bolid S2000-IPDL User manual

Orion ISS
This Installation Manual contains the instructions that must be followed for proper installation
and commissioning the S2000-IPDL detector.
The detector is described and the rules to adjust and operate it are discussed in the User’s
Manual (which can be found at the site of the Bolid Company http://bolid.ru in the section
PRODUCTS at the page of S2000-IPDL).
1 SAFETY PRECAUTION
-The detector is a source of danger neither for human nor for protected material
assets (including the emergency situations).
-The design and circuitry of the detector ensure its fire safety during operation
(including emergency operation).
-As to methods of human protection against electric shock, the detector meets
the requirements of Class III as per Russian GOST 12.2.007.0.
-In terms of voltage values, the detector is not dangerous to human life and
health, but during repair, inspection, installation, and operation it is necessary to
comply with safety measures in accordance with Regulations for Operation of
Consumers’ Electrical Installations and Safety Rules for Operation of
Consumers’ Electrical Installations.
-While installing and maintaining the detector please comply with the rules for
working at heights.
2 MOUNTING
2.1 The units of the detector should be attached to the building structures generally with the
help of mounting kits supplied:
Kit No.1: Designed to attach the transceiver unit and to fasten the housing additionally (if
necessary) on completing commissioning.
Kit No.2: Designed for attaching an S-Type (small) reflector or a remote indicator and
control unit.
Kit No.3: For an XS-Type (extra small) reflector.
Kit No.4: For an L-Type (large) reflector.
In specific situations (for example, when the detector components can be fastened only by
means of threaded joints) another fixture elements can be used. Anyway, it is necessary to
provide reliable fastening without gaps, drifting, and any motion of the detector’s elements while
in operation.
Addressable
Reflective
Beam Smoke Detector
S2000-IPDL
Installation Manual

2
2.2 Wires can be run either in surface way or recessed. For flush wiring wires shall be lied
down by first and then the transceiver unit or remote indicator and control unit can be mounted.
For surface wiring installation order doesn’t matter.
2.3 Wires should be passed through the side holes in the base located above the side notches
in the mounting base. To provide optimal wiring location of the relevant terminal groups should
be taken into account.
2.4 While mounting the detectors into fire alarm systems please use wires and cables which
meet the requirements of the operation documentation for the polling loop controller S2000-KDL
or S2000-KDL-2I.
2.5 The length of the cable connecting the transceiver unit with the remote indicator and
control unit should be minimized and not exceed 30 meters.
2.6 In the presence of regular high-power electromagnetic radiation in the premises covered
by the detectors the polling loops and other connecting wires shall be protected against
electromagnetic interference (by using twisted pair wiring, protective shielding, etc.).
2.7 The terminal blocks of the detector enable connecting wires with cross-section area 0.2 to
1.5 sq. mm (wire diameter 0.5 to 1.3 mm). If wires of 0.8 mm diameter or less are used then
their ends shall be looped.
2.8 The housing of the transceiver unit can be removed if only there are no locking screws in
the latches at the top and the bottom of the housing. To remove the housing, release both the
latches pressing on them and pull the housing at right angle to the lens.
2.9 To place the housing back, insert it into the latches and slightly push until it is fixed.
Additional fixation of the housing using two self-tapping screws from Mounting Kit No. 1 should
be made only in case of possible danger of mechanical effects on the detector during operation.
3 WIRING
3.1 The general schematic for wiring the detector is shown in Figure 2.
3.2 The detector operates under a polling loop controller programmed by means of UProg
software utility. Using UProg, in the PL controller’s configuration the type of addressable device
for the detector’s address should be set to 3, Heat Fire. Select the value 2, Controlled by the
S2000-KDL for the parameter Device Indication Control. Please refer to the PL controller User’s
Manual and UProg documentation to read more about selecting the type of addressable
devices and configuration parameters.

Figure 1. Overall and Mounting Dimensions
Four (of L Type)
Two (of L Type) One (of L Type)
Number of Reflectors
One ( XS Type for 5-15 m)
One (S Type for 15-60 m)
5 to 60 m
Range
30 to 120 m
25 to 100 m
20 to 80 m
S2000
-IPDL Transceiver
Mounting Kit
5 to 120 m
Reflector
Four elements max
Mounting Kit
Rotated by 90
°
Remote Indicator
and Control Unit
Rotated by 90
°
S-Type Reflector XS-Type Reflector
1. Dimensions for information 2. The distance between Transceiver Unit and Remote Indicator and
Control Unit should not exceed 30 m

4
S2000-IPDL
XT2 XT1
11
2
33
4 4
2 +PL
- PL
+PL
- PL
Remote indicator and
control unit
1
2
3
4
XT1
- PL
+PL
S2000-KDL
Addressable
device
Addressable
device
Figure 2. Connection Diagram
4 SETTING ADDRESS
4.1 The detector provides storing its polling loop address in its non-volatile memory. The
factory address of the detector is 127. An address can be given by means of the control panel,
PC software utility, or S2000-APA addressable device programmer (the rules to operate which
are described in its user’s manual). An address is assigned to the detector by sending one of
the following commands:
–Set Device Address, or
–Change Device Address.
4.2 The command Set Device Address is used when the detector should be assigned with an
address regardless of which address is given to the detector currently. This way is suitable
when, for example, the same address is assigned with two or more devices. If so, issue a
command to set the required address from the PC or the control panel. Then, within 5 minutes
max since sending the command, press and hold pressed the TEST button of the
detector / remote indicator and control unit for at least 5 second until the red indicator
illuminates. The panel / PC shall display the events of loss of communication with the device
assigned with an old address and finding a device with the new address. If several devices were
assigned with equal addresses set then there will be no messages about loss of
communications for old addresses.
4.3 If however it is necessary to change the detector address which is known in advance then
the Change Device Address command shall be used. Send this command specifying the old
address and the new address from the panel / PC. The panel / PC shall display events about
loss of communication with the device with the old address and establishing communications
with the device with the new address.
5 TESTING THE DETECTOR
5.1 Testing Operability
5.1.1 A full-range verification of the detector’s operability before installation should be done only
in case of mandatory requirements of on-receipt inspection for the products (for example, for
use on special objects) or if you have doubts about its performance (for example, before
sending or after receiving the detector after repair).
5.1.2 If it is impossible or too difficult to pose the transceiver unit and the reflector as far from
each other as required then it is recommended to use the surface of a wall or a ceiling as a

reflector, for example to put the transceiver on a table with the lens facing up using the ceiling
as a reflector.
5.1.3 For testing operability, power up the control panel or PC and the polling loop controller
with the detector connected to the last one.
5.1.4 Activate the alignment mode by sliding the DIP switch “1” to the ON position. Visually
inspect fast pulsing (faster than five flashes per second) in red (which means selecting an
optimal gain with rewriting the maximum achieved level of received signal) followed by pulsing
most of the time in blue (Very Close) with normal frequency (approximately twice per second).
In particular, there can be rare flashes with amber (Less) or red (More). Having achieved such
condition, you can terminate the alignment by sliding the DIP switch “1” to the OFF position and
waiting for approximately one minute until the detector automatically quits this mode having
rewritten new values of installation parameters into the non-volatile memory.
After detector’s having entered to the alignment mode the control panel or PC shall
receive a Test of Fire Alarm event depending on the current settings
5.1.5 If the alignment mode has established but the LED rapidly flashes with white (Too Low) or
blue (Two High) then take measures to increase the reflected signal in the first case or to
reduce the reflected signal in the second one. If you failed to alter this performance then with
great probability the detector is improper.
5.1.6 If the detector exits the alignment mode normally it shall enter in the Norm state indicating
this by red flashing once per four seconds.
5.1.7 Arm the detector.
5.1.8 Press the TROUBLE button on the detector’s board and observe fast flashing with amber
(“Trouble in Progress”) followed by flashing in red with the trouble pattern. After releasing the
button the detector will enter normal state in some time.
5.1.9 Press the TEST button on the detector’s board and observe fast green pulsing at first
(“Test in Progress”) followed by solid illuminating with red. The full-range verification of the
operability of the detector is completed now. If any problems were detected during verification
the detector should be sent to the manufacturer for repair, however, it is recommended to
contact preliminary the technical support service in order to verify the validity of the checks
performed. 5.2 Testing Performance of the Detectors
5.2.1 General Guidelines for Testing
5.2.1.1. Performance of visual indication when the detector displays its conditions in the
operation mode and in the alignment mode is crucially different. Table 1 contains descriptions
of various conditions of the detector for the operation mode, their textual names, and the
ways to display these conditions by means of detector’s indication and on the LCD of an
IPDL-152 test station.
5.2.1.2. Prior to testing the detector please read and understand the information from
Table 1.

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Table 1
LED
Performance Condition Description
Text on the IPDL
-
152 Tester
Display
Flashes with
red once per
four seconds Norm
The received signal meets norm
conditions
“Норма” / “Norm”
Lit steady with
red
Waiting for establishing
communications with the PL
controller
Test
The TEST button has been
pressed
Fire
The received signal value has
dropped down to the alarm
threshold
“ожар” / “Fire”
Flashes four
times with red
every four
seconds
Programming the detector with an
address
Blinking with
red with blue
flashes
Fire in Progress
The received signal value has
dropped down to the alarm
threshold but the Fire status has
not yet been stated
“Набор ож.” /
“Fire in Progress”
--//--
with rare
amber flashes
Operation Mode Changed
Positions of the DIP switches were
changed after exiting the alignment
mode
“Норма” / “Norm”
with “Switched”
from time to time
--
//
--
with green
flashes
Establishing of the Test status after
pressing the relevant button
--
//
--
with amber
flashes
Establishing of the Trouble status
after pressing the relevant button
--//--
with white
flashes
Trouble in Progress
Conditions for some Trouble status
have occurred but this status has
not yet been established
“Набор Неис.” /
“Trouble in
Progress”
Flashes with
red twice per
second Trouble
The TROUBLE button has been
pressed
Trouble-Beam
The received signal has dropped
by more than 80%
“Н. луч” / “TR
Beam”
Trouble-Out-of-Range
The values written into the
EEPROM are out of the
permissible range
“Н. допуска” /
“TR Out-of-Range”
Trouble-Memory
Main data and backup data stored
in the EEPROM are not the same
“Н. память.” /
“TR Memory”
Trouble-High
The compensated signal has
reached the upper threshold
“Н. превыш.” /
“TR High”
Trouble-Low
The compensated signal has
dropped down to lower threshold
“Н. снижен.” /
“TR Low”

5.2.2 For an S2000-IPDL in field two types of verification are required: the full-range
verification of detector’s operability with affecting the optical beam and the routine verification
of sending the polling loop controller the messages about testing, fire, and trouble. The first
testing should be performed after any actions with the transceiver when its position was
changed, including, of course, commissioning. Also, when it is reasonable this verification
should be done after removing dust and debris from the lens and in case of changes in
building structure configuration which can essentially affect the situation with interfering
reflections. The second test shall be performed in all other situations when verification of the
operability of the fire alarm system is required.
4.2.2 Full-Range Verification
4.2.2.1 The full-range verification of the detector’s operability is performed as per classic
inspection procedure for single-ended detectors, i.e. affecting the received signal level is
carried out by partial or full obscuration of the reflector. Reflectors of all types incorporate a
scale showing the percentage of the obscuration for the reflecting surface and, moreover, L-
Type reflectors are equipped with an additional scale (at their lower edges) which is to be
used when the reflectors are arranged with two ones in a row.
4.2.2.2 Since the S2000-IPDL is a single-ended detector and optical beam crosses the
monitored area twice then for simulating the beam degradation by a required value the
percentage of obscuration should be more than the verified alarm threshold. Table 2
represents the required percentage of obscuration of the reflective surface in order to verify
various alarm thresholds.
Table 2
Alarm Threshold Degradation of Beam Recommended Obscuration
To Check Non-Activation To Check Activation
10% (0.5 dB) 19% 10% 30%
15% (0.7 dB) 28% 20% 40%
20% (1 dB) 36% 25% 45%
25% (1.3 dB) 44% 35% 55%
30% (1.6 dB) 51% 40% 60%
35% (1.9 dB) 58% 50% 70%
40% (2.2 dB) 64% 55% 75%
50% (3 dB) 75% 65% 85%
To simulate the Trouble-Beam mode, block all the area of reflective surface of the
retroreflector.
4.2.2.3 In premises where interfering reflections are highly probable (with irregular
configuration of structures beneath the ceiling) presence of these reflections can cause to
actual alarm threshold being just over the set value, and this should be taken into account
both while selecting the sensitivity value for the detector (by using DIP switches) and while
carrying out the full-range testing.

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4.2.3 Routine Testing
4.2.3.1 Routine testing of detector operability is performed by simulating of the Test/Fire
mode (depending on the current setting) and Trouble mode by means of relevant buttons
incorporated in remote control unit and duplicated in the detector.
4.2.3.2 The relevant button TEST or TROUBLE shall be pressed and held pressed at least for
five seconds.
6 GETTING STARTED
In order the detector to operate under a polling loop controller in an Orion ISS, it should be
assigned to a polling loop address and relevant settings should be carried out (see User/s
Manual).