.
Operational startup
personnel
Has appropriate
technical training with
regard to the tasks
and the products,
devices or systems
to be put in service.
Puts the device or
system which is
readily assembled
and installed on site
into service.
New, readily
assembled and
installed device or
modified device.
WARNING
Before starting to install and work with this device, please read the Safety
Instructions. This device shall only be connected to power supplies compliant to
EN60950-1, chapter 2.5 ("limited power source").
2 Security
2.1 Target group
The instructions in this documentation are directed at the following target group:
2.2 General safety instructions
2.2.1 General information
Keep this document for later reference.
Always pass this document on together with the product.
Please also take into account any additional country-specific, local safety
standards or regulations concerning project planning, operation and disposal of
the product.
Liability claim
Do not connect the device to the 230 V supply network if it is damaged or any
parts are missing.
Do not make any changes or modifications to the device unless they are
expressly mentioned in this manual and have been approved by the
manufacturer.
Use only spare parts and accessories that have been approved by the
manufacturer.
2.2.2 Transport
Unit damage during transport
Keep the packaging material for future transportation.
Do not expose the device to mechanical vibrations or shocks.
Security
2
General safety instructions
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2.2.3 Setup
Radio interference with other devices in the environment / EMS
When handling modules that are susceptible to electrostatic discharge, please
Damage due to unsuitable mounting location
The environmental conditions recommended by the manufacturer must be
Do not operate the device close to sources of powerful electromagnetic
Danger of electrical shock due to incorrect connection
Connect the device only to power sources with the specified voltage. Voltage
Ensure that the device is permanently connected to the electricity supply; a
Ensure that the circuit that the device is connected to is protected with a 16 A
This device is designed to work with TN power systems. Do not connect the
Electrical grounding must meet the customary local safety standards and
Primary supply cables and secondary cables should be routed such that they
Telephone cables should be fed into the unit separately from other cables.
observe the ESD guidelines.
observed.
See Technical Data.
radiation.
supply requirements can be found on the rating label of the device.
readily accessible disconnect device must be provided.
(max.) fuse. Do not connect any devices from other systems to this fuse.
device to any other power systems.
regulations.
do not run in parallel or cross over or touch one anther inside the housing.
Risk of cable damage due to stress
Ensure that all outgoing cables and wires are sufficiently strain-relieved.
2.2.4 Operation
Dangerous situation due to false alarm
Make sure to notify all relevant parties and authorities providing assistance
before testing the system.
To avoid panic, always inform all those present before testing any alarm
devices.
2.2.5 Service and maintenance
Danger of electrical shock during maintenance
Maintenance work must only be carried out by trained specialists.
Always disconnect the power cable and other cables from the main power
supply before performing maintenance.
Danger of electrical shock while cleaning the device
Do not use liquid cleaners or sprays that contain alcohol, spirit or ammonia.
2
Security
Meaning of written warning notices
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2.3 Meaning of written warning notices
Signal Word
Type of Risk
DANGER
Danger of death or severe bodily harm.
WARNING
Possible danger of death or severe bodily
harm.
CAUTION
Danger of minor bodily injury or property
damage
IMPORTANT
Danger of malfunctions
WARNING
Warning of hazard area
WARNING
Warning of dangerous electrical voltage
2.4 Meaning of hazard symbols
Directives and standards
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EU directives
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emc emission
EN 55022 Class B
emc immunity
EN 50130-4
Safety
EN 60950-1
Address of Certifying Body
VDS (VDS A / C / EN / SES Approval)
AG Köln HRB 28788
Sitz der Gesellschaft:
This product complies with the requirements of the European Directives
2004/108/EC “Directive of Electromagnetic Compatibility”, 2006/95/EC “Low
Voltage Directive”, and1999/5/EC on Radio and Telecommunications Terminal
Equipment (R&TTE). The EU declaration of conformity is available to the
responsible agencies at http://pcd.vanderbiltindustries.com/doc/SPC
European Directive 2004/108/EC „Electromagnetic Compatibility”
Compliance with the European Directive 2004/108/EC has been proven by testing
according to the following standards:
European Directive 2006/95/EC „Low-Voltage Directive”
Compliance with the European Directive 2006/95/EC has been proven by testing
according to the following standard:
3.1.1 Overview of Conformity to EN50131 Standard
This section gives an overview of the SPC compliance to the EN50131 standard.
SPC products listed have been tested according to EN50131-3:2009 and all
relevant RTC specifications.
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Product Type
Standard
SPC5320.320
SPC4320.320
SPCP332.300
EN50131 Grade 2
EN50131 Requirement
SPC Installation & Configuration Manual
Operating temperature and humidity range
Technical data SPC4000 [➙ 31]
Technical data SPC5000 [➙ 32]
Technical data SPC6000 [➙ 35]
Weights and dimensions
Technical data SPC4000 [➙ 31]
Technical data SPC5000 [➙ 32]
Technical data SPC6000 [➙ 35]
Fixing details
Mounting system equipment [➙ 40]
Installation, commissioning and
maintenance instructions, including terminal
identifications
Mounting system equipment [➙ 40]
Controller hardware [➙ 66]
Type of interconnections (refer to 8.8);
Technical data SPC4000 [➙ 31]
Technical data SPC5000 [➙ 32]
Technical data SPC6000 [➙ 35]
Wiring the X-Bus Interface [➙ 72]
Details of methods of setting and unsetting
possible (see 11.7.1 to 11.7.3 and Tables 23
to 26);
User programming via the keypad
Areas – Setting/Unsetting [➙ 243]
Configuring a keyswitch expander [➙ 207]
Configuring a wireless fob [➙ 106]
Triggers [➙ 255]
Serviceable parts
Technical data SPC4000 [➙ 31]
Technical data SPC5000 [➙ 32]
Technical data SPC6000 [➙ 35]
Power supply requirement if no integrated
PS
See installation instructions for SPCP33x
and SPCP43x Expander PSUs.
Where PS is integrated, the information
required by EN 50131-6:2008, Clause 6
Technical data SPC4000 [➙ 31]
Technical data SPC5000 [➙ 32]
Technical data SPC6000 [➙ 35]
Maximum number of each type of ACE and
expansion device.
Wiring the X-Bus Interface [➙ 72]
Technical data SPC4000 [➙ 31]
Technical data SPC5000 [➙ 32]
Technical data SPC6000 [➙ 35]
Current consumption of the CIE and each
type of ACE and expansion device, with and
without an alarm condition.
See relevant installation instructions.
Maximum current rating of each electrical
output
Technical data SPC4000 [➙ 31]
Technical data SPC5000 [➙ 32]
Technical data SPC6000 [➙ 35]
Programmable functions provided
Engineer programming via the keypad
[➙ 110]
Engineer programming via the browser
[➙ 159]
Specific information in relation to EN50131 requirements can be found in the
following sections in this document.
Directives and standards
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EN50131 Requirement
SPC Installation & Configuration Manual
How indications are made inaccessible to
level 1 users when level 2, 3 or 4 user is no
longer accessing the information (see 8.5.1)
Keypad user interface [➙ 90]
Standard keypad settings [➙ 121] Comfort keypad settings [➙ 122]
Configuring an Indicator Expander [➙ 206]
Masking/reduction of range
signals/messages processed as “fault” or
“masking” events (see 8.4.1, 8.5.1 and Table
11);
System Options [➙ 222]
Wiring the zone inputs [➙ 83]
SIA Codes [➙ 337]
PIR masking is always reported as a zone
masked event (SIA - ZM). Additionally, antimask can cause an alarm, tamper, trouble
or no additional action depending on
configuration
Prioritization of signal and message
processing and indications (see 8.4.1.2,
8.5.3);
Standard keypad display [➙ 92]
Comfort keypad display [➙ 95]
Minimum number of variations of PIN codes,
logical keys, biometric keys and/or
mechanical keys for each user (see 8.3);
User PIN combinations [➙ 344]
Method of time-limiting internal WD for level
3 access without level 2 authorization (see
8.3.1);
Not supported - Engineer cannot access
system without permission.
Number and details of disallowed PIN codes
(see 8.3.2.2.1);
Automatic inhibits [➙ 345]
Details of any biometric authorization
methods used (see 8.3.2.2.3);
Not applicable
Method used to determine the number of
combinations of PIN codes, logical keys,
biometric keys and/or mechanical keys (see
11.6);
User PIN combinations [➙ 344]
Number of invalid code entries before user
interface is disabled (see 8.3.2.4);
Access PINs [➙ 345]
Details of means for temporary authorization
for user access (see 8.3.2);
User Menus – Grant Access
if automatic setting at pre-determined times
provided, details of pre-setting indication and
any automatic over-ride of prevention of set
(see 8.3.3, 8.3.3.1);
Areas – Setting/Unsetting [➙ 243]
Details of conditions provided for the set
state (see 8.3.3.4);
Setting and unsetting the system
Standard keypad configuration [➙ 121]
Comfort keypad configuration [➙ 122]
Outputs [➙ 198]
Zone types [➙ 347]
Notification of output signals or messages
provided (see 8.6);
Outputs [➙ 198]
Areas – setting/unsetting [➙ 243]
User rights [➙ 187]
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EN50131 Requirement
SPC Installation & Configuration Manual
Other output configurations to interface with
I&HAS components (see 8.2);
Outputs [➙ 198]
Zone types [➙ 347]
Test [➙ 145]
Keypad user interface [➙ 90]
Criteria for automatic removal of “soak test”
attribute (see 8.3.9);
Timers [➙ 230]
Number of events resulting in automatic
inhibit
Automatic Inhibits [➙ 345]
If ACE is Type A or Type B (see 8.7) and
whether portable or moveable (see 11.14);
All devices are hardwired and powered by
system PSUs. Refer to relevant technical
data on PSUs.
Component data for non-volatile memory
components (see Table 30, step 6);
See user documentation for SPCK420/421
and SPCK620/623 keypads.
Life of memory support battery (see 8.10.1);
N/A. Stored in non-volatile memory.
Optional functions provided (see 4.1);
Engineer programming via the keypad
Engineer programming via the browser
[➙ 159]
Additional functions provided (see 4.2,
8.1.8);
Grade - Unrestricted
Policies – System options [➙ 222]
Access levels required to access such
additional functions provided;
User configuration (keypad) [➙ 151]
User configuration (browser) [➙ 183]
Details of any programmable facility that
would render an I&HAS non-compliant with
EN 50131-1:2006, 8.3.13 or compliant at a
lower security grade, with instruction on
consequent removal of compliance labeling
(see 4.2 and 8.3.10).
SPC products listed have been tested according to EN50131-6, and all relevant
RTC specifications.
Directives and standards
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Product Type
Standard
SPC5320.320
SPC4320.320
SPCP332.300
EN50131-6
It is not possible to change the Region or Grade in SPC Pro. It is only possible to
change these settings in the browser or keypad.
3.1.2 Compliance with EN50131 Approvals
Software Requirements
In the Standards settings page, select Europe under Region to implement
EN50131 requirements.
Select Grade 2 or Grade 3 to implement the grade of EN50131 compliance.
The Wireless settings Prevent Setting Time and Device Lost Time must be set
to a value other than 0.
Select Synchronization Time with Mains under Clock settings to use mains as
clock master.
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DO NOT select the attribute Setting State in the Keypad configuration settings
for Visual indications.
Directives and standards
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Hardware Requirements
NOTICE
The SPCN110 PSTN module and SPCN130 GSM/GPRS module are tested with
EN50131 approved Grade 2 and Grade 3 panels and can be used with these
approved panels.
The back tamper kit (SPCY130) must be installed for panels and power
supplies for compliance with EN50131 Grade 3.
EN50131 Grade 3 compliant components must be installed for EN50131 Grade
3 compliant systems.
Either EN50131Grade 2 or 3 compliant components must be installed for
EN50131 Grade 2 compliant systems.
It is not possible to enrol a wireless device with a signal strength lower than 3.
The recommended ratio of wireless receivers to transmistters is no more than
20 transmitters for every one receiver.
Glassbreak must be used with an EN-compliant glassbreak interface.
To comply with EN50131-3:2009, do not set or unset the system using the
SPCE120 (Indicator Expander) or the SPCE110 (Keyswitch Expander).
3.1.3 Compliance with EN 50136-1:2012 and EN 50136-2:2014
SPC products listed have been tested according to EN 50136-1:2012 and EN
50136-2:2014.
3.1.4 Compliance with INCERT Approvals
Software Requirements
Selecting Belgium (*) under Region implements local or national requirements
which supercede EN50131 requirements.
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COMMS
NONE
PSTN
GSM
PSTN+GSM
Standby time
12 h
568 mA
543 mA
438 mA
413 mA
24h
214 mA
189 mA
84 mA
59 mA
30 h
143 mA
118 mA
13 mA
N/A
60h
2mA
N/A
N/A
N/A
Selecting Grade 2 or Grade 3 selects EN50131 compliance plus any additional
INCERT requirements:
Only an engineer can restore a tamper. For INCERT, this applies across all
grades.
This is normally only a requirement for Grade III En50131.
A tamper on an Inhibited / Isolated zone must be sent to an ARC and displayed
to the user.
For INCERT, tampers are processed for isolated zones. On all other standard
variations, tampers are ignored on isolated zones.
User PIN codes must be defined with more than 4 digits.
Hardware Requirements
The minimum battery capacity for SPC42xx/43xx/52xx/53xx/63xx is 10 Ah / 12
V. If a 10 Ah battery is used, then the battery is biased to the left of the cabinet
and the bottom flap is bent to meet the battery.
Fit jumper (J12) on the battery selector for 17/10 Ah battery use and remove for
7 Ah battery.
The amount of current from Aux output using a 10 Ah battery for
SPC42xx/SPC52xx is:
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The amount of current from Aux output using a 10 Ah battery for
SPCP355.300 Smart PSU with 8 Inputs / 2
Outputs Expander
SPCP333.300 Smart PSU with I/O
Expander
SPCN110.000 PSTN Module
SPCN310.000 GSM Module
PD 6662:2010
BS 4737-3.1:1977
BS 8243:2010
BS 8473:2006+A1:2008
BS EN 50131-1:2006+A1:2009
BS EN 50136-1-1:1998+A2:2008
BS EN 50136-1-2:1998
BS EN 50136-1-3:1998
BS EN 50136-1-5:2008
BS EN 50136-2-1:1998 +A1:1998
BS EN 50136-2-2:1998
BS EN 50136-2-3:1998
BS EN 50131-3:2009
BS EN 50131-6:2008
DD 263:2010
DD CLC/TS 50131-7:2008
3.1.5.3.1
SPC43xx/SPC53xx/ SPC63xx is:
3.1.5 PD 6662:2010 Conformance Guidelines
This appendix contains all the criteria for the installation, and commissioning and
maintenance of the SPC System to enable it to conform to the PD 6662:2010
Standard.
3.1.5.1 Product scope
The scope of this document is aimed at the following components of the SPC
system:
3.1.5.2 Standards overview
3.1.5.3 Methods for the completion of setting and unsetting
Methods of completion of setting (BS 8243:2010 - Clause 6.3)
Guidelines are provided for the implementation of PD 6662:2010 conformance for
an SPC system to the following relevant standards:
Completion/Termination of the full setting procedure is achieved by any of the
following methods:
a) Shunt lock fitted to the final exit door
A shunt lock must be installed by the installer as follows:
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4K7
Lock - NC, open when locked
Zone – EXIT TERMINATOR zone type
4K7
Tamper
3.1.5.3.2
An EXIT TERMINATOR zone type must be configured for SPC.
Refer to the following section in this manual:
Zone types [➙ 347]
b) Push button switch mounted outside the supervised premises
Connect the push button into an SPC zone input as follows:
An EXIT TERMINATOR zone type must be configured for SPC.
Refer to the following section in this manual:
Zone types [➙ 347]
c) Protective switch (i.e. door contact) fitted to the final exit door of the alarmed
premises or area
Connect the switch to the SPC System as follows:
The contact is fitted to the final exit door and is connected to an ENTRY/EXIT zone
with a ‘Final Exit‘ attribute.
Refer to the following section in this manual:
Zone types [➙ 347]
Zone attributes [➙ 350]
A misoperation signal is possible using the alarm abort feature. This is enabled by
default.
Refer to the following section in this manual:
OPTIONS [➙ 111] (Kypad)
Options [➙ 222] (Browser)
d) Digital key
Not supported by SPC.
e) In conjunction with an ARC
This method of setting is supported by using SPC COM XT or other third party
ARC software using EDP commands.
Methods of completion of unsetting (BS 8243:2010 - Clause 6.4)
Unsetting methods are complied with as follows:
Directives and standards
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6.4.1 For all the unsetting methods in the SPC system there is an audible
WARNING
Your attention is drawn to the fact that by allowing this method of unsetting, if an
intruder succeeds in forcing the initial entry door, the police will not be called,
regardless of the intruder’s further progress through the premises.
This method of unsetting the intruder alarm system might be unacceptable to your
insurers.
indication to the user that the system has been unset successfully. This is in the
form of a beep sequence from the CIE.
6.4.2 Prevention of entry to the supervised premises before the intruder alarm
system (IAS) is unset:
a) Unlocking the initial entry door causes the IAS to be unset;
Compliance by SPC if KEYARM zone type is used with the UNSET attribute only.
This zone type must not be used for setting.
b) Unsetting the IAS by the user before entering the supervised premises causes
or permits the initial entry door to be unlocked.
Compliance by SPC by unsetting using an access card reader on an entry reader
with the UNSET option, or an input from a third party access system to a KEYARM
zone with an UNSET attribute.
6.4.3 Prevention of entry to the supervised premises before all means of intruder
alarm confirmation have been disabled:
a) Unlocking the initial entry door causes all means of confirmation to be disabled
Operation not permitted by SPC.
b) Disabling all means of confirmation by the user before entering the supervised
premises causes or permits the initial entry door to be unlocked
Operation not permitted by SPC.
6.4.4 Opening the initial entry door disables all means of intruder alarm
confirmation
Operation not permitted by SPC.
6.4.5 Completion of unsetting using a digital key
a) Operation of a digital key before entering the supervised premises (for example,
via radio)
SPC satisfies this clause when the installer installs a PACE reader (e.g. SPCK421)
outside the premises.
b) Operation of a digital key after entering the supervised premises from a location
as near as practicable to the initial entry door.
This functionality is provided by use of a PACE reader (e.g. SPCK421) near the
entry door of a premises.
Refer to the following sections in this manual:
Zone types [➙ 347]
Zone attributes [➙ 350]
6.4.6 Unsetting in conjunction with an alarm receiving centre (ARC)
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Compliance by SPC using third party ARC software. Indication external to the
building must be provided by means of a timed buzzer/strobe, etc. that will operate
on a system unset for a timed period e.g. 30 seconds.
Refer to the following sections in this manual:
Timers [➙ 114]
3.1.5.4 Configuration requirements for PD 6662:2010
conformance
Recommendations for the recording of remotely notified alarm
conditions (BS 8243:2010 - Annex G.1 and G.2
Alarm conditions can be categorised for analysis in accordance with Annex G if the
SPC system is configured so that the entry timer is less than 30 seconds, and the
dialer delay is set to 30 seconds.
Refer to the following sections in this manual:
AREAS [➙ 116]
Adding / Editing an area [➙ 238]
Timers [➙ 114]
Requirements for systems using dedicated alarm paths (BS EN
50136-1-2, 1998
The SPC system should be configured to do an automated test call to the ARC.
The SPC system should be configured with a 'Fail to Communicate‘ output.
Refer to the following section in this manual:
Adding/Editing an ARC [➙ 292]
Requirements for equipment used in systems with digital
communicators using PSTN (BS EN 50136-2-2, 1998)
Fault Output
The SPC system should be configured with a 'Fail to Communicate‘ output.
Refer to the following sections in this manual:
Retransmission Attempts
Retransmission attempts (Dial Attempts) are configured in this manual:
Adding/Editing an ARC [➙ 292]
Editing EDP settings [➙ 301]
A minimum of 1 and a maximum of 12 retransmissions are allowed.
Intrusion and hold-up - System design (DD CLC TS 50131-7, 2008
Setting and unsetting
SPC system is configurable in such a way that the setting is completed by 'Final
Exit'.
It is possible to configure the SPC so that a WD (Warning Device) is activated
momentarily on setting.
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Refer to the following sections in this manual:
Timers [➙ 114]
Zone attributes [➙ 350]
OUTPUTS [➙ 136] (Keypad)
Editing an output [➙ 197] (Browser)
Intrusion and confirmed hold-up alarm (BS8243:2010 Designation of
hold-up alarm (HUA) signals for sequential confirmation)
SPC system is configurable in such a way that the following scenarios, when
triggered more than two minutes apart from any hold-up zone or hold-up device
(HD), will report a confirmed hold-up alarm event (HV for SIA and 129 for CID) to
the CIE:
two hold-up zone activations
a hold-up zone and a panic zone activation
If a hold-up zone and a tamper zone or a panic zone and a tamper zone activation
occurs within the two minute period, this will also send a confirmed hold-up alarm
event.
A confirmed hold-up will not require an engineer restore even if engineer restore is
enabled. A confirmed hold-up event is logged in the system log.
Security of communications for remote support and remote system
checks (DD 263:2010)
Please ensure that SPC Pro is used within the guidelines specified in DD
263:2010.
3.1.5.5 Additional commissioning requirements for PD 6662:2010
conformance
Information to be included in the system design proposal and asfitted document (BS 8243:2010 - Annex F)
During the installation, configuration and commissioning of an SPC system, the
installer must adhere to the following guidelines as required in the above
annex:
It is recommended that dual paths are used for signalling which are supported
in the SPC system using GSM, PSTN and Ethernet options.
The SPC system must be installed and configured to provide an effective
confirmation facility. Any exceptions to this should be outlined in the ‘As Fitted’
document.
Combinations and sequences which contribute to a confirmed alarm should be
clearly notified to the end user.
The intrusion confirmation time should be clearly notified to the end user.
Methods of completion of setting and unsetting methods should be clearly
described to the end user as detailed in this document.
Ensure written arrangements are supplied to the end user in the event of a lock
failure.
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It is recommended that the enclosed PD 6662:2010 label is affixed in an
appropriate position on the inside of the SPC housing beside the product type
label.
Transmission time
D2 as max.
Transmission time, max.
values
M0 - M4
Reporting time
T3 as max.
Availability
Refer to the following section in this manual:
ATS levels and attenuation specifications [➙ 354]
Signalling security level
Tested to EN50136-1-1 and classified as ‘S0’.
3.1.5.6 Additional information
Transmission Network Requirements – Performance, Availability and
Security Levels (BS EN 50136-1-2, 1998 and BS EN 50136-1-5,
2008)
The SPC System has been tested and approved to EN50136-1-1.
SPC levels are classified as follows:
3.1.6 Compliance with VdS approvals
This installation document encompasses the required product installation
information for VdS approvals.
Vanderbilt
SPC42xx/43xx/53xx/63xx : VdS Approval Nr. G 112104, G112124, and G112128.
This section describes the compliance of this system with VdS approvals.
Software
To set the system for VDS compliance, do the following:
1. Log on to the panel with the browser.
2. Click Full Engineer.
3. Click Settings on the menu.
4. Click Standards.
5. Select the German region from the Region list.
6. Select the VDS grade required by your installation type.
Remote Isolations — It is not possible to deisolate isolated faults using the
browser or SPCPro. Deisolation can only be performed on the keypads.
Remote Connections — it is not possible to use the browser or SPCPro to
connect to an armed system.
Confirmed alarms — an internally set system cannot create a confirmed alarm.
Directives and standards
3
EU directives
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Hardware Fault reporting — in Options, you must select the Enabled +
Address of Certifying Body
CNPP Cert
Pôle Européen de Sécurité - Vernon
Route de la Chapelle Réanville
CD 64 - CS 22265
F-27950 SAINT MARCEL
www.cnpp.com
AFNOR Certification
11 rue François de Pressensé
93571 Saint Denis La Plaine Cedex
www.marque-nf.com
To comply with NF & A2P installation regulations, this enclosure must be sealed
by affixing the accompanying Tamper Label after installation.
Reporting (10s) option from the Watchdog Output Mode drop-down list.
Note: Hardware faults are not reported if the Engineer is logged in to the
system.
Hardware
VDS compliance requires the following:
A G5 housing with Front tamper implemented as a minimum requirement.
Keypads do not show status information if the system is armed.
The number of supported zones is as follows:
– 512 zones in ring configuration
– 128 zones per X-Bus in multi-drop (spur) configuration
The following end of line resistance combinations do not comply with VdS
standards:
– 1k, 470 ohm
– 1k, 1k, 6k6 ohm
3.1.7 Compliance with NF and A2P approvals
3
Directives and standards
EU directives
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SPC products listed have been tested according to NF324 - H58, with reference to
Front spring tamper, 2 auxiliary tamper contact inputs
Power supply
Type A (per EN50131-1)
Mains voltage
230 VAC, + 10%/ -15%, 50 Hz
Mains fuse
250 mA T (replaceable part on mains terminal block)
Power consumption
SPC42xx: Max. 160 mA at 230 VAC
SPC43xx: Max. 200 mA at 230 VAC
Operating current
SPC42xx Controller: Max. 160 mA at 12 VDC
SPC43xx Controller: Max. 200 mA at 12 VDC
4 Technical Data
4.1 SPC4000
4
Technical Data
SPC5000
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Quiescent current
SPC42xx Controller:
Max. 140 mA at 12 VDC (165 mA with PSTN, 270 mA
with GSM, 295 mA with PSTN & GSM)
SPC43xx Controller:
Max. 170 mA at 12 VDC (195 mA with PSTN, 300 mA
with GSM, 325 mA with PSTN & GSM)
Output voltage
13-14 VDC in normal conditions (mains powered and
fully charged battery), min. 10.5 VDC when powered by
secondary device (before system shut down to battery
deep discharge protection)
Low voltage trigger
7.5 VDC
Overvoltage protection
15.7 VDC
Peak to Peak ripple
Max. 5 % of output voltage
Auxiliary power (nominal)
Max. 750 mA at 12 VDC
Battery type
SPC422x/4320: YUASA NP7-12FR (7 Ah), Battery not
supplied
Battery charger
SPC422x/4320: Max. 72h to 80% of battery capacity
Battery protection
Current limited to 1 A (fuse protected), deep discharge
protection at 10.5 VDC +/- 3 %
Software update
Local and remote upgrade for controller, peripherals and
GSM/PTSN modems.
Calibration
No calibration checks required (calibrated at
manufacturing)
Serviceable parts
No serviceable parts
Operating temperature
-10 ~ +50 °C
Relative humidity
Max. 90 % (non condensing)
Colour
RAL 9003 (signal white)
Weight
SPC422x/4320: 4.500 kg
Dimensions (W x H x D)
SPC422x/4320: 264 x 357 x 81 mm
Housing
SPC4320.320: Small metal housing (1.2 mm mild steel)
SPC422x.220: Small housing with metal base (1.2 mm
mild steel) and plastic lid
Housing can contain up to
SPC422x/4320: 1 additional expander (size 150 mm x 82
mm)
IP rating
30
ATS
2
ATP 4 Event Profiles
5
Event Exceptions
10
Command Profiles
5
Programmable areas
16
Max. number of user PINs
500
Remote controls
Up to 100
Wireless Panic Alarm
Up to 128
1) Max. 400 m between devices / cable types IYSTY 2 x 2 x Ø 0.6 mm (min.), UTP
cat5 (solid core) or Belden 9829.
2) More I/O expanders can be addressed instead of a keypad or door expander,
but number of programmable inputs / outputs cannot exceed specified system
limits.
4.2 SPC5000
Technical Data
4
SPC5000
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Event memory
10,000 intrusion events, 10,000 access events
Number of on-board zones
SPC5320\5330 — 8
SPC5350 — 16
Max. number of hardwired
zones
128
Max. number of wireless zones
120 (take away wired zones)
Max. number of Intrunet
wireless detectors per wireless
receiver (recommended)
20
EOL resistor
Dual 4k7 (default), other resistor combinations
configurable
Relay Outputs
SPC5320\5330 — 1 strobe (30 VDC/1A resistive
switching current)
SPC5350 — 4 (single-pole changeover, 30VDC/
maximum 1A resistive switching current)
Electronic Outputs
SPC5320\5330 — 5 outputs:
– 2 internal/external bells
– 3 programmable. Maximum 400 mA resistive
switching current per output, supplied by auxiliary
output.
SPC5350 — 8 outputs. Maximum 400mA resistive
switching current per output
– 5 standard power outputs
– 3 supervised outputs
Firmware
V3.x
Door capacity
Max. 16 entry doors or 8 entry/exit doors
Number of card reader
Max. 16
Radio module
Optional (SPCW110)
Verification
16 verification zones with max. 4 IP-cameras and 16
audio devices.
Video
Up to 16 pre / 16 post event images (by JPEG resolution
320 x 240, max. 1 frame / sec.)
Keypads: SPCK42x, SPCK62x
Door expanders: SPCA210, SPCP43x
Expanders with I/O: SPCE65x, SPCE45x, SPCP33x,
SPCP35x, SPCE110, SPCE120, SPCV32x
Interfaces
2 X-BUS (2 spurs or 1 loop),
2 RS232
1 USB (PC connection),
1 SPC Fast Programmer,
SPC53xx: Additionally 1 Ethernet (RJ45)
Tamper contact
SPC5320/5330: Front spring tamper, 2 auxiliary
tamper contact inputs
SPC5350: Front/back tamper switch
Power supply
Type A (per EN50131-1)
Mains voltage
230 VAC, + 10%/ -15%, 50 Hz
4
Technical Data
SPC5000
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Mains fuse
SPC5320/5330: 250 mA T (replaceable part on mains
terminal block)
SPC5350 : 800mA T (replaceable part on mains
terminal block)
Power consumption
SPC5320/5330: Max. 200 mA at 230 VAC
SPC5350: Max. 500mA at 230 V AC
Operating current
SPC5320/5330: Controller: Max. 200 mA at 12 VDC
SPC5350: Max. 210 mA at 12 VDC
Quiescent current
SPC53xx Controller: Max. 170 mA at 12 VDC (195 mA
with PSTN, 300 mA with GSM, 325 mA with PSTN &
GSM)
Output voltage
13-14 VDC in normal conditions (mains powered and fully
charged battery), min. 10.5 VDC when powered by
secondary device (before system shut down to battery
deep discharge protection)
SPC5350: FIAMM FGV22703 (12V 27Ah)
Battery not supplied
Battery charger
SPC5320: Max. 72h,
SPC5330/5350: Max. 24h to 80% of battery capacity
Battery protection
SPC5320/5330: Current limited to 1 A (fuse
protected), deep discharge protection at 10.5 VDC +/3 %
SPC5350: Current limited to 2 A (protected by PTC
resettable fuse), deep discharge protection at 10.5
VDC
Software update
Local and remote upgrade for controller, peripherals and
GSM/PTSN modems.
Calibration
No calibration checks required (calibrated at
manufacturing)
Serviceable parts
SPC5320/5330: No serviceable parts
SPC5350: 8 glass fuses (400mA AT) for 12 VDC
outputs
Operating temperature
-10 ~ +50 °C
Relative humidity
Max. 90 % (non condensing)
Colour
RAL 9003 (signal white)
Weight
SPC5320: 4.500 kg
SPC5330: 6.400 kg
SPC5350: 18.600 kg
Technical Data
4
SPC6000
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Dimensions (W x H x D)
SPC5320: 264 x 357 x 81 mm
SPC5330: 326 x 415 x 114 mm
SPC5350: 498 x 664 x 157 mm
Housing
SPC5320: Small metal housing, (1.2 mm mild steel)
SPC5330: Hinged metal housing, (1.2 mm mild steel)
SPC5350: Metal housing (1.5 mm mild steel)
Housing can contain up to
SPC5320: 1 additional expander,
SPC5330: 4 additional expanders (size 150 mm x 82
mm)
SPC5350: 4 additional expanders (150 x 82 mm)
IP / IK Rating
30 / 06
ATS
5
ATP
15
Event Profiles
10
Event Exceptions
50
Command Profiles
8
Programmable areas
60
Max. number of user PINs
2500
Remote controls
Up to 100
Wireless Panic Alarm
Up to 128
Event memory
10,000 intrusion events, 10,000 access events
Number of on-board zones
SPC6320\6330 — 8
SPC6350 — 16
Max. number of hardwired
zones
512
Max. number of wireless
zones
120 (take away wired zones)
Max. number of Intrunet
wireless detectors per
wireless receiver
(recommended)
20
EOL resistor
Dual 4k7 (default), other resistor combinations configurable
Relay Outputs
SPC6320\6330 — 1 strobe (30 VDC/1A resistive
switching current)
SPC6350 — 4 (single-pole changeover, 30VDC/
maximum 1A resistive switching current)
1) Max. 400 m between devices / cable types IYSTY 2 x 2 x Ø 0.6 mm (min.), UTP
cat5 (solid core) or Belden 9829.
2) More I/O expanders can be addressed instead of a keypad or door expander,
but number of programmable inputs / outputs cannot exceed specified system
limits.
4.3 SPC6000
4
Technical Data
SPC6000
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Electronic Outputs
SP6320\6330 — 5 outputs:
– 2 internal/external bells
– 3 programmable. Maximum 400 mA resistive
switching current per output, supplied by auxiliary
output.
SPC6350 — 8 outputs. Maximum 400mA resistive
switching current per output
– 5 standard power outputs
– 3 supervised outputs
Firmware
V3.x
Door capacity
Max. 64 entry doors or 32 entry/exit doors
Number of card reader
Max. 64
Radio module
Optional (SPCW110)
Verification
32 verification zones with max. 4 IP-cameras and 32 audio
devices.
Video
Up to 16 pre / 16 post event images (by JPEG resolution
320 x 240, max. 1 frame / sec.)
SPC6350: FIAMM FGV22703 (12V 27Ah)
Battery not supplied
Battery charger
SPC63xx: Max. 24h to 80% of battery capacity
Battery protection
SPC6330: Current limited to 1 A (fuse protected), deep
discharge protection at 10.5 V DC +/- 3 %
SPC6350: Current limited to 2 A (protected by PTC
resettable fuse), deep discharge protection at 10.5 V
DC, low voltage indicator at 11 V DC
Software update
Local and remote upgrade for controller, peripherals and
GSM/PTSN modems.
Calibration
No calibration checks required (calibrated at manufacturing)
Serviceable parts
SPC6330: No serviceable parts
SPC6350: 8 glass fuses (400mA AT) for 12 V DC
outputs
Operating temperature
-10 ~ +50 °C
Relative humidity
Max. 90 % (non condensing)
Colour
RAL 9003 (signal white)
Weight
SPC6330: 6.400 kg
SPC6350: 18.600 kg
Dimensions (W x H x D)
SPC6330: 326 x 415 x 114 mm
SPC6350: 498 x 664 x 157 mm
Housing
SPC6330: Hinged metal housing (1.2 mm mild steel)
SPC6350: Metal housing (1.5 mm mild steel)
Housing can contain up to
SPC6330: 4 additional expanders (size 150 mm x 82
mm)
SPC6350: 6 additional expanders (150 x 82 mm) or 1
additional controller + 4 expanders
IP / IK Rating
30 / 06
ATS
10
ATP
30
Event Profiles
20
Event Exceptions
100
4
Technical Data
SPCP355.300
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Command Profiles
10
Number of on-board zones
8
EOL resistor
Dual 4K7 (default), other resistor combinations selectable
Relay Outputs
3 (single-pole changeover, 30 V DC/max. 1 A resistive
switching current)
Electronic Outputs
3 supervised (each max. 400 mA resistive switching current),
Interfaces
X-BUS (in, out, branch)
Mains Voltage
230 V AC, +10 to -15 %, 50 Hz
Operating Current
Max. 245 mA at 12 V DC (all relays activated)
Quiescent Current
Max. 195 mA at 12 VDC
Output voltage
13-14 V DC in normal conditions (mains powered and fully
charged battery),
Auxiliary power (nominal)
Max. 2360 mA at 12 V DC (8 separately fused outputs, max.
300mA per output)
Battery type
YUASA NP24-12 (12 V 24 Ah)
Alarmcom AB1227-0 (12 V 27 Ah)
FIAMM FGV22703 (12V 27Ah)
Battery not supplied
Tamper contact
Front/back tamper switch
Operating temperature
0 to +40 °C
Housing
Metal housing (1.5 mm mild steel)
Colour
RAL 9003 (signal white)
Dimensions
498 x 664 x 157mm
Weight (without batteries)
18.400 kg (housing incl. cover), 11.300 kg (housing without
cover)
IP / IK Rating
30 / 06
1) Max. 400 m between devices / cable types IYSTY 2 x 2 x Ø 0.6 mm (min.), UTP
cat5 (solid core) or Belden 9829.
2) More I/O expanders can be addressed instead of a keypad or door expander,
but number of programmable inputs / outputs cannot exceed specified system
limits.
4.4 SPCP355.300
Introduction
5
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1
PSTN
13
Wireless expander
2
GSM
14
PSU 3 Ethernet
15
Loop configuration
4
Wireless Receiver
16
PSTN network
5
AC mains
17
GSM network
6
Battery 12 V
18
Broadband router
7
RF
19
Network
8
Wired outputs (6)
20
Central
9
Wired inputs (8)
21
LAN/WLAN
10
Keypads
22
Service desk
11
IO expander
23
Remote user
12
Output Expander
24
Mobile interfaces
14
2
3
5
6
7
8
9
1011
12
13
14
15
16
17
19
20
21
22
23
24
18
5 Introduction
The SPC series controller is a true hybrid controller with 8 on-board wired zones
that communicate with intruder devices.
The flexible design of the controller allows the functional components
(PSTN/GSM/RF) to be mixed and matched, improving the capability of the system.
Using this approach, an installer can ensure that an efficient installation with
minimal wiring is achieved.
Overview
6
Mounting system equipment
Mounting a G2 housing
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6 Mounting system equipment
6.1 Mounting a G2 housing
The SPC G2 housing is supplied with a metallic or plastic cover. The cover is
attached to the base of the housing by 2 securing screws located on the top and
bottom of the front cover.
To open the housing, remove both screws with the appropriate screwdriver and lift
the cover directly from the base.
The G2 housing contains the controller PCB (Printed Circuit Board) mounted on 4
support pillars. An optional input/output module can be mounted directly beneath
the controller PCB. A battery with capacity of 7 Ah max. can be accommodated
below the controller.
An optional external antenna must be fitted to housings with metallic lid if the
wireless functionality is required. If an antenna is fitted to the unit, it must be
enabled in the firmware.
The SPC G2 housing provides 3 screw holes for wall mounting the unit.
To wall mount the housing, remove the cover and locate the initial fixing screw hole
at the top of the cabinet. Mark the position of this screw hole on the desired
location on the wall and drill the initial screw hole. Screw the unit to the wall and
mark the position of the bottom 2 screw hole positions with the unit vertically
aligned.
Screws with a 4-5 mm shank, a minimum head diameter of 8 mm and a minimum
length of 40 mm are recommended for mounting the housing. Additional expansion
plugs or fixings may be required depending on the construction of the wall.
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Standard housing
1
Wireless antenna
2
SPC controller
3
Wall mounting screw holes
1
2
33
3
6.2 Mounting a G3 housing
The SPC G3 housing is supplied with a metallic front cover. The cover is attached
to the base of the housing by hinges and secured with one screw on the right hand
side of the front cover.
To open the housing, remove the screws with the appropriate screwdriver and
open the front cover.
The G3 housing contains the controller PCB (Printed Circuit Board) mounted on a
hinged mounting bracket. Expanders and PSUs can be mounted on the underside
of the hinged mounting bracket and also on the back wall of the housing
underneath the mounting bracket.
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1
Expanders/PSU
2
Controller
3
Expanders/PSU
4
Battery
An optional external antenna must be fitted to housings with metallic lid if the
wireless functionality is required. If an antenna is fitted to the unit, it must be
enabled in the firmware.
The SPC G3 housing provides 3 screw holes for wall mounting the unit (see item 1
below).
Screws with a 4-5 mm shank, a minimum head diameter of 8 mm and a minimum
length of 40 mm are recommended for mounting the housing. Additional expansion
plugs or fixings may be required depending on the construction of the wall.
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To wall mount the housing:
1
2
1. Open the cover and locate the initial fixing screw hole at the top of the cabinet.
2. Mark the position of this screw hole on the desired location on the wall and drill
the initial screw hole.
3. Screw the unit to the wall and mark the position of the bottom 2 screw hole
positions with the unit vertically aligned.
Back Tamper Requirements
A back tamper switch may be required by your local approval.
The back tamper switch is delivered with SPC panels in G3 housings or is available
as an optional extra with a mounting kit (SPCY130). EN50131 G3 panels
(SPCxx3x.x20) are supplied with a back tamper kit as standard.
6.2.1 Mounting a Back Tamper Kit
The SPC back tamper kit provides SPC control panels and power supplies with the
option of having back tamper as well as front tamper.
The back tamper kit comprises the following parts:
Tamper switch
Leads for connecting the back tamper switch to the controller
Wall fixing plate
Mounting the Wall Fixing Plate
1. Mount the SPC in the appropriate position on the wall using all three fixings
(see item 1 below).
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+ –
A
A
B
1
B
2
2. Draw a line around the inside of the back tamper cut out (See item 2 above) to
provide a guide for the wall plate on the fixing wall. Remove the enclosure from
the wall.
3. Place the wall plate (See item 1 below) on the wall centering it precisely around
the rectangle previously drawn (See item 2 below).
4. Ensure all four flanges on the wall plate are flush with the wall.
5. Mark the four fixings on the wall plate.
6. Drill and use suitable screws (max. 4 mm) for the wall substrate.
7. Fit the wall plate to the wall.
Fitting the Back Tamper Switch
1. Insert the tamper switch (See item 2 below) into the back of the enclosure so
that the plunger faces outwards (See item 1 below).
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2. Fit the enclosure back onto the wall using the three fixings previously removed
1
2
(See item 2 below). Visually check to ensure there is a flush finish between the
wall plate and the enclosure metalwork.
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1
Enclosure
3
Wall Fixing Plate
2
Wall
4
Tamper Switch
WARNING
If the wall fixing plate is not accurately aligned then the enclosure will not sit
properly on its fixings.
Wiring the Back Tamper Switch to the Control Panel
All control panels have spare inputs configured as tamper inputs that are designed
for wiring the tamper switch and do not require any programming.
This tamper switch will be referred to as ‘Aux Tamper 1’ by the system.
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+ –
1. Connect NO on the tamper switch to T1 on the controller.
2. Connect COM on the tamper switch to C on the controller. Ensure the T2
jumper is not removed.
3. When the tamper switch is wired, the controller can be commissioned in the
normal manner.
6.2.2 Battery installation for EN50131 compliance
For EN50131 compliance the battery needs to be retained within the housing to
stop movement. This is achieved by bending out the flaps in the rear of the Hinged
Enclosure so that the battery is retained.
If a 7 Ah battery is used then the battery is biased to the left of the cabinet and
bottom flap is bent to meet the battery.
If a 17 Ah battery is used then the battery is biased to the right of the cabinet and
middle flap is bent to meet the battery.
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The battery flaps should be bent carefully as not to damage the battery. If any
signs of a damaged battery exist or any leakage of the electrolyte then the battery
should be discarded as per the current regulations and a new battery fitted.
6.3 Mounting a G5 housing
The SPC G5 housing comprises of a metallic base and front cover. The cover is
attached to the base of the housing by 4 securing screws located on the top and
bottom of the front cover.
To open the housing, remove all the screws with the appropriate screwdriver and
lift the cover directly from the base.
The G5 housing contains the controller PCB (Printed Circuit Board) and the
SPCP355.300 Smart PSU, both mounted on 4 support pillars. An 8 In/2 Output
Expander is mounted on top of the PSU. Four extra pillars are included to give you
the option to mount the 8 In/2 Output Expander below the PSU board in the G5
cabinet. Additional expanders can be installed in the housing as shown.
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Number
Description
Number
Description
1
Battery
6
Battery temperature leads
2
Battery strap
7
PSU
3
Fixing tabs
8
Optional expander positions
4
Strap holes
9
Controller
5
Battery leads
10
Antenna
Two batteries, with a maximum capacity of 27 Ah, can be accommodated in the
battery compartment at the bottom of the housing.
An optional external antenna must be fitted to a metallic housing if wireless
functionality is required. Knockout holes are available in three positions on the top
of the housing where the antenna can be installed. If an antenna is fitted to the
unit, it must be enabled in the firmware.
The SPC G5 housing provides 4 screw holes for wall mounting the unit.
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Number
Description
1
Corner fixings
2
Tamper cutout
3
Shelf separating battery compartment
4
Telecom socket cutout
6.3.1 Tamper protection
The tamper switch and back tamper bracket are fitted to the housing. The switch is
used on its own for front tamper purposes only or used with the back tamper
bracket for both front and back tamper protection. Either back or front tamper
protection is required depending on local approval.
The tamper bracket is held firmly in place with a securing screw. Remember to
remove this screw if commissioning the system for back tamper protection. Do not
remove this screw if using front tamper only.
6.3.2 Mounting the housing with tamper protection
To mount the housing:
1. Using the supplied mounting template, mark the 4 drill positions for fixing the
housing to the wall.
2. Drill and install suitable screws (see enclosed template) into the wall. Leave the
screws protruding 1.5cm from the wall.
3. The G5 housing is pre-configured for front tamper only. To configure the
housing for both front and back tamper, remove the front tamper securing
screw (item 1).
The tamper bracket swings to the far right of the orientation slot (item 6).
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4. Mount the G5 housing in the appropriate position on the wall and tighten the 4
Number
Description
Number
Description
1
Front tamper securing screw
5
Back tamper screw
2
Tamper bracket
6
Orientation slot
3
Tamper switch
7
Shelf separating battery compartment
4
Back tamper cutout
WARNING
If the back tamper screw is not secure against the wall, then tamper protection is
compromised. If the housing is removed from the wall or displaced, the back
tamper contact needs to be tested again for proper functionality and re-adjusted if
required.
mounting screws. Ensure that the housing is flush with the wall surface.
5. Move the tamper bracket to the far left of the orientation slot and tighten the
back tamper screw (item 5) to the wall. The tamper bracket should be
perpendicular to the back wall of the housing.
6. Install the lid on the housing to test the tamper switch connection. Lift the lid by
approximately 1 mm to activate the tamper switch.
6.3.2.1 Tamper operation
Tamper switch - normal
6
Mounting system equipment
Mounting a G5 housing
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1
Wall
4
Housing lid
2
Back tamper screw
5
Tamper switch contact closed
3
Back wall of housing
1
Wall
4
Housing lid
2
Back tamper screw
5
Tamper switch contact open
3
Back wall of housing
WARNING
If the tamper bracket screw is not secure against the wall, then tamper protection
is compromised.
5
1
2
4
3
5
1
2
4
3
Tamper switch – displaced
If the housing is removed from the wall or displaced, the tamper bracket screw is
no longer secure against the wall, causing the bracket to pivot. This in turn causes
the tamper switch to swivel away from the lid and opens the switch contact.
Mounting system equipment
6
Mounting a G5 housing
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6.3.3 Installing the batteries
NOTICE
If using two batteries in the G5 housing, it is recommended that both batteries
should be the same Ah rating.
1
Battery
6
Battery temperature lead
2
Fixing strap
7
PSU
3
Battery fixing tabs
8
Optional expander positions
4
Strap holes
9
Controller
5
Battery leads
10
Antenna
To install the batteries:
1. Place the batteries into the battery compartment.
2. Press the metal tabs at the top and either side of the batteries in towards the
batteries.
3. Secure each battery to the housing using a battery strap. Ensure that the strap
is thread through the battery strap holes at the back of the battery compartment
and around the battery, with the two ends of the strap at the front of the battery.
4. Fasten the two ends of the strap firmly using the Velcro strip. Ensure that the
strap is tight around the battery.
6
Mounting system equipment
Mounting a keypad
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5. Connect one end of the battery leads to the battery + and - terminals and the
CAUTION
When installing the battery, always connect the positive (+) lead to the battery first
before connecting the negative (-) lead. When removing the battery, always
remove the negative (-) lead first before removing the positive (+)
other ends to the corresponding + and - inputs of the PSU.
6. Connect the loose ends of the attached temperature monitoring leads to the
battery temperature monitoring inputs on the PSU.
6.4 Mounting a keypad
Please refer to corresponding installation instruction.
6.5 Mounting an expander
Please refer to corresponding installation instruction.
Smart PSU
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Number
Description
SPCP355.300 Smart PSU
1
Mains input and fuse block
2
Input transformer
3
AC IN — AC power input
4
MAINS — Mains power LED
5
BATT1 — Battery 1 charge state LED
6
BATT2 — Battery 2 charge state LED
7
FUSE — Fuse fail LED
8
LIMIT — Current limit LED
9
STATUS — Status LED
10
A2 — 14.5V power output.
Not backed up by battery
Protected by PTC resettable fuse, rated at 300mA (Item 23 in image
above)
7 Smart PSU
This section describes the components and wiring of the Smart PSU.
7.1 SPCP355.300 Smart PSU
The SPCP355.300 Smart PSU is a power supply combined with an 8-input/2output expander, contained in a G5 housing. The PSU is backed up by either
2x24Ah, or 2x27Ah batteries, and provides eight power and four logical outputs
The expander monitors the PSU for overcurrent, fuse failures, AC voltage,
communications, and battery output. The expander is powered by, and receives
data from, the PSU via a connector cable. It also interfaces with the SPC controller
over the SPX X-BUS.
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Number
Description
11
A1 — Connects to the power input (+/-) on the SPC5350/6350.
12
COMM1 — Expander 4-pin interface. Connects to item 32, power and data
connection, in image above, with a straight-through cable.
13
Clock Reference — Connects to Clock Reference on SPC5350/6350.
14
T1, T2 — Tamper switch inputs. Connect these to the Front/Back tamper
switch.
See Mounting the housing with tamper protection [➙ 50].
15
Front back tamper switch. See Mounting the housing with tamper protection
[➙ 50].
16
NO/NC — Configurable NO/NC logical relay output. See Wiring the Outputs
[➙ 62] for more information.
17
Glass fuses — 400 mA T fuses for outputs 1-8.
18
OP 6 – 8 and SW 6 – 8 — Combined power outputs (OP) and logical outputs
(SW).
Standard 12V DC power outputs combined with configurable, open-drain,
logical outputs (4K7 EoL supervised/unsupervised).
19
OP 1 – 5 — Standard 12V DC power outputs.
See Warning note below table for more information.
20
BTE2 — Battery 2 temperature monitoring input.
21
BATT1 and BATT2 — Battery 1 and 2 connectors.
22
BTE1 — Battery 1 temperature monitoring input.
23
PTC fuses — Fuses rated at 300mA. Protecting the A1 and A2 outputs.
For more information see System Recovery [➙ 65].
24
PTC fuse — Fuse rated at 5A. Protects the AC power input (item 3 in image
above).
For more information see System Recovery [➙ 65].
25
PSU Kickstart Switch — For more information see System Recovery [➙ 65].
Expander
26
NO/NC — Logical relay outputs. The expander provides two configurable
NO/NC logical relay outputs.
For more information, see Wiring the Inputs [➙ 61]
27
I 1 – 8 — Inputs. The expander has 8 on-board inputs which can be configured
as intruder alarm zones on the SPC system.
For more information, see Wiring the Inputs [➙ 61]
28
Auxiliary power supply 12V — Do not use.
Expander is powered through COMM1 on the SPCP355.300 Smart PSU.
29
X-BUS Input power — Do not use.
Expander is powered through COMM1 on the SPCP355.300 Smart PSU.
30
X-BUS Interface — The communications bus connects expanders on the SPC
system.
31
Termination Jumper — This jumper is always fitted, by default.
For more information, see Wiring the X-BUS Interface [➙ 60].
32
PSU 4-pin interface — Connects to COMM1 on the SPCP355.300 Smart PSU
(item 12 in image above), power and data connector, with a straight-through
cable.
33
Front tamper switch — Not used. The Front/Back tamper connected to T1 and
T2 of the SPCP355.300 Smart PSU is the only tamper required by this
installation.
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Number
Description
34
JP1 — Front tamper bypass must be fitted.
35
Buzzer — Activated to locate the expander. See the X-BUS menu LOCATE
[➙ 120] for more information.
36
JP6 — Back tamper bypass. Must be fitted.
37
Manual addressing switches — Enable manual setting of the ID of the
expander.
38
X-BUS Status LED — Indicates the X-BUS status, when the system is in Full
Engineer mode, as follows:
Slow flash (every 1.5 seconds) — X-BUS communications status is OK.
Quick flash (every 0.2 seconds) — Indicates one of the following:
– Indicates the last-in-line expander for spur configurations.
– Indicates a communications problem between two expanders. If two
adjacent expanders are flashing quickly, the problem exists between
those two expanders.
39
LED — Not used.
40
PSU Status LED.
WARNING
The combined maximum load current drawn from all 12V DC outputs (OP 1 - 8)
plus COMM1, should not exceed 2.4A. Each individual output, and output A2,
should not exceed 300mA. If the device current requires more than 300mA, it is
recommended to parallel the outputs.
Adding extra expanders
If adding extra expanders to the G5 enclosure, you must ensure the front and back
tampers are deactivated by fitting the appropriate jumpers. In a G5 enclosure, the
front and back tamper is handled by the enclosure itself and the SPCP355.300
Smart PSU.
7.1.1 Supervised Outputs
The SPCP355.300 Smart PSU supports three, open-drain, logical outputs, which
can be supervised for tamper detection. Output tamper detection is enabled by
configuration. Output tamper detection is enabled by connecting a 4K7 EoL resistor
in parallel with the load device, such as an external bell. A power diode (1N4001
for example, or similar) is also required, if not already present in the external
device.
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Number
Description
1
Standard 12V Power output
2
Configurable, supervised, 12V DC logical switched output.
4K7
OP 6 – OP 8
SW 6 – SW 8
OV
Ext. Bell
OP 6 – OP 8
SW 6 – SW 8
OV
PIR
0V
12V
12V
0V
1
2
7.1.2 Batteries
7.1.2.1 Installing Batteries
This section describes the battery installation for the SPCP355.300 Smart PSU and
G5 Enclosure.
Smart PSU
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Number
Description
1
Battery
2
Battery strap
3
Fixing holes
4
Strap holes
5
Battery leads
6
Battery temperature leads
7
PSU\Expander
8
Mounting positions for additional expanders.
It is recommended that two batteries are used. These batteries must be of the
same type and capacity.
1. Install the batteries in the battery compartment.
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2. Secure each battery using the battery straps provided, ensuring the strap is
DANGER
When removing the battery leads, always disconnect the negative (black) lead
before disconnecting the positive (red) lead.
Maximum cable length = (number of expanders and keypads in the system) x
(maximum cable distance for each cable type)
threaded through the battery strap holes at the back of the battery and around
the battery.
3. Secure the two ends of the battery strap at the front of the battery, ensuring the
battery strap is firmly tightened.
4. Connect the leads from the SPCP355.300 Smart PSU to the batteries in the
following order:
- Connect the positive (red) wire first.
- Connect the negative (black) wire second.
7.1.2.2 Testing Battery Voltage
The SPCP355.300 Smart PSU performs a load test on each battery by placing a
load resistor across the battery terminals and measuring the resultant voltage. This
battery test is performed every five seconds.
7.1.2.3 Deep Discharge Protection
If mains power to the SPCP355.300 Smart PSU fails for a prolonged period, each
battery supplies power to the PSU 12V DC power outputs for a finite time. The
batteries eventually discharge. To prevent a battery discharging beyond recovery,
the SPCP355.300 Smart PSU disconnects the battery if the measured voltage
drops below 10.5V DC. The battery can then be recharged after the mains power is
restored.
7.1.2.4 Battery Stand-By Times
See Calculating the battery power requirements [➙ 334] for the battery stand-by
information.
7.1.3 Wiring the X-BUS Interface
The X-BUS interface connects expanders and keypads to the SPC controller. The
X-BUS can be wired in a number of different configurations, depending on the
installation requirements.
The following table lists the cable types and distances recommended:
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Cable Type
Distance
CQR Standard Alarm Cable
200m
UTP Cat-5 Solid core
400m
Belden 9829
400m
IYSTY 2x2x0.6(min)
400m
Number
Description
1
SPCP355.300 Smart PSU outputs
2
SPC Controller
3
SPCP355.300 Input/Output expander
4
Next expander
5
Next expander
The following diagram shows an example of wiring the X-BUS:
7.1.3.1 Wiring the Inputs
The expander has 8 on-board zone inputs which can be configured as one of the
following:
No End of Line
Single End of Line
Dual End of Line
Anti-Masking PIR
Default Configuration
The following diagram shows the default configuration, Double EOL 4K7:
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Number
Description
1
Input 1
2
COM
3
Tamper
4
Alarm
5
4K7 6 EOL 4K7
Number
Description
1
Input 2
2
COM
3
Tamper
4
Alarm
5
4K7
6
Detector Fault
7
2K2
8
EOL 4K7
1
2
3
4
5
6
1
2
3
4
5
6
7
8
Anti-Masking PIR
The following diagram shows the Anti-Masking PIR configuration:
7.1.3.2 Wiring the Outputs
The expander and PSU relay logical outputs can be assigned to any of the SPC
system outputs. The relay outputs can switch a rated voltage of 30V DC at 1A
(non-inductive load).
When the relay is activated, the Common terminal connection (COM) is switched
from the Normally Closed (NC) to the Normally open (NO) terminal.
The following diagram shows the wiring of an active, high output:
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Number
Description
1
Normally Open terminal
2
Common terminal connection (COM)
3
Normally Closed terminal (NC)
Address of Certifying Body
CNPP Cert
Pôle Européen de Sécurité - Vernon
Route de la Chapelle Réanville
CD 64 - CS 22265
F-27950 SAINT MARCEL
www.cnpp.com
AFNOR Certification
11 rue François de Pressensé
93571 Saint Denis La Plaine Cedex
www.marque-nf.com
7.1.4 Compliance with NF and A2P approvals
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To comply with NF & A2P installation regulations, this enclosure must be sealed
by affixing the accompanying Tamper Label after installation.
SPC products listed have been tested according to NF324 - H58, with reference to
Product Type
Configuration
Standard
Logo
SPC6350.320 +
SPCP355.300
(Cert. XXXXXXXXXX)
60h, unmonitored
NF Grade 3,
Class 1
SPC5350.320 +
SPCP355.300
(Cert. XXXXXXXXXX)
60h, unmonitored
SPC6330.320 +
SPCP333.300
(Cert. 1232200003)
60h, unmonitored
NF Grade 3,
Class 1
SPC5330.320 +
SPCP333.300
(Cert. 1232200003)
60h, unmonitored
LED
MAINS
BATT 1 & 2
FUSE
LIMIT
STATUS
COLOUR
Green
Green
Red
Red
Green
Condition
Normal
On
On
Off
Off
On
Mains OK, battery charging
On
Flash
On
Mains Fail, Battery OK
Off
On
On
Mains OK, battery faulty or
not present
On
Off
On
Mains OK, battery faulty,
not present, or in deep
discharge protection mode
All LEDs Off.
Fuse Fail
On On
Total Load Current
exceeded
On
On
PSU switcher failure
Off
Flash
RTC50131-6 and RTC50131-3 and current EN certifications, see Compliance with
EN50131 Approvals [➙ 19].
7.1.5 PSU LED Status
The following table lists the Smart PSU LED status information:
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7.1.6 System Recovery
Mains and Battery Failure
In the event of both mains and battery power failure, the PSU kickstart switch (item
25 in SPCP355.300 Smart PSU [➙ 55]) enables the system to be restarted if only
battery power is reinstated. To kickstart the system, do the following:
Mains power has failed
Battery power has failed
New batteries are available
1. Attach the battery leads.
2. Press and hold the PSU Kickstart button.
All LEDs flash.
3. Hold the PSU Kickstart button until the LEDs stop flashing.
4. Release the PSU Kickstart button.
PTC Fuse Reset
In the event of one of the PTC fuses resetting, you must manually disconnect then
reconnect the mains and battery connections.
8
Controller hardware
Controller Hardware 42xx\43xx\53xx\63xx
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1
Optional wireless
module
The controller PCB can be factory fitted with a wireless module for use
with wireless (868 MHz) sensors.
2
SPC status LEDs
These 7 LEDs display the status of various system parameters as
+ –
2134
5
6
7
20
19
8
10
1112131415161718
9
19
0V
12V
SH
2B
2A
1B
1A
12V
OP6
OP5
OP4
NC
COM
NO
BHO
TR
IN –
IN +
EXP –
EXP +
TXRXGND
T1CT2
I1CI2
I3CI4
I5
C
I6
I7CI8
21
22
8 Controller hardware
This section describes the controller hardware.
See also
Powering expanders from the auxiliary power terminals
[➙ 333]
Wiring the X-BUS interface [➙ 72]
Wiring an internal sounder [➙ 87]
Wiring the zone inputs [➙ 83]
Controller status LEDs [➙ 332]
Controller status LEDs [➙ 332]
Powering expanders from the auxiliary power terminals
[➙ 333]
Wiring the X-BUS interface [➙ 72]
Wiring an internal sounder [➙ 87]
Wiring the zone inputs [➙ 83]
8.1 Controller Hardware 42xx\43xx\53xx\63xx
This section describes the controller for the SPC42xx, 43xx, 53 xx and 63xx
models. The SPC5350 and 6350 are described in Controller Hardware SPC5350
and 6350 [➙ 68].
The SPC controller provides 8 on-board wired zones and optional wireless zones.
Controller hardware
8
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described on page [➙ 332].
3
AC power input
A/C Mains Input:
The mains AC input voltage is applied to this 2-pin connection via a
transformer contained in the SPC enclosure. The earth lead from the
mains supply is wired to a connection point on the metal cabinet.
Clock Reference*:
A clock reference signal can also be applied to this 2-pin connector to
maintain accurate system time.
4
Reset button
To reset the controller:
– Press this switch once.
To reset the programming settings to default and reboot the
controller:
– Hold down the button until you are asked if a factory reset is
desired.
– Select YES to reset to factory defaults.
Warning: Defaulting the controller to factory settings deletes all
configuration files, including backups, stored on the controller. All isolates
and inhibits are also deleted. It is recommended you backup your
configuration to a PC before defaulting the controller.
Note: This feature is not available if engineer lockout is enabled.
5
Earth connection
terminal
This terminal is not required and should not be connected.
6
Auxiliary 12 V output
The SPC controller provides an auxiliary 12 V DC output that can be
used to supply power to expanders and devices such as latches, bells,
etc. See page [➙ 333]. The maximum deliverable current is 750 mA.
Please Note: The amount of current drawn is subject to the amount of
time to be held up under battery conditions.
7
X-BUS interface
This is the SPC communications bus used to network expanders
together on the system. See page [➙ 72]. SPC4000 only has 1 X-BUS
interface.
8
On-board outputs
Outputs OP4, OP5, and OP6 are 12 V open collector resistive outputs
that share a 400 mA current rating with the auxiliary 12 V output. If the
outputs are not connected to the 12 V of the controller and are powered
from an external power source the 0 V of the power source needs to be
connected to the controller 0 V and the external power source cannot
exceed 12 V.
9
Relay output
The SPC controller provides a 1 A, single-pole, changeover relay that
can be used to drive the strobe output on the external bell.
10
Internal bell / external
bell
Internal and external bell outputs (INT+, INT-, EXT+, EXT-) are resistive
outputs with a 400 mA current rating. The BHO (Bell Hold Off), TR
(Tamper Return), and EXT outputs are used to connect an external bell
to the controller. The INT+ and INT- terminals are used to connect to
internal devices such as an internal sounder. See page [➙ 87].
11
Zone inputs
The controller provides 8 on-board zone inputs that can be monitored
using a variety of supervision configurations. These configurations can
be programmed from system programming. The default configuration is
Dual End of Line (DEOL) using resistor values of 4K7. See page [➙ 83].
12
Tamper terminals
The controller provides 2 additional tamper input terminals that can be
connected to auxiliary tamper devices to provide increased tamper
protection. These terminals should be shorted when not in use.
13
Serial port 2 terminal
block
Serial port 2 terminal block (TX, RX, GND) may be used to interface to
an external modem or PC terminal program. Serial port 2 shares a
communications channel with the back-up modem. If a back-up modem
is installed, ensure that no devices are connected to this serial port.
14
Ethernet connectivity
LEDs
The 2 Ethernet LEDs indicate the status of the Ethernet connection. The
left LED indicates data activity on the Ethernet port; the right LED
indicates the Ethernet link is active.
15
Ethernet interface
The Ethernet interface provides for the connection of a PC to the
controller for the purposes of programming the system.
4000
IP
IP
8
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16
USB interface
This USB interface is used to access browser programming or a terminal
program.
17
Serial port 2
This RS232 serial port may be used to interface to an external modem or
PC terminal program. Serial port 2 shares a communications channel
with the back-up modem. If a back-up modem is installed, ensure no
devices are connected to this serial port.
18
Serial port 1
This RS232 serial port may be used to interface to an X10 protocol
device.
19
Optional plug-in
modules
A primary (left slot) and back-up (right slot) module can be connected to
the controller. These modules can be GSM or PSTN modems offering
increased communication functionality. The back-up modem should not
be connected if serial port 2 interface is connected to an external modem
or other device.
20
Front tamper
This on-board front tamper (switch & switch) provides the cabinet tamper
protection.
Note: The front tamper is not used in the G5 housing.
21
Battery selector
J12: Fit jumper for 17 Ah battery use and remove for 7 Ah battery.
Please Note: This selector is only available on 2.3 revision controller
PCB.
(Not applicable for SPC5350 and SPC5360 panels)
22
Auxiliary power input
12 v input from battery or PSU**.
4000
* Default setup for SPC5350 and SPC5360 panels
** PSU only applies to SPC5350 and SPC6350 panels.
Controller hardware
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8.2 Controller Hardware SPC5350 and 6350
The expander that is connected to the power supply within the G5 is set to ID1 by
default. This setting should not be changed.
1
Optional wireless
module
The controller PCB can be factory fitted with a wireless module for use
with wireless (868 MHz) sensors.
2
SPC status LEDs
These 7 LEDs display the status of various system parameters as
described on page [➙ 332].
3
Clock Reference
A clock reference signal can also be applied to this 2-pin connector to
maintain accurate system time.
Connect to Clock Reference CN17 on SPCP355.300 Smart PSU.
4
Reset button
To reset the controller:
– Press this switch once.
To reset the programming settings to default and reboot the
controller:
– Hold down the button until you are asked if a factory reset is
desired.
– Select YES to reset to factory defaults.
Warning: Defaulting the controller to factory settings deletes all
configuration files, including backups, stored on the controller. All isolates
and inhibits are also deleted. It is recommended you backup your
configuration to a PC before defaulting the controller.
Note: This feature is not available if engineer lockout is enabled.
5
Earth connection
terminal
This terminal is not required and should not be connected.
6
X-BUS interface
This is the SPC communications bus used to network expanders
together on the system. See page [➙ 72].
Terminals 1B and 1A must be connected to SPCP355.300 I/O Expander
This section describes the SPC5350 and SPC6350.
8
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terminals 2B and 2A, respectively
Terminals 2A and 2B must be connected to terminals 2A and 2B,
respectively, of the next expander on the X-BUS.
7
On-board outputs
Outputs OP4, OP5, and OP6 are 12 V open collector resistive outputs
with a 300 mA current rating.
The OP4 load must be connected to the SPCP355.300 Smart PSU.
8
Relay output
The SPC controller provides a 1 A, single-pole, changeover relay that
can be used to drive the strobe output on the external bell.
9
Bell Hold-Off (BHO)
and Tamper Return
(TR)
The BHO (Bell Hold Off) and TR (Tamper Return) (and EXT output) are
used to connect an external bell to the controller. See page [➙ 87].
10
Internal Bell
(negative)
The INT- terminal is used to connect to internal devices such as an
internal sounder. The power for the internal sounder must be connected
to the SPCP355.300 Smart PSU.
11
External Bell
(negative)
The Ext- terminal is used to connect to external devices such as an
external bell. The power for the external sounder must be connected to
the SPCP355.300 Smart PSU.
12
Do not use.
Do not use.
13
Zone inputs
The controller provides 8 on-board zone inputs that can be monitored
using a variety of supervision configurations. These configurations can
be programmed from system programming. The default configuration is
Dual End of Line (DEOL) using resistor values of 4K7. See page [➙ 83].
14
Tamper terminals
The controller provides 2 additional tamper input terminals that can be
connected to auxiliary tamper devices to provide increased tamper
protection. These terminals should be shorted when not in use.
15
Serial port 2 terminal
block
Serial port 2 terminal block (TX, RX, GND) may be used to interface to
an external modem or PC terminal program. Serial port 2 shares a
communications channel with the back-up modem. If a back-up modem
is installed, ensure that no devices are connected to this serial port.
16
Ethernet connectivity
LEDs
The 2 Ethernet LEDs indicate the status of the Ethernet connection. The
left LED indicates data activity on the Ethernet port; the right LED
indicates the Ethernet link is active.
17
Ethernet interface
The Ethernet interface provides for the connection of a PC to the
controller for the purposes of programming the system.
18
USB interface
This USB interface is used to access browser programming or a terminal
program.
19
Serial port 2
This RS232 serial port may be used to interface to an external modem or
PC terminal program. Serial port 2 shares a communications channel
with the back-up modem. If a back-up modem is installed, ensure no
devices are connected to this serial port.
20
Serial port 1
This RS232 serial port may be used to interface to an X10 protocol
device.
21
Optional plug-in
modules
A primary (left slot) and back-up (right slot) module can be connected to
the controller. These modules can be GSM or PSTN modems offering
increased communication functionality. The back-up modem should not
be connected if serial port 2 interface is connected to an external modem
or other device.
22
Real-time clock
battery
Battery for real-time clock (RTC).
23
Auxiliary power input
12 v input from A1 on SPCP355.300 Smart PSU.
See also
Powering expanders from the auxiliary power terminals
[➙ 333]
Door Expander
9
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Each free zone number can be assigned to the zones. But the assignment is not
fixed. If number 9 was assigned to a zone, the zone and an input expander with
the address 1 is connected to the X-Bus (which is using the zone numbers 9-
16).The assigned zone from the two door controller will be moved to the next free
zone number. Configuration will be adapted accordingly.
9 Door Expander
The two door expander can handle up to two doors and two card readers.
Configuration of the operation mode is done via the two door I/Os. Each of the two
door I/Os is responsible for the functionality of two inputs and one output of the
door controller. A specific door number can be assigned to a door I/O, which gives
the inputs and output predefined functionality. If no door number is assigned to
neither of the door I/Os (option “Zones” is selected), the inputs and outputs of the
door controller can be used like inputs and outputs on the control panel. Thus, no
access functionality is available on this two door controller.
If a door number is assigned only to the first door I/O of the two door controller, the
first reader is used as entry reader for this door. If a second reader is available, it is
used as exit reader for the configured door. Two inputs and one output have
predefined functionality and two inputs and one output can be configured by the
user. Additionally, the door position sensor input of the first door can be used as
intrusion zone but only with limited functionality.
If a door number is assigned to each of the two door I/Os, the two doors are
handled independently. The first card reader is used as entry reader for the first
door and the second card reader is used as entry reader for the second door. All
inputs and outputs have predefined functionality. The door position sensor inputs of
the two doors can additionally be used as intrusion zones but only with limited
functionality.
Refer to the Appendix [➙ 354] for details of currently supported card readers and
card formats.
10
Wiring the system
Wiring the X-BUS interface
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NOTICE
The X-BUS is an RS-485 bus with a baud rate of 307 kb. The full performance is
only supported in loop [➙ 73] and spur [➙ 74] wiring configuration (best signal
quality due to daisy chain of isolated sections with 1 transmitter / 1 receiver and
balanced terminating resistors on each end).
The performance in star [➙ 75] or multi-drop [➙ 75] configuration wiring is limited
due to non-optimal conditions of the RS-485 bus specification (reduced signal
quality due to multiple receivers / transmitters in parallel with unbalanced
terminating resistors).
NOTICE
It’s strongly recommended to use loop [➙ 73] or spur [➙ 74] configuration.
Cable Type
Distance
CQR standard alarm cable
200 m
UTP Category: 5 (solid core)
400 m
Belden 9829
400 m
IYSTY 2 x 2 x 0.6 (min)
400 m
10 Wiring the system
10.1 Wiring the X-BUS interface
The X-BUS interface provides for the connection of expanders to the controller.
The X-BUS can be wired in a number of different configurations depending on the
installation requirements. The X-BUS interface baud rate is 307 kb.
The table below shows the maximum distances between controller / expander or
expander / expander for all cable types in loop and spur configuration.
Each device has 4 terminals (1A, 1B, 2A, 2B) for connection to expanders via the
X-BUS cable. The controller initiates a detection procedure on power up to
determine the number of expanders connected on the system and the topology in
which they are connected.
Wiring the system
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Wiring the X-BUS interface
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Wiring expander
1
Previous expander
2
Next expander
3
SPC controller
NOTICE
The SPC42xx/43xx doesn’t support loop configuration (only 1 X-BUS
port).
NOTICE
All expanders/keypads are fitted with a termination jumper by default. In loop
configuration it’s imperative to have these jumpers fitted.
2A
2B
1A
1B
2A2B1A 1B
1A1B2A 2B
1
2
3
4000
Most expanders are equipped with additional terminals 3A/3B and 4A/4B for
branch expander wiring. See page [➙ 81] for instructions on branch expander
wiring.
10.1.1 Loop configuration
The loop (or ring) cabling method offers the highest security by providing fault
tolerant communications on the X-BUS. All keypads and expanders are supervised
and in case of a X-BUS fault or break, the system continues to operate and all
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Wiring the system
Wiring the X-BUS interface
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detectors are monitored. This is achieved by connecting 1A, 1B on the controller to
All expanders/keypads are fitted with a termination jumper by default. In spur
configuration it is imperative to have these jumpers fitted.
2A, 2B on the first keypad or expander. The wiring continues with connection 1A,
1B to 2A, 2B on the next expander and so on to the last keypad or expander. The
last connection is 1A, 1B of the last expander to 2A, 2B of the controller. See wiring
configuration in the figure below.
10.1.2 Spur configuration
The spur (or open loop) cabling method offers a high level of fault tolerance and
may be more convenient on certain installations. In the case of a X-BUS fault or
break, all expanders and detectors up to the fault continue to be supervised.
In this configuration, the SPC controller uses a single the X-BUS port (1A/1B or
2A/2B) to support a group of expanders. See wiring configuration in the figure
below. The last expander in an open loop configuration is not wired back to the
controller and can be identified by the fast LED flashing light (one flash every 0.2
seconds approx) when in Full Engineer programming.
In automatic mode, the expander numbering commences at the expander nearest
to the controller and ends with the expander connected farthest from the controller.
E.g. if 6 expanders are connected in an open loop configuration, then the nearest
expander on the X-BUS connection is expander 1, the second nearest expander is
2, etc. ending with the expander wired farthest from the controller, which is
expander 6.
Wiring the system
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Wiring the X-BUS interface
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Spur configuration
1
Controller
2-4
Expanders
NOTICE
Please read the section for wiring examples [➙ 79] and the section Shielding
[➙ 80] before starting the installation.
SPC42xx/SPC43xx
SPC52xx/SPC53xx/SPC63xx
Max. expanders/keypads
8
16 (8 per X-BUS port)
Total cable length
200 m
200 m
NOTICE
The performance in star or multi-drop configuration wiring is limited due to nonoptimal conditions of the RS-485 bus specification (reduced signal quality due to
multiple receivers/transmitters in parallel with unbalanced terminating resistors).
All expanders/keypads are fitted with termination jumpers, as default, allowing
termination on all the devices. This is imperative for the spur (chain) configuration,
as the jumper acts as a resisting terminator cancelling echoes on the line.
Within the loop wiring configuration all expanders/keypads are fitted with a jumper,
as default, allowing termination on the device.
10.1.3 Star and multi-drop configuration
The star and multi-drop cabling methods enables takeover of existing wirings with
four-core cables in small buildings (typically homes) with low electrical noise
environment. These wiring methods are limited to the specifications below:
10
Wiring the system
Wiring the X-BUS interface
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Star configuration
NOTICE
All expanders/keypads are fitted with a termination jumper by default. In star
configuration it’s imperative to remove these jumpers.
A star configuration is established when multiple expanders are wired back to the
same X-BUS port on the SPC controller. Depending on controller type 2 ports may
exist (1A/1B, 2A/2B), however only one port (1A/1B) is to be used on each keypad
or expander.
In the case of a X-BUS break the single will be disconnected, all other expanders
and detectors continue to be supervised. A short in the cable renders all expanders
disabled.
Star configuration
Wiring the system
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Wiring the X-BUS interface
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Star configuration 2
1
SPC Controller
2-4
Expanders
NOTICE
All expanders/keypads are fitted with a termination jumper by default. In multidrop configuration it’s imperative to remove these jumpers with exception of last
keypad or expander.
Multi-drop configuration
The multi-drop configuration varies in that each expander uses the same
communication channel as it wires onto the next expander, with all expanders
using the same input channel. See multi-drop configuration in the second figure.
In the case of a X-BUS break, all expanders and detectors up to the fault continues
to be supervised. A short in the cable renders all expanders disabled.
Multi-drop configuration
10
Wiring the system
Wiring the X-BUS interface
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Multi-drop configuration 2
1
SPC controller
2-4
Expanders
10.1.3.1 Examples of correct wiring
Star wiring
Wiring the system
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Wiring the X-BUS interface
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Multi-drop wiring
NOTICE
A mix of star and multi-drop configuration is only allowed if the star point is at the
controller X-BUS port. In this case, all expanders/keypads must be wired in multidrop configuration without any other star points in the wiring.
Mixed wiring
10.1.3.2 Examples of incorrect wiring
10
Wiring the system
Wiring the X-BUS interface
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Not allowed wiring with a second star point
NOTICE
If the mix of star and multi-drop configuration is not properly wired the reduced
signal quality may lead to slow reaction time of connected devices (e.g. keypad
operation) or even loss of communication to devices. If such behavior is observed
a wiring in loop OR star configuration is strongly recommended.
The shielding terminals (SHLD) should only be used for cables types with
shielding (e.g. Belden 9829). If shielding is required (i.e. sites with high electric
field interference): connect the cable shield to the SHLD terminals on the
controller and all networked expanders. If the shield needs to be connected to
earth then a cable needs to be connected from the SHLD terminal on the
controller to the chassis earth stud. Do NOT earth the SHLD terminal on any of
the expanders.
NOTICE
For star and multi-drop wiring
It’s not recommended to use shielded cables due to disadvantageous electrical
characteristics (higher capacitance) in star and multi-drop wiring configuration.
However, if shielding is required (i.e. sites with high electric field interference) a
new wiring in proper spur or loop configuration with appropriate installation cable
configuration has to be done.
10.1.4 Shielding
Wiring the system
10
Wiring of branch expander
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10.1.5 Cable Map
Identification and numbering order for expanders and keypads differ depending on
automatic or manual addressing of the expanders. For information on manual and
automatic configuration, see page [➙ 118].
For a system with manual addressing, expanders and keypads have a separate
numbering sequence and are defined by the engineer manually. I.e., expanders
are numbered 01, 02, 03, and so on as desired. Using same numbers, keypads
may be numbered as desired.
In the manual configuration, the system automatically allocates zones to each
expander. For this reason, devices with no zones, such as 8 output expanders
should be addressed last.
For a system with automatic addressing, expanders and keypads belong to the
same numbering group and are assigned by the controller. I.e., expanders and
keypads are together numbered 01, 02, 03, in the order that they are detected
relative to the location of the controller.
10.2 Wiring of branch expander
The wiring of the X-BUS interface with 8 terminals 1A/1B to 4A/4B provides for the
connection of an additional branch expander.
If the branch is not used then the terminals 1A/1B are used to connect to the next
expander/keypad. Terminals 3A/3B and 4A/4B are then not used.
The following modules have branch expander wiring capability (additional terminals
3A/B and 4A/B):
0V of Smart PSU's, Keypads and Expanders must be connected to the SPC
controller 0V (System GND).
10.4 Wiring the relay output
The SPC controller has one on-board 1 A single pole changeover relay that can be
assigned to any of the SPC system outputs. This relay output can switch a rated
voltage of 30 V DC (non-inductive load).
When the relay is activated the common terminal connection (COM) is switched
from the Normally Closed terminal (NC) to the Normally Open terminal (NO).
Wiring the system
10
Wiring the zone inputs
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Standard wiring
NO
Normally open terminal
COM
Common terminal connection
NC
Normally closed terminal
10.5 Wiring the zone inputs
The SPC controller has 8 on-board zone inputs. By default these inputs are
monitored using end of line supervision. The installer can choose from any of the
following configurations when wiring the inputs:
No End of Line (NEOL)
Single End of Line (SEOL)
Dual End of Line (DEOL)
Anti-masking PIR
10
Wiring the system
Wiring the zone inputs
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Default configuration (DEOL 4K7)
1
Tamper
2
Alarm
3
EOL 4K7
4
EOL 4K7
1
Tamper
2
Alarm
3
EOL 4K7
4
Fault
5
EOL 2K2
6
EOL 4K7
EOL Type
Quiescent
Alarm
Min
Nom
Max
Min
Nom
Max
NONE
0Ω
(-100%)
150Ω
300Ω
(+100%)
300Ω
(+100%)
N/A
Infinite
SINGLE_1K
700Ω
1kΩ
1.3kΩ
23kΩ
N/A
Infinite
1
2
SPC
COM
I1
435
6
Anti-Masking PIR configuration
The following table shows the resistance ranges associated with each
configuration.
Single EOLs
Wiring the system
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Wiring the zone inputs
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(-30%)
(+30%)
SINGLE_1K5
1.1kΩ
(-27%)
1.5kΩ
2.1kΩ
(+40%)
23kΩ
N/A
Infinite
SINGLE_2K2
1.6kΩ
(-28%)
2.2kΩ
2.9kΩ
(+32%)
23kΩ
N/A
Infinite
SINGLE_4K7
3.1kΩ
(-22%)
4.7kΩ
6.3kΩ
(+24%)
23kΩ
N/A
Infinite
SINGLE_10K
7kΩ
(-30%)
10kΩ
13kΩ
(+30%)
23kΩ
N/A
Infinite
SINGLE_12K
8.5kΩ
(-30%)
12kΩ
15.5kΩ
(+30%)
23kΩ
N/A
Infinite
EOL Type
Quiescent
Alarm
Min
Nom
Max
Min
Nom
Max
Mask_1K_1K_6K8
(1K / 1K / 6K8)
700Ω
(-30%)
1kΩ
1.3kΩ
(+30%)
1.5kΩ
(-25%)
2kΩ
2.5kΩ
(+25%)
Mask_1K_1K_2K2
(1K / 1K / 2K2)
700Ω
(-30%)
1kΩ
1.3kΩ
(+30%)
1.5kΩ
(-25%)
2kΩ
2.6kΩ
(+30%)
Mask_4K7_4K7_2K2
(4K7 / 4K7 / 2K2)
3.9kΩ
(-18%)
4.7kΩ
5.6kΩ
(+20%)
8.4kΩ
(-11%)
9.4kΩ
10.3kΩ
(+10%)
EOL Type
Fault
Masking
Min
Nom
Max
Min
Nom
Max
Mask_1K_1K_6K8
2700Ω
(-69%)
8.8kΩ
12.6kΩ
(+20%)
- - -
Mask_1K_1K_2K2
2.8k
(-13%)
3.2k
3.6k
(+13%)
3.8k
(-10%)
4.2k
4.8k
(+15)
Mask_4K7_4K7_2K2
6k
(-14%)
6.9k
7.8k
(+14%)
10.8k
(-7%)
11.6k
12.6k
(+9%)
EOL Type
Quiescent
Alarm
Min
Nom
Max
Min
Nom
Max
DUAL_1K0_470
400Ω
(-20%)
470Ω
700kΩ
(+40%)
1.1kΩ
(-27%)
1.5kΩ
2kΩ
(+34%)
DUAL_1K0_1K0
700Ω
(-30%)
1kΩ
1.3kΩ
(+30%)
1.5kΩ
(-25%)
2kΩ
2.6kΩ
(+30%)
DUAL_1k0_2k2
1.6kΩ
(-28%)
2.2kΩ
2.9kΩ
(+32%)
2.3kΩ
(-29%)
3.2kΩ
4.2kΩ
(+32%)
DUAL_1k5_2k2
1.6kΩ
(-28%)
2.2kΩ
2.9kΩ
(+32%)
2.7kΩ
(-28%)
3.7kΩ
4.8kΩ
(+30%)
DUAL_2K2_2K2
1.6kΩ
(-28%)
2.2kΩ
2.9kΩ
(+32%)
3.4kΩ
(-23%)
4.4kΩ
5.6kΩ
(+28%)
DUAL_2k2_4k7
4.1kΩ
(-13%)
4.7kΩ
5.4kΩ
(+15%)
6kΩ
(-14%)
6.9kΩ
7.9kΩ
(+15%)
DUAL_2K7_8K2
7.2 kΩ
(-13%)
8.2kΩ
9.2kΩ
(+13%)
9.9kΩ
(-10%)
10.9kΩ
11.9kΩ
(+10%)
DUAL_3K0_3K0
2.1kΩ
3.0kΩ
3.9kΩ
4.5kΩ
6kΩ
7.5kΩ
Dual EOLs with PIR Masking and Fault
Dual EOLs
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Wiring the system
Wiring an external SAB bell
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(-30%)
(+30%)
(-25%)
(+25%)
DUAL_3K3_3K3
2.3kΩ
(-26%)
3.3kΩ
4.3kΩ
(+31%)
4.9kΩ
(-26%)
6.6kΩ
8.3kΩ
(+26%)
DUAL_3K9_8K2
7.0 kΩ
(-15%)
8.2kΩ
9.5kΩ
(+16%)
10.5kΩ
(-14%)
12.1kΩ
13.8kΩ
(+15%)
DUAL_4K7_2K2
1.6kΩ
(-28%)
2.2KΩ
2.9kΩ
(+32%)
5kΩ
(-28%)
6.9kΩ
8.8kΩ
(+28%)
DUAL_4K7_4K7
3.3kΩ
(-30%)
4.7kΩ
6.1kΩ
(+30%)
7kΩ
(-26%)
9.4kΩ
11.9kΩ
(+27%)
DUAL_5K6_5K6
4.0kΩ
(-26%)
5.6kΩ
7.2kΩ
(+29%)
8.3kΩ
(-26%)
11.2kΩ
14.1kΩ
(+26%)
DUAL_6K8_4K7
3.3kΩ
(-30%)
4.7kΩ
6.1kΩ
(+30%)
8.1kΩ
(-30%)
11.5kΩ
14.9kΩ
(+30%)
DUAL_2k2_10K
9.2kΩ
(-8%)
10kΩ
10.8kΩ
(+8%)
11.3 kΩ
(-8%)
12.2kΩ
13.2kΩ
(+9%)
DUAL_10k_10k
7.5kΩ
(-25%)
10kΩ
12.5kΩ
(+25%)
17kΩ
(-15%)
20kΩ
23kΩ
(+15%)
For all EOL types, a resistance below 300Ω is considered a short. If the
resistance is not within the thresholds stated, this is treated as a disconnection.
A
Strobe +
B
Strobe –
C
Hold off
D
Tamper return
E
Bell -
F
Bell +
10.6 Wiring an external SAB bell
On an external bell to the SPC controller board the relay output is wired to the
strobe input with Bell Hold Off (BHO) and Tamper Return (TR) connected to their
respective inputs on the external bell interface.
A resistor (2K2) is pre-fitted on the controller board between the BHO and TR
terminals. When wiring an external bell, connect this resistor in series from the TR
terminal on the controller to the TR terminal on the external bell interface.
External bell wiring
Wiring the system
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Wiring an internal sounder
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10.7 Wiring an internal sounder
IN–
IN– (SPC controller)
IN+
IN+ (SPC controller)
1
2
To wire an internal sounder to the SPC controller connect the IN+ and IN–
terminals directly to the 12 V sounder input.
Internal sounder wiring (12 V)
10.8 Wiring Glassbreak
SPC supports the RI S 10 D-RS-LED glassbreak interface in combination with
GB2001 glassbreak detectors.
The following diagram shows how the glassbreak interface is wired to the SPC
controller for power, or to an 8-in/2-out expander:
For information on wiring the glassbreak interface to a zone, see the productspecific documentation.
For information on wiring the glassbreak sensors to the glassbreak interface, see
the product-specific documentation.
10.9 Installing plug-in modules
2 modems (PSTN or GSM) may be installed on the controller board to increase
functionality. The picture below shows the 2 slots available for each modem, the
primary (left) slot and the back-up (right) slot.
If both modem slots are available, always install the plug-in module in the primary
slot; the system always attempts to make PSTN or GSM calls on a modem
installed on the primary slot before attempting to use the back-up slot.
10
Wiring the system
Installing plug-in modules
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WARNING
Modems are not plug and play. You must log on to the panel as Full Engineer,
then power the controller board down before installing, removing or moving
modems from one position to the other. After completing the modem task,
reconnect the system to the power supply and log on to the controller as Full
Engineer again. Configure and save the configuration. Failure to follow this
process results in a CRC error.
1
Wireless receiver slot
2
Primary modem slot
3
Back-up modem slot
For installation please refer to the corresponding Installation Instruction.
Plug-in modules
Powering up the SPC controller
11
Powering from battery only
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NOTICE
The battery will continue to power the system until deep discharge level (10.5 V to
10.8 V) has been detected. The time duration that the system will hold up on
battery will depend on the external loading and Ah rating of the battery.
11 Powering up the SPC controller
The SPC controller has two power sources, the mains supply and the integral
standby battery. A qualified electrician should undertake connection to the mains
and the mains supply should be connected from a spur that can be isolated. See
Page [➙ 346] for full details of conductor sizes / fuse ratings etc.
The SPC should be powered from the mains first and then the internal standby
battery. For compliance to EN only one battery should be fitted of the appropriate
capacity.
11.1 Powering from battery only
It is recommended that when powering a system from battery only, the battery
should be in a fully charged state (>13.0 V). The system will not power up when
using a battery with less than 12 V and no mains is applied.
12
Keypad user interface
SPCK420/421
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12 Keypad user interface
The following keypad models are available:
SPCK420/421 — referred to throughout this document as the LCD Keypad
SPCK620/623 — referred to throughout this document as the Comfort Keypad
12.1 SPCK420/421
12.1.1 Introduction
The LCD keypad is a wall-mounted interface that allows:
Engineers to program the system through the Engineer Programming menus
(password protected) and to set/unset the system; a user can control the
system on a day-to-day basis.
Users to enter User Programming menus (password protected), and to perform
operational procedures (set/unset) on the system. (Please refer to the
SPCK420/421 User Manual for more details of user programming.)
The LCD keypad unit includes an integral front tamper switch and has a 2 line x 16
character display. It features an easy-to-use navigation key to assist in locating
required programming options, and has 2 context sensitive soft keys (left and right)
for selecting the required menu or program setting. 3 LEDs on the keypad provide
an indication of AC power, system alerts, and communications status.
The LCD keypad may be factory fitted with a Portable ACE (PACE) proximity
device reader (see page [➙ 343]).
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LCD keypad
1
LCD display
The keypad display (2 lines x 16 characters) shows all alert and warning
messages and provides a visual interface for programming the system
(engineer programming only). The display can be adjusted for contrast and
under which conditions the backlight comes on.
2
Alphanumeric
keys
Alphanumeric keypad allow for both text and numeric data entry during
programming. Alphabetic characters are selected by applying the appropriate
number of key presses. To switch between upper and lower case characters,
press the hash (#) key. To enter a numeric digit, hold down the appropriate
key for 2 seconds.
3
Leverage access
tabs
The leverage access tabs provide access to the keypad back assembly clips.
Users can unhinge these clips from the front assembly by inserting a 5mm
screwdriver into the recesses and pushing gently.
4
Back assembly
securing screw
This screw secures the front and back assemblies on the keypad. This screw
must be removed to open the keypad.
5
LED status
indicators
The LED status indicators provide information on the current status of the
system as detailed in the table below.
6
Soft function keys
The left and right soft function keys are context sensitive keys to navigate
through menus/programming.
7
Proximity device
receiver area
If the keypad has been fitted with a proximity device receiver (see page
[➙ 343]), users should present the Portable ACE Fob to within 1 cm of this
area to SET/UNSET the system.
8
Multi-functional
navigation Key
The multi-functional navigation key in combination with the keypad display
provides an interface for programming the system.
LED
Status
4
ghi
5
jkl
6
mno
7
pqrs
8
tuv
9
wxyz
2
abc
3
def
#
0
1
ok
1
2
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5
6
7
8
3
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AC mains
(Green)
Indicates the presence or failure of the mains supply
FLASHING: AC mains fault detected
STEADY: AC mains OK
System alert
(Yellow)
Indicates a system alert
FLASHING: System alert detected; display indicates the location and nature
of alert. If the system is SET, then NO indication is given of system alerts
OFF: No alert detected; If a keypad is assigned to more than one area, LED
does not indicate an alert condition if any of those areas is SET
X-BUS Status
(Red)
Indicates the status of the X-BUS communications when in FULL ENGINEER
programming
Flashes regularly: (once every 1.5 seconds approx) indicates
communications status is OK
Flashes quickly: (once every 0.25 seconds approx) indicates the keypad is
the last expander on the X-BUS
If the keypad is being installed for the first time and power is supplied to it
before a connection to the controller X-BUS interface is made, the LED
remains in the ON state
1
RIGHT SOFT
KEY
This key is used to select the option presented on the right side of the bottom
line display.
Possible values are:
→ SELECT to select the option displayed on the top line
→ ENTER to enter the data displayed on the top line
→ NEXT to view the next alert after the one displayed on the top line
→ CLEAR to clear the alert displayed on the top line
→ SAVE to save a setting
2
OK
The OK button acts as a SELECT key for the menu option displayed on the top
line and also as an ENTER/SAVE key for data displayed on the top line.
3
In Programming mode, the right arrow key advances the user through the
menus in the same way as pressing the SELECT option (right soft key).
In data entry mode, press this key to move the cursor one position to the right.
4
In Programming mode, the down arrow key moves the user to the next
programming option in the same menu level. Continually press this key to
scroll through all programming options available on the current menu level.
In alphanumeric mode, press this key over an upper case character to change
the character to lower case.
ok
35
6
4
1
2
7
8
9
12.1.2 Using the LCD keypad interface
Keypad display
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When alerts are displayed, the down arrow key moves the user to the next
alert message in the order of priority. (See section on Prioritization of Display
Messages)
5
In Programming mode, the left arrow key returns the user to the previous menu
level. Pressing this key when in the top menu level exits the user from
programming.
In data entry mode, press this key to move the cursor one position to the left.
6
In Programming mode, the up arrow key moves the user to a previous
programming option in the same menu level. Continually press this key to
scroll through all programming options available on the current menu level.
In Alphanumeric mode, press this key over a lower case character to change
the character to upper case.
7
LEFT SOFT
KEY
This key is used to select the option presented on the left side of the bottom
line display.
Possible values are:
→ EXIT to exit programming
→ BACK to return to previous menu
8
BOTTOM LINE
OF DISPLAY
In the IDLE state, this line is blank.
In Programming mode, this line displays options available to the user. These
options align over the left and right soft keys for selection as required.
9
TOP LINE OF
DISPLAY
In the IDLE state, displays the current date and time. In Programming mode,
this line displays one of the following:
→ The programming feature to be selected
→ The current setting of the selected feature
→ The nature of the current alert during an alert condition. (See Prioritization of
Display Messages below)
Prioritization of display messages
Trouble messages and alerts are displayed on the keypad in the following order:
Zone
– Alarms
– Tamper
– Trouble
Area Alerts
– Fail to set
– Entry time out
– Code tamper
System Alerts
– Mains
– Battery
– PSU fault
– Aux fault
– External bell fuse
– Internal bell fuse
– Bell tamper
– Cabinet tamper
– Aux tamper 1
– Aux tamper 2
– Wireless jamming
– Modem 1 fault
– Modem 1 line
– Modem 2 fault
– Modem 2 line
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– Fail to communicate
– User panic
– XBUS cable fault
– XBUS communications fault
– XBUS mains fault
– XBUS battery fault
– XBUS power supply fault
– XBUS fuse fault
– XBUS tamper fault
– XBUS antenna fault
– XBUS wireless jamming
– XBUS panic
– XBUS fire
– XBUS medical
– XBUS Power supply link
– XBUS output tamper
– XBUS Low voltage
– Engineer restore Required
– Autoarm
System information
– Soaked zones
– Open zones
– Area state
– Low battery (sensor)
– Sensor lost
– WPA low battery
– WPA lost
– WPA test overdue
– Camera offline
– Fob low battery
– Xbus over current
– Installer name
– Installer phone
– Engineer enable
– Manufacture enable
– Reboot
– Hardware fault
– Aux over current
– Battery low
– Ethernet link
– System name
12.1.3 Data entry on the LCD keypad
Entering data and navigating the menus on the LCD keypad is facilitated through
the use of the programming interface. The use of the interface for each type of
operation is detailed below.
Entering numeric values
In Numeric Entry mode, only the numeric digits (0 - 9) can be entered.
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To move the position of the cursor one character to the left and right
respectively, press the left and right arrow keys.
To exit from the feature without saving, press the BACK menu key.
To save the programmed setting press ENTER or OK.
Entering text
In Text Entry mode, both alphabetic characters (A-Z) and numeric digits (0 – 9) can
be entered.
To enter an alphabetic character, press the relevant key the required number of
times.
To enter a language specific special character (ä, ü, ö…) press button 1 to
cycle through the special characters.
To enter a space + special characters (+, -./[ ]…) press button 0.
To enter a digit, hold the relevant key down for 2 seconds and release.
To move the position of the cursor one character to the left and right
respectively, press the left and right arrow keys.
To exit from the feature without saving, press BACK.
To save the programmed setting press ENTER or OK.
To change the case of an alphabetic character, press the up/down arrow keys
when the character is highlighted by the cursor.
To toggle between upper and lower case for all subsequent characters, press
the hash (#) key.
To delete character to the left of the cursor, press the star key(*).
Selecting a programming option
In navigation mode, the Engineer/User selects one of a number of pre-defined
programming options from a list.
To scroll through the list of options available for selection, press the up and
down arrow keys.
To exit from the feature without saving, press BACK.
To save the selected option, press SAVE or OK.
12.2 SPCK620/623
12.2.1 Introduction
The Comfort keypad is a wall-mounted interface that allows:
Engineers to program the system through the Engineer Programming menus
(password protected) and to set/unset the system; a user can control the
system on a day-to-day basis.
Users to enter User Programming menus (password protected), and to perform
operational procedures (set/unset) on the system. (Please refer to the
SPC620/623 User Manual for more details of user programming)
The SPCK620 is equipped with soft keys and large graphical LCD for easy
operation. The functionality can be enhanced with key switch expander SPCE110
or indication expander SPCE120.
The SPCK623 is equipped with a proximity card reader (125 kHz EM 4102) for
easy user access, soft keys, large graphical LCD and voice annunciation support.
The functionality can be enhanced with key switch expander SPCE110 or
indication expander SPCE120.
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1
LED status indicators
The LED status indicators provide information on
the current status of the system as detailed in the
table below.
2
LCD display
The keypad display shows all alert and warning
messages and provides a visual interface for
programming the system (engineer programming
only). (See section on Display Message
Prioritization) The display can be configured under
which conditions the backlight comes on.
3
Soft function keys
Context sensitive keys to navigate through
menus/programming.
4
Enter key
Confirm display or input.
5
Back menu key
Go back in the menu
Reset buzzers, siren and alarms in the memory.
6
Proximity device receiver area
Only SPCK 623: If the keypad has been fitted with
a proximity device receiver, users should present
the Portable ACE Fob to within 1 cm of this area.
7
Alphanumeric keys
Alphanumeric keypad allow for both text and
numeric data entry during programming. Alphabetic
characters are selected by applying the appropriate
number of key presses. To switch between upper
and lower case characters, press the hash (#) key.
To enter a numeric digit, hold down the appropriate
key for 2 seconds.
8
Multi-functional navigation key
Navigation through menus and to scroll through
alert messages. (See Display Message
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Prioritization below)
9
Information key
Displays information.
Prioritization of display messages
Trouble messages and alerts are displayed on the keypad in the following order:
Zone
– Alarms
– Tamper
– Trouble
Area Alerts
– Fail to set
– Entry time out
– Code tamper
System Alerts
– Mains
– Battery
– PSU fault
– Aux fault
– External bell fuse
– Internal bell fuse
– Bell tamper
– Cabinet tamper
– Aux tamper 1
– Aux tamper 2
– Wireless jamming
– Modem 1 fault
– Modem 1 line
– Modem 2 fault
– Modem 2 line
– Fail to communicate
– User panic
– XBUS cable fault
– XBUS communications fault
– XBUS mains fault
– XBUS battery fault
– XBUS power supply fault
– XBUS fuse fault
– XBUS tamper fault
– XBUS antenna fault
– XBUS wireless jamming
– XBUS panic
– XBUS fire
– XBUS medical
– XBUS Power supply link
– XBUS output tamper
– XBUS Low voltage
– Engineer restore Required
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– Autoarm
Description
Symbol
Color
Operation
Description
Information
Blue
On
The system or area cannot be set.
Forced setting is possible (faults or open
zones can be inhibited).
Flashing
The system or area cannot be set or
forced set (faults or open zones cannot
be inhibited).
Off
The system or area can be set.
Amber
Flashing
Engineer is on site.
User Green
On
Assigned area is unset.
Flashing
Assigned area is Partset A / B
Off
Assigned area is fullset
Alarm Red
On
Alarm
Flashing
-
Off
No alarm
Alert Amber
On
-
Flashing
Trouble
Off
No trouble
Mains Green
On
System ok
Flashing
Mains fault
!
System information
– Soaked zones
– Open zones
– Area state
– Low battery (sensor)
– Sensor lost
– WPA low battery
– WPA lost
– WPA test overdue
– Camera offline
– Fob low battery
– Xbus over current
– Installer name
– Installer phone
– Engineer enable
– Manufacture enable
– Reboot
– Hardware fault
– Aux over current
– Battery low
– Ethernet link
– System name
12.2.2 LED description
Keypad user interface
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Off
No bus connection
NOTICE
The LED indications for information, area status, alarm and fault is deactivated in
idle state of the keypad. A valid user PIN has to be entered. It is configurable if
the power indication can be seen in idle state.
NOTICE
The rights of a user can be restricted by the user settings or the settings of the
keypad the user is logging in to. Only if the user and the keypad that is being
used for logging in have the right for an area, the area is displayed. If the user has
the right for several areas but the keypad has only the right for one area, the user
will also see the single area view.
Panic Alarm
Fire alarm
12.2.3 Viewing mode description
There are 2 viewing modes (automatic):
Multi area view: User has access to several areas. Displaying the areas is done
via area groups. If no area group is configured, only the general group “All my
areas” is displayed.
Single area view: The user has only rights for 1 area. In the single area view,
only one area is displayed in large fonts and can be controlled directly.
12.2.4 Function keys in idle state
Emergency Keys
Depending on configuration, emergency keys are displayed. A simultaneous
pressing of the keys activates an emergency call.
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Medical Alarm
The activated process depends on the system configuration. Please ask the
installer for details.
Direct Settings
Depending on configuration, the direct set option is displayed. A forced set / part
set without PIN is possible of the area the keypad is assigned to.
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