Honeywell SC105 User manual

Honeywell SC105 Mini-Seismic Vibration Detector
Installation Guide
1. General Information
SC105 Mini-Seismic Vibration Detector is a seismic or structural vibration detector designed to detect selected vibrations from
burglary or intrusion attempts on mini-ATMs, Containers, Filing Cabinets and so on. The detector consists of a sensor to
convert mechanical vibrations to electrical signals, a signal conditioning block, signal analysis and alarm criteria blocks, output
alarm circuits, tamper protection, and a switching block for selecting detector settings, all in a miniature metal housing.
This Installation Guide provides general information about the mounting and configuring of SC105 Mini-Seismic Vibration
Detector. For more details, such as planning detector locations, please refer to “SC105 Mini-Seismic Vibration Detector
Planning and Installation Guide”.
2. Applications
SC105 Mini-Seismic Vibration Detector is designed to detect any known attack tool on:
Mini-ATMs
Filing Cabinets
Gates
Containers
Chests
Vending machines
Ticket machines
2.1 Application Settings
Sensitivity Settings Material Detection
Radius Applications Noise Level
Steel 3.0 m
Ghigh Concrete 2.0 m Mini-ATMs (grade 3,4) and Containers Insignificant noise level
Steel 1.5 m
Gnormal Concrete 1.0 m Mini-ATMs (grade 1,2) and Chests Moderate noise level
Glow Steel 1.0 m Filing Cabinets, Gates Considerable noise level
Gnoisy Sheet Steel <3.0 m Vending machines, Ticket machines Heavy noise level
Notes:
1. Sensitivity settings (Ghigh, Gnormal, Glow, Gnoisy) are defined in “4.2.1 DIP Switch Settings”.
2. The parameters in the table above are only for reference, and they may vary according to the quality of the material.
3. The detection range will be reduced if cracks and joints exist in the material.
3. Mounting the Detector
SC105 Mini-Seismic Vibration Detector can be mounted on any solid surface, of which the most common surfaces are: Steel,
Stainless Steel, Hardened Steel and Concrete.
3.1 Opening the Detector
Before mounting the detector, separate the detector cover from the detector base first (by loosing the top screw, see Figure 1).
Figure 1 Open the detector
Detector Cover Detector Base
Figure 2 Drill Plan
Note Plea se remove the drill :
plan after mounting holes
have been drille d
3.2 Mounting on Steel
When mounting the detector on a flat and smooth steel surface, both Drill Plan (see Figure 2) and Detector Base can be used
to mark the mounting holes.
1. Remove and clean paint from the mounting area.
2. Attach the detector base or drill plan on the mounting area, then mark the outline and center punch detector mounting
holes A, B and Test Transmitter SC113 mounting hole C.
A
B
Notes:
Detector base cannot be used to mark Test
Transmitter SC113 mounting hole C.
Skip marking hole C if Test Transmitter
SC113 is not used.
C
A
B
3. Drill detector mounting holes A, B (Ø 3.3 mm and
minimum 8 mm deep), and then thread the two holes
with a M4 Tap (6 mm at least).
4. Drill Test Transmitter SC113 mounting hole C (Ø 3.3
mm and minimum 8 mm deep), and then thread the
hole with a M4 Tap (6 mm at least).
5. Remove dill plan and all of the burrs.
Notes:
Cool the tools with oil while drilling and threading.
Skip step 4 if Test Transmitter SC113 is not used.
6. Attach Test Transmitter SC113 on the mounting area
(at C) and then use the M4×8 mm screw to fix it.
Note: Skip this step if Test Transmitter SC113 is not used.
C
7. Attach the detector base on the steel surface and then
use the two M4×8 mm screws provided to fix it.
8. Wire and configure the detector (see “4. Wirings and
Settings”), and then use the top screw to fix the detector
cover properly.
3.3 Mounting on Stainless Steel or Hardened Steel
When mounting on stainless steel or hardened steel, Mounting Plate SC110 (UPSIDE DOWN, see Figure 4) must be used
and should be welded on the mounting surface first.
Figure 3 Mounting Plate SC110
UPSIDE
F
G
C
D
E
A
B
H
J
I
This orientation is used for mounting
on concrete.
A, B– Detector SC105 mounting holes
C, D, – Test Transmitter SC113 locating holes
E– Mounting Plate SC110 Mounting hole
F, G– Welding Slots
H,I,J – Countersink screw hole (compatible with
other mounting plates)
Figure 4 Mounting Plate SC110
UPSIDE DOWN
FG
C
D
E
A
B
H
J
I
This orientation is used for mounting on
stainless steel or hardened steel.
24-hour surveillance of mini-ATMs, Filing Cabinets and so on
Flat frequency response sensor for genuine signal analysis
DIP switch sensitivity settings
Noise sensitivity settings using build-in diagnostic tool
Integrated EOL resistors
High detection capability
Low current consumption
Standard drill sheet protection
Miniature metal housing – easy to fit in restricted spaces
1. Remove paint from the mounting area
(especially welding area).
2. Attach
Mounting Plate SC110 on the mounting
area, and then mark the outline.
3. Fix Mounting Plate SC110 into the outline marked and ensure it
cannot move, and then along the INSIDE of the welding slots
weld Mounting Plate SC110 on the mounting surface.
Note: The welding must be done along the INSIDE of the welding
slots, otherwise Mounting Plate SC110 can be deformed.
4. Tap off slag and remove weld spatter and make sure the whole mounting surface is still flat.
5. Attach Test Transmitter SC113 on Mounting Plate SC110 (at C) and then use the M4×8 mm screw to fix it.
Note: Skip this step if Test Transmitter SC113 is not used.
C
6. Attach the detector base on Mounting Plate
SC110 and then use the two M4×8 mm screws
provided to fix it.
7. Wire and configure the detector (see “4. Wirings and
Settings”), and then use the top screw to fix the detector cover
properly.
3.4 Mounting on Concrete
When mounting on Concrete, Mounting Plate SC110 (UPSIDE, see Figure3) must be used.
Note: Mounting directly on a bare or plastered concrete surface may result in low detection sensitivity and cause damage to
the detector.
1. Attach
Mounting Plate SC110 on the mounting area and
then mark the outline and center hole E.
2. Drill the center hole E of Ø 10 mm and minimum 65 mm
deep, and then remove all drill residuals and plaster.
E
3. Insert M6 anchor into hole E and make sure the end
of the anchor can reach but not protrude the concrete
surface.
Note: Use a longer M6 anchor or a distance sleeve
between Mounting Plate SC110 and the anchor if the M6
anchor cannot reach the solid concrete.
4. Attach
Mounting Plate SC110 into the outline marked,
and then through the center hole insert M6×50 mm
screw into M6 anchor in the wall.
5. Tighten M6×50 mm screw but do not fix Mounting
Plate SC110 on the concrete surface, and make sure
Mounting Plate SC110 does not expand either.
Note: Mounting Plate SC110 can be rotated here.
Note: Skip step 6 to step 11 if Test Transmitter SC113 is not used.
6. Rotate Mounting Plate SC110 clockwise 180˚and mark
hole C.
7. Rotate
Mounting Plate SC110 anticlockwise until the
marked hole C can be seen through hole D.
Note: Tighten the center screw slightly to stabilize Mounting
Plate SC110 at this step.
8. Through hole D drill a hole of Ø 5.5 mm and minimum 25
mm deep and then remove all residuals.
180 °
Clockwise
CD
D
D
C
C
Anticlockwise
9. Release and turn Mounting Plate SC110 to the original
orientation (see the figure below).
10. Insert M4 anchor into the drilled hole and make sure
the end of the anchor cannot protrude the concrete
surface.
11. Attach Test Transmitter SC113 on M4 anchor, and
then use M4×14 mm screw to fix it permanently.
12. Tighten M6×50 mm screw (and knock on the screw head with a hammer when needed) until the mounting plate is
fixed on the concrete surface and cannot be rotated.
13. Attach the detector base on Mounting Plate SC110 and
then use the two M4×8 mm screws provided to fix it.
14. Wire and configure the detector (see “4. Wirings and
Settings”), and then use the top screw to fix the
detector cover properly.
Detector mounting hole ATest Transmitter SC113
mounting hole C
Note: The top screw is only
used to fix the cover, so do
not tighten it too much
when mounting the detector
Note: The drill plan shall be
removed after all of the mounting
holes have been drilled.
Detector mounting hole B

4. Wirings and Settings 4.2.4 J1 Remote Test Settings
Wirings and settings are configured on detector base. All function modules on the detector base are shown as below.
Figure 5 Detector Base
Position Function Method Result
1 No test Connect jumper to J1 pin 1 only.
1-2 Electronics test
Connect jumper to J1 pin 1 and 2;
Apply 0 volt to terminal 10 on the terminal
block (see Figure 6) to start the test.
A successful remote test will be
acknowledged by an alarm from
the detector within 1 second.
2-3
Complete test
(including mounting check
)
Connect Test Transmitter SC113 to J1
(black cable to pin 2 and red cable to pin 3);
Apply 0 volt to terminal 10 on the terminal
block (see Figure 6) to start the test.
A successful remote test
including mounting check will be
acknowledged by an alarm from
the detector within 1 second.
J1
DIP Switches Noise LED
Tamper Switch
J19
EOL Jumpers
J20
Terminal Block
* Factory default settings are shown in grey.
5. Maintenance
Check the detector mounting and functions regularly (once a year at least).
Note: Connect Terminal 9 to low level (<0.6VDC), the sensitivity of detector will be reduced to about 1/8 of original level.
4.1 Wirings
6. Technical Specifications
4.1.1 Terminal Block Wiring
Power Requirements
Supply Voltage 8 ~ 16 VDC, nominal 12 VDC
Current Consumption (Quiescent) Typical 3 mA @ 12 VDC
Current Consumption (Alarm) Typical 2 mA @ 12 VDC
Voltage Ripple 100Hz, ≤10% of nominal voltage
Step Change Unom +/- 25%
Slow Change of Supply Voltage Unom +/- 25%
Warm-up Time < 5sec
Sensitivity
Adjustable Sensitivity 4 levels by DIP Switches
Reduced Sensitivity (Maintenance, Service) Input Active low (terminal 9) ≤0.6 VDC
Detection Radius (Thermal Tools) on Concrete K350 2 m
Detection Radius (Thermal Tools) on Steel 3 m
Alarm Outputs
Solid State Relay SPST (Normally Closed) 30 VDC / 100 mA / typical Ri=25 Ω
Transistor Open Collector Active low during alarm / Ri=1.38 kΩ
Alarm Hold Time Approx. 2.5 sec
Sabotage Protection
Pry-off and Cover Switch 30 VDC / 100 mA
Low Supply Voltage Alarm * < 6.5 VDC
Temperature Alarm * +85°C ± 5°C
Internal Functional Alarm* Stainless steel drill shield
* Sabotage and fault functions will cause the alarm relay to drop.
Inputs
Remote test of detector mounting and detector function or
Remote test of detector electronics only. Active low≤0.6 VDC, test duration < 1 sec
Reduced Sensitivity (Maintenance, Service) Input Active low≤0.6 VDC, duration = as long as active low
Sensitivity reduction to 12.5%
Installation Tool
A noise and alarm indicator is incorporated to support sensitivity setting
Environmental Conditions
Maximum Humidity 95% RH (non-condensing)
Operation Temperature -40°C ~ +70°C
Storage Temperature -50°C ~ +70°C
Environmental Class (VdS) III
Housing Protection Category IP43 IK04
Housing
Dimensions (H x W x D) 80 mm x 60 mm x 21 mm
Chassis and Cover Die-cast metal
Color RAL7035 (light grey)
Weight 0.228 kg
The wirings should be connected to the terminal block first, and then should be connected to the panel.
Figure 6 Terminal Block Wiring
Note: The open collector
alarm output (terminal 8) will
be active low during alarm.
4.1.2 Panel Wiring
According to the different terminal block wirings, there are two ways to connect the detector to the panel.
Alarm and tamper configured to one loop Alarm and tamper configured to two loops
RTI RSI S/OC T2 T1 C NC V+0V
Z1
COM
Tamper
RT
Alarm
J20
RA
Connected to a zone configured as Dual-End-of-Line
RTI RSI S/OC T2 T1 C NC V+0V
Tamper
RT
Alarm
J20
Z1 COM
Z2
Connected to a zone configured as Single-End-of-Line
Detector Detector
Note: When this wiring
diagram is used, RT still
can be used for tamper
loop, but the jumper on
RA needs be removed
and the external EOL
resistor has to be
connected to alarm
loop.
External EOL
Resistor
Panel Panel
4.2 Settings
4.2.1 DIP Switch Settings
ON
OFF
Sensitivity Settings Application Settings Noise LED
1 2 3 4
Ghigh off off High sensitivity setting off Delay off Noise indicator OFF
Gnormal on off Normal sensitivity setting on No Delay on Noise indicator ON
Glow off on Low sensitivity setting
Gnoisy on on Noisy environment sensitivity setting
* Factory default settings are shown in grey.
Notes:
1. Any change of DIP switch 3 will cause an alarm.
7. Certifications and Approvals 8. Ordering Information
SC105 Mini-Seismic Vibration Detector meets approvals as
below:
NF&A2P type 3
IMQ type 3 (Pending)
UL (Pending)
ULC (Pending)
CE
CCC
VdS G 110005 class C
Mounting Plate
Movable Mounting Kit
Keyhole Protection Kit
Test Transmitter
1.8 m Armored Cable Kit (8 wires)
External Test Transmitter
Recess Mounting Box
Floor Mounting Box
Spacer for Keyhole Protection Kit
SC110
SC111
SC112
SC113
SC114
SC115
SC116
SC117
SC118
2. Any change of DIP switch 3 must be followed by a power off sequence of 5 seconds.
3. Application setting with DIP switch 3 in ON position gives normal 100% response time to alarm. In applications with intermittent
noise a delayed 200% response to alarm is possible by setting DIP switch 3 in OFF position. Example: A Lobby ATM with extensive
internal or external intermittent noise and the sensitivity is needed to fully protect the ATM.
4. The Noise LED will light or flash intensively if the noise level (external or internal) is too high. Reduce the sensitivity with DIP switch
1 and 2 until the Noise LED turns off.
5. When scratching the surface of the protected object lightly, the Noise LED will turn on as a confirmation of detection.
6. In case of alarm, the Noise LED will flash with 5 Hz, appx. 2.5 seconds.
7. Turning off the Noise LED by DIP switch 4 will reduce current consumption.
4.2.2 EOL Jumper Settings
9. Shipping List
Jumper Position EOL Value
1-2 1.0 K
2-3 2.2 K
4-5 4.7 K
TAMPER
(RT)
5-6 5.6 K
1-2 1.0 K
2-3 2.2 K
4-5 4.7 K
ALARM
(RA)
5-6 5.6 K
Description Quantity
SC105 Mini-Seismic Vibration Detector 1
Screw M4x8mm 2
Cable Strap 1
Drill Plan 1
Two-way Jumper Link 1
Installation Guide 1
* Factory default settings are shown in grey.
Notes:
Notice for Installation Guide
Pictures in the manual are for reference only. Please see the actual items.
The products will be updated and the information shall not be distributed.
Please read the book before operation and keep it properly for future use.
The manual has been reviewed and the accuracy is guaranteed. If there is any uncertainty or controversy, please refer to the final
explanation of Honeywell. Honeywell does not take any responsibility for any consequences caused by misunderstanding of the
manual or improper operations.
1. Refer to Control Panel manual for proper EOL selection.
2. For each block, only one EOL value can be set.
3. Other EOL resistor values can be used by removing all jumpers on the EOL jumper field and wire new resistors directly on the
terminal block.
4.2.3 J19/J20 Settings
No Jumper Jumper
J19 Terminal 8 = Not Used Terminal 8 = Alarm O/C Output
J20 Connect SC111/SC112 to the loop Normal Close Honeywell
* Factory default settings are shown in grey.
© 2010 Honeywell International Inc.
www.honeywell.com/security
Document 800-04952 Rev. C