► When performing any work (installation, mounting, start-
up), all instructions given by the manufacturer and in
particular the safety instructions provided in these
Installation and Commissioning Instructions are to be
observed.
► The controller system (including the controller itself, the
CentraLine I/O modules and auxiliary terminal packages)
may be installed and mounted only by authorized and
trained personnel.
► Rules regarding electrostatic discharge should be followed.
► If the controller system is modified in any way, except by
the manufacturer, all warranties concerning operation and
safety are invalidated.
► Make sure that the local standards and regulations are
observed at all times. Examples of such regulations are
VDE 0800 and VDE 0100 or EN 60204-1 for earth
grounding.
► Use only accessory equipment which comes from or has
been approved by CentraLine.
► It is recommended that devices are to be kept at room
temperature for at least 24 hours before applying power.
This is to allow any condensation resulting from low
shipping/storage temperatures to evaporate.
► The system must be installed in such a manner (e.g., in a
lockable cabinet) as to ensure that uncertified persons
have no access to the terminals.
► Investigated according to United States Standard UL916
(USL-listed).
► Investigated according to Canadian National Standard(s)
C22.2 (CNL-listed).
Safety Information as per EN60730-1
Purpose
The controller system is an incorporated electronic control
system for cabinet mounting.
It is used for the purpose of building HVAC control and is
suitable for use only in non-safety controls for installation on
or in appliances.
Table 1. System data as per EN60730-1
Pollution degree
Overvoltage
category
Rated impulse
voltage
Automatic action
Software class Class A
Ball-pressure test
temperature
Electromagnetic
interference
System transformer
DC power supply
Pollution Degree 2, suitable for
home (residential, commercial, and
light-industrial) environments.
Category II
for mains-powered (16A) controls
Category I
for 24 V powered controls
2500 VAC
Type 1.C
(micro-interruption for the relay
outputs)
75 °C for all housing and plastic
parts
125 °C in the case of devices
applied with voltage-carrying parts
and connectors
Tested at 230 VAC,
with the modules in normal
condition.
Europe: safety isolating
transformers according to
IEC61558-2-6
U.S.A. and Canada:
NEC Class-2 transformers
Europe: EN 60950-1
U.S.A. and Canada:
NEC Class-2 / LPS compliant
transformers
There are two variants of pluggable I/O modules (consisting
of a terminal socket and a removable electronic module):
Panel Bus I/O modules with communication via Panel
Bus (light gray housings)
L
ONWORKS Bus I/O modules (dark gray housings) with
communication via L
compatible) for easy integration and use with 3
controllers.
The firmware of pluggable I/O modules is automatically
updated by the controller, and the controller automatically
configures them as needed by the application.
Mixed Panel Bus I/O Modules
Besides the pluggable I/O modules, there are also mixed
Panel Bus I/O modules. Specifically: the CLIOP830A and
CLIOP831A are mixed Panel Bus I/O modules featuring an
integrated terminal socket and a variety of inputs and
outputs.
The CLIOP830A has a light-gray housing.
The CLIOP831A has a black housing.
Their firmware is automatically updated and configured by
the controller, and the controller automatically configures the
mixed Panel Bus I/O modules as needed by the application.
ONWORKS (FTT10-A, link power
pluggable
ANALOG INPUT
ANALOG OUTPUT
pluggable
rd
-party
pluggable
BINARY INPUT
Terminal Sockets
Pluggable I/O modules are mounted on the appropriate
terminal sockets (see Table 4). Pluggable Panel Bus I/O
modules and pluggable L
ONWORKS Bus I/O modules use the
same terminal sockets. The terminal sockets are available
with push-in terminals (XS821-22, XS823, and XS824-25) or
with screw-type terminals (XSU821-22, XSU823, and
XSU824-25). The mixed Panel Bus I/O modules (i.e. the
CLIOP830A with push-in terminals, and the CLIOP831A
with screw-type terminals) feature an integrated terminal
socket.
Color Coding
To distinguish modules and components, the following color
coding is used:
Table 2. Color coding of CentraLine I/O Modules
Color Part
Red
Light-gray Panel Bus I/O modules (exc. CLIOP831A)
Black CLIOP831A mixed Panel Bus I/O module
Dark-gray LONWORKS Bus I/O modules
pluggable
RELAY OUTPUT
All user-accessible adjustable mechanical
parts (i.e., bridge connectors and locking
mechanism) and operating controls (manual
overrides, etc.)
pluggable
FLOATING
OUTPUT
MIXED I/Os
(with integrated electronic module)
LonWorks
CLIOLR822A
CLIOLR824A
BUS MODULES
CLIOL821A
PANEL
BUS MODULES
CLIOP821A
CLLIONLC01
CLIOL822A
CLIOL823A
CLIOPR822A
CLIOP822A
XS821-22
XSU821-22
CLIOP823A
S823
SU823
LonWorks or Panel Bus
CLIOL824A
CLIOPR824A
CLIOP824A
CLIOPR825A
S824-25
SU824-25
Honeywell
Install. Instr.
MU1B-0473GE51
Honeywell
Install. Instr.
MU1B-0473GE51
123456789101112
DI
123456789101112
DI
CLIOP830A
Analog Outputs
Binary Inputs
Analog Inputs
GND
AO5
AI5 AI6 AI7 AI8
B10
B11
B9
B8
B7
B12
12
11
10
9
8
7
17 18 19 20
25 26 27 28
5
6
4
3
2
1
41 42
14 15 16
13
21
AO1
AI1
B1 B2 B3 B4 B5 B6
G1 G2
AI2 AI3 AI4
CLIOP831A
Binary Inputs
Analog Outputs
Analog Inputs
GND
AO5
AI5 AI6 AI7 AI8
B12
B11
B10
B9
B8
B7
12
11
10
9
8
7
17 18 19 20
25 26 27 28
6
5
4
3
2
1
41 42
14 15 16
13
21
AO1
AI1
B1 B2 B3 B4 B5 B6
G1 G2
AI2 AI3 AI4
CLIOP830A
CLIOP831A
24V Relays
AO6
AO7
AO8
CO1CO2CO3CO4CO5CO6
35
36 37 38 39 40
22 23 24
29 30 31 32 33 34
AO2
AO3
AO4
NO1NO2NO3NO4NO5NO6
!
123456
DO
24V Relays
AO6
AO7
AO8
CO1CO2CO3CO4CO5CO6
35
36 37 38 39 40
22 23 24
29 30 31 32 33 34
AO2
AO3
AO4
NO1NO2NO3NO4NO5NO6
!
123456
DO
Fig. 3. Overview of CentraLine I/O modules and terminal sockets
The manual override switches and potentiometers of the output modules (…R822A, …R824A, and CLIOPR825A) support direct
operation as per EN ISO 16484-2:2004, section 5.4.3 "Local Priority Override/Indicating Units."
Specifically, the positions of the manual override switches and potentiometers directly control the outputs – independently of the
connected controller or HMI. When a manual override switch or potentiometer is not in its default position ("auto"), the corresponding output LED will blink continuously, and the output module will send a feedback signal with the status "manual
override" and the given override position to the connected controller (which will then also store this information in its alarm
memory).
NOTE: When updating the firmware of output modules, their outputs are turned OFF – regardless of the position of their
NOTE: In the following, e.g., …822A is used to summarize all analog output modules (Panel Bus/L
LONWORKS
Bus module
Description Inputs OutputsManual controls LEDs 1)
Table 4. Pluggable I/O modules and corresponding terminal sockets
XS821-22 with push-in terminals
XSU821-22 with screw-type terminals
XS823 with push-in terminals
XSU823 with screw-type terminals
XS824-25 with push-in terminals
XSU824-25 with screw-type terminals
The CentraLine I/O Modules can be connected to the
following devices and systems:
Panel Bus
For communication with up to 16 Panel Bus I/O modules
Polarity-insensitive
LONWORKS Bus
For communication with other LONWORKS Bus devices
within the building
FTT10, link power compatible
Polarity-insensitive
Technical Data
System Data
Table 7. System data
Operating voltage 24 VAC, ± 20 %, 21 … 30 VDC
Current requirement See Table 11.
Push-in terminals 1.5 mm2
Screw-type terminals 1.5 mm2
The inputs and outputs of all
CentraLine analog and binary
I/O modules are protected
against short circuit, 24 VAC
+20%, and 40 VDC.
In the case of the relay outputs
Overvoltage protection
Calculated lifetime of
weakest component under
typical operating
conditions
of other CentraLine I/O
modules (i.e., relay output
modules, floating output
modules, and mixed I/O
modules), appropriate fusing
must be provided to ensure that
permissible load currents are
not exceeded.
MTBF
13.7 years
System Constraints
Table 8. System constraints
Max. no. of I/O modules (any combination) connected to controller
Max. no. of I/O modules per row 10
Max. current (F1) 4 A
Max. current (F2) 12 A
Max. current (F3) 12 A
Max. row length 3 m
Max. distance between rows 40 m
Min. cross-section of GND (terminal
9) (protected by F2)
depends upon
controller type
1.5 mm
Standards
Table 9. Standards
Protection class IP20
Product standard (EMC)
Testing electrical
components
Certification CE
System transformer
Low-Voltage Device
Safety Assessment
EN 60730-1
EN 60730-2-9
IEC68
The system transformer(s) must
be safety isolating transformers
according to IEC 61558-2-6.
In the U.S.A. and Canada, NEC
Class 2 transformers must be
used.
In this step, the following has to be defined, if applicable:
Power supply
Fusing
Earth grounding
Lightning protection
Panel Bus wiring
Design of a L
Useful accessories
Cable selection
Transformer Selection
NOTE: In Europe, the system transformer(s) must be
Current / Power Supply Requirement
When selecting the appropriate transformer, take into account
the number of individual modules, accessories, and field
devices in determining the total current requirement.
Table 11. Current requirement of CentraLine I/O Modules
Devices powered
…821A 130 mA 80mA
…822A 160 mA 90 mA
…823A 180 mA 130 mA
…824A 140 mA 90 mA
…825A 140 mA 90 mA
CLIOP830A 200 mA 95 mA
CLIOP831A 200 mA 95 mA
Connectable Power Supplies
CentraLine CRT Series (Europe)
Table 12. CentraLine CRT series transformers data
Transformer Primary side Secondary side
CRT 2 220/230 VAC 24 VAC, 50 VA, 2 A
CRT 6 220/230 VAC 24 VAC, 150 VA, 6 A
CRT 12 220/230 VAC 24 VAC, 300 VA, 12 A
ONWORKS network
safety isolating transformers according to
IEC61558-2-6.
In the U.S.A. and Canada, NEC Class-2
transformers must be used.
depending on power supply
Current requirement
24 VAC 24 VDC
CentraLine 1450 Series (North America)
50/60 Hz
Insulated accessory outputs
Built-in fuses
Line transient /surge protection
AC convenience outlet
NEC Class-2
Table 13. CentraLine 1450 series transformers data
Part no.
1450 7287
-001 120 VAC 24 VAC, 50 VA
-002 120 VAC
-003 120 VAC
-004 240/220 VAC 24 VAC, 50 VA
-005 240/220 VAC
-006 240/220 VAC
Primary sideSecondary side
2 x 24 VAC, 40 VA, and
100 VA from sep. transformer
24 VAC, 100 VA, and 24 VDC;
600 mA
2 x 24 VAC, 40 VA, and
100 VA from sep. transformer
24 VAC, 100 VA, and 24 VDC,
600 mA
Standard Transformers (Europe, North America)
Standard commercially available transformers used to supply
power to CentraLine Systems must fulfill the following:
Table 14. Requirements for standard transformers
Output voltage Impedance AC current
24.5 VAC to 25.5 VAC
24.5 VAC to 25.5 VAC
24.5 VAC to 25.5 VAC
1.15 Ω
0.40 Ω
0.17 Ω
max. 2 A
max. 6 A
max. 12 A
Standard 24 VDC power supply
Output voltage > 19 VDC, < 30 VDC
Current according to Table 11.
RIN-APU24 Uninterruptable Power Supply
The RIN-APU24 Uninterruptable Power Supply can be wired
to power CentraLine Systems. See also RIN-APU24
Uninterruptable Power Supply – Mounting Instructions
(MU1B-0258GE51) for detailed wiring diagrams.
Power Supply of Field Devices
Depending upon the power consumption of the field devices,
it is possible to use either a single transformer to power both
the CentraLine I/O Modules and attached field devices, or it
may be necessary to employ an additional transformer. See
also section "Field Device Cables" on page 10 and connection examples on page 20.
Fusing Specifications
Please see section "System Constraints" on pg. 7 and observe the following when selecting fusing (F1 / F2 / F3 / F4)
for the CentraLine I/O Modules and active field devices:
Use separate fusing for different loads (e.g., for the con-
troller and CentraLine I/O Modules on one hand versus for
active field devices on the other).
Fuse ratings must always be calculated according to the
loads connected. Refer to Table 11 and the load tables
appearing in the documentation of your CentraLine
devices.
Use slow-acting fuses; this is because the controller, the
CentraLine I/O Modules, and active field devices have a
high in-rush current due to their built-in capacitors (current
typically limited by one internal 2 Ω resistor per device).
Fuses should be calculated to protect the transformer
against overloading and the wiring against short-circuiting.
The controller and the CentraLine I/O Modules are protected by an internal fuse (not user-replaceable) against
internal component defects.
For connection examples, see section "Description of the
CentraLine I/O Modules" on page 22 and following.
System Protective Earth Grounding
CentraLine controller systems comply with SELV (Safety
Extra-Low Voltage). Earth grounding is therefore not
recommended. However, if compliance with EN60204-1 is
required, see Appendix 1.
Lightning Protection
Please contact your local CentraLine representative for
information on lightning protection.
Panel Bus Topologies
A single LION controller can control up to 16 Panel Bus I/O
modules.
Each of the EAGLEHAWK controller's two RS485 inter-
faces (max. one bus per interface) is limited to max. 16
Panel Bus I/O modules of a given type, and each interface
is limited to a max. of 64 Panel Bus I/O modules. This
yields a total max. of 128 Panel Bus I/O modules per
controller.
Each of the EAGLE controller's two RS485 interfaces
(max. one bus per interface) is limited to max. 16 Panel
Bus I/O modules of a given type, and each interface is
limited to a max. of 64 Panel Bus I/O modules. This yields
a total max. of 128 Panel Bus I/O modules per controller.
In the case of the CLEA2014B21 and CLEA2014B31, the
total max. no. is reduced to 64.
Panel Bus I/O modules must be addressed using the HEX
switch (see section "Addressing Panel Bus I/O Modules"
on pg. 20).
Max. distance between controller and Panel Bus
I/O module: 40 m (any type of cabling and topology, incl.
star and loop topology, possible; no additional end
termination permitted); 1200 meters (mandatory twistedpair or telephone cable and daisy chain topology; controller
must be positioned at one end of the Panel Bus, and an
end termination of 120 Ω positioned at the other end)
No bus termination
Polarity-insensitive
LONWORKS Bus Topologies
The LONWORKS Bus is a 78-kilobit serial link that uses
transformer isolation so that the bus wiring does not have a
polarity. I.e. it is not important which of the two L
Bus terminals are connected to each wire of the twisted pair.
The L
ONWORKS Bus does not need to be shielded.
The L
ONWORKS Bus can be wired in daisy chain, star, loop or
any combination thereof as long as the max. wire length
requirements are met.
ONWORKS
Configuration
The recommended configuration is a daisy chain with two bus
terminations. This layout allows for max. L
lengths, and its simple structure presents the least number of
possible problems, particularly when adding on to an existing
bus. See also “L
no.: EN0B-0270GE51.
ONWORKS Mechanisms”, Product Literature
ONWORKS Bus
LONWORKS Bus Termination Modules
Table 15. LONWORKS Bus termination module
Type Description
ONWORKS connection and termination
L
XAL-Term2
module, which can be mounted on DIN
rails and in fuse boxes
Cable Specifications
Power Supply Cables
When checking the length of the power supply cable, the
connection cables to all I/O modules must be taken into
account.
Table 16. Power supply cables specification
Max. length
Cross section min. 0.75 mm2 (AWG 18)
3 m (per side of the controller),
see Fig. 19 on page 17
40 m (any type of cabling and topology, incl. star and loop topology,
possible; no additional end termination
permitted); 1200 m (mandatory
twisted-pair or telephone cable and
daisy chain topology; controller must
be positioned at one end of the Panel
Bus, and an end termination of 120 Ω
positioned at the other end)
LONWORKS Bus Cables
Table 18. Doubly-terminated bus specifications
Cable type Max. bus length
Belden 85102 (plenum) 2700 m (8900 ft)
Belden 8471 (non-plenum) 2700 m (8900 ft)
Level IV, 22 AWG 1400 m (4600 ft)
JY (St) Y 2 x 2 x 0.8 900 m (3000 ft)
TIA568A Cat. 5 24AWG, twisted pair 900 m (3000 ft)
NOTE: The above-listed cable types are as recommended
NOTE: CentraLine recommends the use of level IV,
NOTE: Belden part numbers are 9H2201504 (plenum) and
FTT Specification
The FTT specification includes two components that must be
met for proper system operation:
The distance from each transceiver to all other
If multiple paths exist, the max. total wire length is the total
JY (St) Y 2 x 2 x 0.8 320 m (1050 ft) 500 m (1650 ft)
TIA568A Cat. 5
24AWG, twisted pair
by Echelon in their FTT-10A User Guide.
22 AWG, solid core, non-shielded cable.
9D220150 (non-plenum).
transceivers and to the termination must not exceed the
max. node-to-node distance.
amount of wire used.
Max. node-tonode distance
250 m (825 ft) 450 m (1500 ft)
Max. total wire
length
NOTICE
Unpredictable reflections on the bus due to step change
in line impedance characteristics!
► Do not use different wire types or gauges on the same
ONWORKS network segment.
L
NOTE:In the event that the limit on the total wire length is
exceeded, the FTT physical layer repeaters
(FTT 10A) can be added to interconnect segments.
This increases the overall length by an amount
equal to the original specification for that cable
type and bus type for each repeater used.
For example, adding repeaters for a doublyterminated bus using JY (St) Y 2 x 2 x 0.8 cable
increases the max. length by 900 m (3000 ft) for
each repeater.
Field Device Cables
Table 20. Cable sizing for connection of field devices
► Do not touch any live parts in the cabinet.
► Disconnect the power supply before you start to install
the controller system.
More than one disconnect switch may be required to deenergize the system.
► Do not reconnect the power supply until you have
completed the installation.
► Unused terminals must be closed (by completely
screwing in the terminal screws), thus preventing the
accidental touching of “live” parts.
NOTE:The terminal socket of each pluggable I/O
module can be mounted and wired before
inserting and locking the corresponding electronic
module.
1:ABCDFERTAQWESDERT1
2:ABCDFERTAQWESDERT2
3:ABCDFERTAQWESDERT3
4:ABCDFERTAQWESDERT4
5:ABCDFERTAQWESDERT5
6:ABCDFERTAQWESDERT6
7:ABCDFERTAQWESDERT7
8:ABCDFERTAQWESDERT8
Honeywell
1 234 5 6 7 8 9 10 11 12
!
1234
BI
GND
13 14 15 16 17 18 19 20 21 22 23 24 25 26
PRESS
5678910
3
Honeywell
!
11 12
1
PRESS
S1 S2
71 COM a
4
5
3
6
2
7
1
8
0
9
F
A
72 COM b
E
B
D
C
~
73 24V
74 24V0
~
12345678
5678
21
22 1 234
AUX
AI/AOV
GNDGND
9
10 11 12 13 14 15 16 17 18 25 26
5
S1 S2
71 COM a
4
5
3
6
2
1
0
F
72 COM b
E
B
C
D
~
73 24V
74 24V0
~
1
2
AAA
11
21
31
12
22
32
13
23
33
144424543464 25
7
8
9
A
3
41
42
43
PRESS
Honeywell
0
100
AUTO
AAAAAAAA
!
51
616261
52
62
AUX
53
6363
GNDGND
S1 S2
4
5
3
6
2
7
1
8
0
9
F
A
E
B
C
D
PRESS
5678
1234
5678
21
22 1 234
9
10 11 12 13 14 15 16 17 18 25 26
AI/AOV
PRESS
Honeywell
0
100
AUTO
!
S1 S2
4
3
2
1
0
F
E
C
D
PRESS
1234
11
21
31
12
22
32
13
23
33
144424543464 25
71 COM a
5
6
7
8
9
A
72 COM b
B
~
73 24V
74 24V0
~
Honeywell
56
--1
--0
--AUTO
!
41
51
42
52
43
53
Mounting/Dismounting Modules / Sockets
Mounting Sockets
NOTE: When using both Panel Bus and LONWORKS Bus
NOTE: The mixed Panel Bus I/O modules are mounted
► Angle the terminal socket at the upper edge of the DIN
► Swing the terminal socket down and apply gentle force
► Position controller module and terminal sockets flush with
► If desired, mount stoppers at the ends of the rail to
42
616261
62
6363
I/O modules in a CentraLine controller system,
group both Panel Bus I/O modules and
L
ONWORKS Bus I/O modules, e.g., on different
rails.
on the DIN rail in the same way as a terminal
socket.
rail until it snaps in.
until it snaps into position with an audible "click".
one another along the rail.
prevent sliding.
67
Fig. 6. CentraLine I/O Modules on DIN rails
Legend
1 Controller (e.g., LION, EAGLE, EAGLEHAWK, etc.)
2 Cable (power, L
ONWORKS / Panel Bus) connection from
controller to CentraLine I/O Modules
3 Swivel label holder
4 Cable connection between CentraLine I/O Modules on
separate DIN rails
5 Bridge connectors between CentraLine I/O Modules on
same DIN rail
6 Stopper (from 3
rd
-party supplier)
7 Auxiliary terminal packages
NOTE:Take care to not bend the Omega clamp, which
Connecting Sockets
Controller, terminal sockets, and mixed I/O modules (exc.
CLIOP831A) on the same DIN rail can be connected
mechanically and electrically with bridge connectors.
Controller and terminal sockets on different DIN rails must
Fig. 7. Mounting terminal sockets
serves to establish the electrical contact with the
DIN rail and which located on the back of the
terminal socket.
Position the bridge connector on terminals 71 … 74 of the
right hand terminal socket or mixed I/O module or controller
and on terminals 75 … 78 of the left hand terminal socket or
mixed I/O module or controller. Then press the bridge
connector down.
Fig. 8. Connecting terminal sockets with bridge
NOTE: Bridge connectors transmit both communication
signals and power supply between modules.
Removing bridge connectors will thus interrupt
the transmission of both communication signals
and power supply between the modules.
connector
Dismounting Sockets
Disconnecting Sockets
Release all bridge connectors before removing the controller
module and/or the terminal sockets and/or mixed I/O
modules from the DIN rail.
► Press down at the same time both the gray side wings
next to the red button and then pull the bridge connector
out of the module.
socket or inserted into the sockets without
switching off the power supply, but the resultant
behavior of connected field devices must be
taken into consideration.
► Make sure that terminal socket und electronic I/O module
match; see Table 4 on page 5.
► Make sure that the red locking mechanism is in the open,
i.e., left, position.
► Gently push the electronic module onto the terminal
socket until snug.
Fig. 11. Inserting the electronic module
► Lock the red locking mechanism by sliding it to the right.
Dismounting Electronic Modules
NOTE:Electronic modules can be removed from the
► Open the red locking mechanism by sliding it to the left
socket or inserted into the sockets without
switching off the power supply, but the resultant
behavior of connected field devices must be
taken into consideration.
and then gently pull the electronic module out of the
terminal socket.
Fig. 13. Dismounting the electronic module
Mounting/Dismounting Auxiliary Terminal
Packages
The XS814 Auxiliary Terminal Package can be mounted on
any pluggable I/O module.
The XS830 and XS831 Auxiliary Terminal Packages are
suitable for the mixed I/O modules, only, and can be
mounted on the top and/or bottom of the mixed I/O modules.
For reasons of mechanical stability, a max. of two rows of
Auxiliary Terminal Packages may be mounted together on
the mixed I/O modules.
NOTE:While the CLIOP830A can be equipped with up to
two rows of XS830 and/or XS831 auxiliary
terminal blocks on the top and/or bottom, the
CLIOP831A can be equipped with up to two rows
of XS830 and/or XS831 auxiliary terminal blocks
on the top, only.
Fig. 12. Locking the electronic module
NOTE: The red locking mechanism will not close if the
When connecting the controller or CentraLine I/O modules,
both VDE, National Electric Code (NEC) or equivalent, and
any local regulations concerning grounding and zero
voltage must be observed.
Electrical work should be carried out by a qualified
electrician.
The electrical connections must be made at the terminal
blocks. The corresponding connection diagrams are
located on the individual controller module and
I/O modules.
For Europe only: To comply with CE requirements, devices
with a voltage in the range of 50 ... 1000 VAC or 75 ...
1500 VDC, which are not provided with a supply cord and
plug or with other means for disconnection from the supply
having a contact separation of at least 3 mm in all poles,
must have the means for disconnection incorporated in the
fixed wiring.
WARNING
Risk of electric shock or equipment damage!
► Do not touch any live parts in the cabinet.
► Disconnect the power supply before making connections
to or removing connections from terminals of controller or
I/O modules.
► Do not use spare terminals as wiring support points.
► Do not reconnect the power supply until you have
completed the installation.
► Unused terminals must be closed (by completely
screwing in the terminal screws), thus preventing the
accidental touching of “live” parts.
► Observe precautions for handling electrostatic sensitive
devices.
Wiring Push-in Terminals
The terminal sockets of the pluggable I/O modules are
available in versions (XS821-22, XS823, and XS824-25)
featuring convenient push-in terminals for easy wiring. The
CLIOP830A likewise features push-in terminals.
For correct wiring, cables must fulfill the following
specifications according to IEC664-1 / VDE 0110 (4.97):
Table 21. Push-in terminals wiring specifications
Max. plug gauge
Solid conductor H05/07) V-U
Stranded conductor H05(07) V-K
Stranded conductor with wire end
ferrules (without plastic collar)
Stripping length 8.0 +1.0 mm
NOTE: In the case of solid conductors, the use of ferrules
is prohibited.
NOTE: Use only one conductor per push-in terminal.
NOTE: If two stranded wires are to be connected to a
single push-in terminal, twin wire end ferrules must
be used.
0.14 … 1.50 mm
0.25 … 1.50 mm
0.25 … 1.50 mm
0.25 ... 1.50 mm
Wiring Screw-Type Terminals
The terminal sockets of the pluggable I/O modules are also
available with screw-type terminals (XSU821-22, XSU823,
and XSU824-25). The CLIOP831A likewise features screwtype terminals.
For correct wiring, cables must fulfill the following
specifications according to IEC664-1 / VDE 0110 (4.97):
The CentraLine controller system can be powered by one or
more external transformers.
NOTE: The max. length for the power supply cable from a
TRANS-
FORMER 2
Additional Transformer / DC Power Supply
► Connect the additional transformer / DC power supply in a
transformer is 3 m. This also includes the length of
the modules and the connection cables between
the rails.
71
72
73
I/OI/O
74
MAX. 3 m
Fig. 18. Wiring the power supply from a transformer
second room or cabinet to terminals 73 and 74 or 77 and
78 of a CentraLine I/O module.
Controllers not Supporting Bridge Connectors
► Connect the controller and CentraLine I/O modules which
do not support bridge connectors using wire. See also Fig.
22.
Controller and I/O Modules on Several Rails in a
Single Cabinet
The rails of a controller system are connected in series.
► Connect the rail ends as follows:
– Power supply
via power supply terminals 73, 74 or 77, 78
– Communication
via communication terminals 71, 72 or 75, 76
71
72
I/O
73
74
71
72
I/O
73
74
71
72
I/O
73
74
I/O
CPU
75
76
I/OI/O
77
78
75
76
I/O
77
78
NOTICE
Equipment damage!
► Do not use bridge connectors to connect modules
powered by different transformers / DC power supplies.
► When connecting modules powered by different trans-
formers / DC power supplies using cables, be sure to not
connect terminals 73 and 77.
Connecting Single Bus Controller Systems
This section describes how to connect a controller system
which uses Panel Bus I/O modules only or LI/O modules only.
Controller and CentraLine I/O Modules on a Single
Rail
► Connect the controller and CentraLine I/O modules using
the bridge connectors (if supported); otherwise, use wire.
This provides power supply and communication connection.
No further wiring is necessary.
ONWORKS Bus
71
72
I/O
73
74
I/O
Fig. 19. Wiring the power supply and the communication
lines to the CentraLine I/O modules
Max. Power Cable Length
The max. length for power supply cable per side is 3 m. This
includes the connection cables between the rails, the lengths
of the modules, and the cable from the transformer.
Panel Bus I/O Modules in Separate Rooms
In this scenario, communication and reference voltage
(24 V0) must be connected between the rooms.
► Connect the last module of room 1 to the first module of
room 2:
– Reference voltage
via power supply terminals 74 or 78
terminals 73 and 77 must not be connected
During engineering, each Panel Bus I/O module (LION) /
each Panel Bus I/O module of a given type (EAGLE,
EAGLEHAWK) per RS485 interface is assigned its own
unique address. For the sake of clarity for maintenance
personnel, it is recommended that you address the Panel
Bus I/O modules in ascending order 0 through F.
Table 23. HEX switch settings and addresses
Hex switch 0 1 2 3 4 5 6 7
Address 01 02 03 04 05 06 07 08
Hex switch 8 9 A B C D E F
Address 09 10 11 12 13 14 15 16
► Use the rotary HEX switch to set the address to the one
already defined using the engineering tool.
4
4
LOCK
Fig. 25. HEX switch location
NOTE: If the HEX switch is changed, the Panel Bus I/O
module will revert to its default configuration.
NOTE:In the case of L
ONWORKS Bus I/O modules, the
HEX switch is without function.
Connecting Field Devices
Connecting Field Devices with Power Supply
Depending on the distance from the controller, field devices
can be supplied by the controller or need a separate transformer, see Table 20 on page 10.
For fusing see section "Fusing Specifications" on page 9.
Example 1: Power Supply via Controller or Same
Transformer
24 V actuator connected to an analog output module
Less than 100 m away from the controller
F2
230 V~
24 V~
24 V0
CONTROLLER
F1
1
2
822A
1...8
11...18
9
Y (0...10 Vdc)
max. 100 m
Fig. 26. Power supply of field devices via I/O module
Example 2: Power Supply via Separate
Transformer
24 V actuator connected to an analog output module
100 … 400 m away from the controller
24 V0
24 V~
F2
230 V~
F1
24 V~
24 V0
CONTROLLER
1
21...8
822A
11...18
Y (0...10 Vdc)
max. 400 m
Fig. 27. Power supply of field devices via a separate
transformer
Cabling Field Devices
Cable Routing
Route low-voltage signal and output cables separately from
mains cables.
Table 24. Min. distances to power mains cables
Cable Min. distance
Shielded 10 mm (0.4 in.)
Unshielded 100 mm (4 in.)
All low-voltage signal and output cables should be regarded
as communication circuits in accordance with VDE 0100
and VDE 0800 (or NEC or other equivalent).
Cable Shielding
If the general guidelines for cable routing are observed, it
is not necessary to shield field device signal and power
supply cables.
If, for whatever reason, the routing guidelines cannot be
observed, the field device signal and power supply
cables must be shielded.
– Shielding of cables leading to field devices must be
grounded only at the cabinet end.
– The shield must not be terminated at the controller.
During engineering, the HEX address of the Panel
I/O modules is defined.
NOTE:With Panel Bus I/O modules it is essential that
the HEX switch be set to the address assigned by
the engineering tool.
The CentraLine controller automatically commissions all
Panel Bus I/O modules.
Commissioning LONWORKS Bus I/O Modules
The commissioning of LonWorks Bus I/O modules is done
using the engineering tool.
Updating Software with Panel Bus I/O Modules
The CentraLine controller automatically updates all Panel
Bus I/O modules. Thus, whenever the controller’s firmware
is updated, the firmware of the Panel Bus I/O modules is
automatically updated, too.
Updating Software with LONWORKS Bus I/O
Modules
You can update the LONWORKS I/O modules using CARE or
EXCELON.
Corresponding output status LEDs (red)
…R822A: 8 manual overrides, see figure below
3
Fig. 35. CLIOP822A Analog Output Module with terminal
Legend
1 Service button S1
2 Hex switch S2
3 Manual overrides
4 Output LEDs
5 Service LED
6 Power LED
Panel Bus analog
Light gray
output module
Panel Bus analog
Light gray
output module with
manual overrides
L
ONWORKS Bus
Dark gray
analog output
module
L
ONWORKS Bus
Dark gray
analog output
module with manual
overrides
Terminal socket Light gray
21
564
socket
Functionality of service LED and power LED: see Table 57 to
Table 59 on page 56 and following.
In the event of communication problems, the analog outputs
will move to the safety positions you have configured using
the engineering tool, see analog output point description in
the CARE – User Guide, 74-5587/EN2B-0182GE51.
Terminals
COM
71
A
COM
72
B
24
7377
V~
24
74
V~0
AO1
NC NC
21
22101
GND GNDGND GND GND GND GND GND GND GND
9
AO2 AO3 AO4 AO5 AO6 AO7
5
3
2
4
13
11
12
14
15616
Fig. 36. Terminal assignment and internal connections
Table 32. Description of analog output module terminals
Terminal
71, 75COM a
72, 76COM b
Signal COMMENT
2-wire communication bus
(LON/Panel Bus)
2-wire communication bus
(LON/Panel Bus)
73, 7724 V~ Power supply
74, 7824 V~0 Power supply
1…8 AO1…AO8 Analog outputs 1…8
9…18GND
Ground. All grounds are connected
internally to each other
21, 22N.C. Do not use!
25, 26
Shield connection (functional earth),
internally connected to the DIN rail
NOTE:Shield connection to be used for shielded I/O
cables only. It is not allowed to connect a
L
ONWORKS shield, since LONWORKS requires a
resistor and a capacitor.
NOTE:If additional shield terminals are needed, the
XS814 Auxiliary Terminal Package can be
installed.
40 VDC overvoltage as well as
against short-circuiting
Auto/manual mode and output
value
Status LED Behavior
Table 34. Analog output status LED behavior
Automatic mode
Override mode Flashes
Brightness follows the
commanded output signal
Status LEDs with Manual Overrides
5
12
Fig. 37. Manual overrides (rotary knobs)
The CLIOPR822A/CLIOLR822A Analog Output Modules are
equipped with manual overrides: one for each analog output.
These rotary knobs can be manually set to either "AUTO" or
"0…100%" (infinitely adjustable).
4
3
678
0!100
UTO
NOTICE
Damage to the electronic module!
► Do not use a tool to adjust the rotary knobs.
► Do not use excessive force. Adjust only by hand.
Manual Override in the AUTO Position
When a manual override of the CLIOPR822A/CLIOLR822A is
set to AUTO, and the corresponding analog output has been
configured, the following applies:
If the L
If the L
The brightness of the status LED (red) of the analog
When a manual override of the CLIOPR822A/CLIOLR822A is
set to AUTO, and the corresponding analog output has not
been configured, the following applies:
Regardless as to whether the L
The feedback signal on the L
The analog output status LED will be dark.
ONWORKS network is functioning properly, the
output voltage of the analog output will be as
commanded.
ONWORKS network is not functioning properly, the
output voltage of the analog output will be the safety
position value.
output will be proportional to the commanded output
signal.
functioning properly or not, the output voltage of the
analog output will be 0 V (values from the L
will be ignored, and there will be no heartbeat or safety
position).
nvoAoActPosnFb[ ] will have a value of 0% and a state of
0.
ONWORKS network is
ONWORKS Bus
ONWORKS network
Manual Override in the Override Position (0…100%)
When a manual override of the CLIOPR822A/CLIOLR822A is
set to 0…100%, and the corresponding analog output has
been configured, the following applies:
The output voltage of the analog output will be 0…10 V
(direct) or 10…0 V (reverse).
The feedback signal on the L
nvoAoActPosnFb[ ] will have a value of 0…100% and a
state of -1.
The status LED (red) of the analog output will flash to
indicate “manual override.”
When a manual override of the CLIOPR822A/CLIOLR822A is
set to 0…100%, and the corresponding analog output has
not been configured, the following applies:
The output voltage of the analog output will be 0…10 V.
The feedback signal on the L
nvoAoActPosnFb[ ] will have a value of 0…100% and a
state of -1.
The status LED (red) of the analog output will flash to
indicate “manual override.”
ONWORKS network
ONWORKS network
Analog Outputs Configured as Binary Outputs
Using the engineering tool, the analog outputs can be configured individually as binary outputs. The voltage output is
then 0 V or 10 V, depending upon the signal from the controller.
Synchronization Behavior of Analog Output
Module Configured as Floating Output
In order to regularly update the real actuator position with
the calculated position and thus ensure that the actuator
definitely reaches its end position, a synchronization process is performed by the analog output module.
During the synchronization process, the analog output
module will continue running for the configured runtime
once it reaches the calculated end position.
This updating (synchronization) is performed:
If the calculated position of the actuator
Fig. 39. Connection example with Relay Module MCD 3
The relay module facilitates the control of peripheral devices with high load via the analog outputs.
Input terminal 17 controls of MCD3 controls changeover contact K3.
Relay terminal 18 of MCD3 controls the N.O. contacts (floating outputs) K1, K2.
For fusing specifications, see section "Fusing Specifications" on page 8.
Protected against 24 VAC and
40 VDC overvoltage as well as
against short-circuiting
Status LED Behavior
Using the engineering tool, the status LEDs can be configured individually for use as either alarm LEDs (red/green)
or as status LEDs (yellow/OFF [default]).
Given a state of "logical ON," the LED will be lit (yellow or
red).
Configuration as Fast Totalizer
Using the engineering tool, the binary inputs can be configured as fast totalizers for operation in conjunction with
devices equipped with an open collector output.
CLIOP824A Panel Bus relay output module Light gray
CLIOPR824A
CLIOL824A LONWORKS Bus relay output
CLIOLR824A
XS824-25
XSU824-25
Features
6 relays (changeover contacts), arranged in two blocks
…R824A: 6 manual overrides
Low and line voltage allowed, see WARNING.
Panel Bus relay output module
with manual overrides
module
L
ONWORKS Bus relay output
module with manual overrides
Terminal socket; can be fitted
with cross connector (incl. in
the delivery)
21
3
Light gray
Dark gray
Dark gray
Light gray
In the event of communication problems, the relay outputs will
move to the safety positions you have configured using the
engineering tool, see relay output point description in the
CARE – User Guide, 74-5587/EN2B-0182GE51.
WARNING
Risk of electric shock or equipment damage!
Low voltage and line voltage must not be wired within
the same relay block.
► Wire low voltage e.g., to relay block 1 and line voltage to
relay block 2 or vice versa. In this case, a cross
connector must not be used; rather, each relay must be
wired separately.
NOTICE
Risk of malfunction!
Cross connectors may only be used if the same voltage
is used on all relays they connect.
► Do not use a cross connector if different voltages are
used on any of the six relays. In such cases, each relay
must be wired separately.
Terminals
COM
71
A
COM
72
B
24
7377
V~
24
74
V~0
RELAY BLOCK 1RELAY BLOCK 2
NO
NC
COM
12
13
NO
11
NC
COM
NO
21
22
23
NC
COM
31
32
33
NO
NC
COM
41
42
43
NO
NC
COM
52
53
51
COM
COM
A
B
24
V~
24
~0
NO
NC
COM
75
76
78
61
62
63
Fig. 45. CLIOP824A Relay Output Module with terminal
socket
Legend
1 Service button S1
2 Hex switch S2
3 Manual overrides
4 Status LEDs
5 Service LED
6 Power LED
Functionality of service LED and power LED: see Table 57 to
Table 59 on page 56 and following.
EN1Z-0973GE51 R0119
REMOVABLE CROSS CONNECTOR (FACTORY-MOUNTED)
564
Fig. 46. Terminal assignment and internal connections
Table 41. Permissible loads of relay output modules
Max. load Min. load
Per relay output module
(total) (fuse F3)
19…250 VAC
current at cos φ ≥ 0.6: 12 A
1…29 VDC
–
12 A resistive, 3 A inductive
Per normally
open contact
19…250 VAC
current at cos φ ≥ 0.6: 4 A
50 mW
1…29 VDC
4 A resistive, 1 A inductive
Per normally
closed contact
19…250 VAC
current at cos φ ≥ 0.95: 2 A,
50 mW
current at cos φ ≥ 0.6: 1 A
1…29 VDC
4 A resistive, 1 A inductive
NOTE:In the case of voltages above 30 VAC/DC and if
inductive components are to be connected to
relays switching more often than once every 2
minutes, these components must be prevented
from causing harmful interference to radio or
television reception (conformance with EN 55014).
NOTE:Relays must not be used for electronic ballasts,
energy-efficient lamps, or any other capacitive
devices. Such devices may display a high in-rush
current for which the relays were not designed. To
prevent damage to the relay module, use power
gates or a coupling relay.
NOTE:Max. voltage for UL 864-compliant applications is
The …R824A Relay Output Modules are equipped with
manual overrides: one for each relay output. These sliding
switches can manually be set to either "auto" or "0" or "1".
Manual Override in the AUTO Position
When a manual override of the …R824A Relay Output
Module is set to the “AUTO” position, and the corresponding
relay output has been configured, the following applies:
If the L
If the L
The feedback signal on the LONWORKS network:
The status LED (yellow) will indicate the actual
When a manual override of the …R824A Relay Output
Module is set to the “AUTO” position, and the corresponding
relay output has not been configured, the following applies:
Regardless as to whether the L
The feedback signal on the L
The status LED will be dark.
ONWORKS network is functioning properly, the
logical status of the relay output will be “AUTO.”
ONWORKS network is not functioning properly, the
feedback signal will be switched to the safety position
value.
nvoDoActPosnFb[ ] will have a value of either 0% or
100%, and a state of -1.
logical state of the relay output as commanded
(by nviDoSwitch[ ]).
functioning properly or not, values from the L
Bus will be ignored, and there will be no heartbeat or
safety position.
ONWORKS network:
nvoDoActPosnFb[ ] will have a value of 0% and a state of
0.
6
--1
--0
--AUTO
ONWORKS network is
ONWORKS
!
Manual Override in the ON Position
When a manual override of the …R824A Relay Output
Module is set to the “ON” position, the following applies:
If the relay output has been configured, its logical state
will depend upon the actual output configuration.
If the relay output is unconfigured, it will be switched ON.
Regardless of configuration, the feedback signal on the
L
ONWORKS network: nvoDoActPosnFb[ ] will have a value
of 100…0% and a state of -1.
Regardless of configuration, the status LED (yellow) will
flash to indicate “manual override.”
Manual Override in the OFF Position
When a manual override of the …R824A Relay Output
Module is set to the “OFF” position, the following applies:
If the relay output has been configured, its logical state
will depend upon the actual output configuration.
If the relay output is unconfigured, it will be switched OFF.
Regardless of configuration, the feedback signal on the
L
ONWORKS network: nvoDoActPosnFb[ ] will have a value
of 0% (direct) or 100% (reverse) and a state of -1.
Regardless of configuration, the status LED (yellow) will
Floating outputs sufficient for driving up to 3 floating
actuators
Manual overrides and 3 corresponding pairs of status
LEDs
In the event of communication problems, the 3 floating outputs will move to the safety positions you have configured
using the engineering tool, see floating output point
description in the CARE – User Guide, 74-5587/EN2B0182GE51.
21
Permissible loads
Table 43. Permissible loads of floating output modules
Max. load Min. load
Per relay output module
(total) (fuse
F3)
Per normally
open contact
Per normally
closed contact
NOTE: In the case of voltages above 30 VAC/DC and if
NOTE: Max. voltage for UL 864-compliant applications is
19…250 VAC
current at cos φ ≥ 0.6: 12 A
1…29 VDC
12 A resistive, 3 A inductive
19…250 VAC
current at cos φ ≥ 0.6: 4 A)
1…29 VDC
4 A resistive, 1 A inductive
19…250 VAC
current at cos φ ≥ 0.95: 2 A,
current at cos φ ≥ 0.6: 1 A
1…29 VDC
4 A resistive, 1 A inductive
inductive components are to be connected to
relays switching more often than once every
2 minutes, these components must be prevented
from causing harmful interference to radio or
television reception (conformance with EN 55014).
24 V.
–
50 mW
50 mW
3
4
Fig. 50. CLIOPR825A Floating Output Module with
terminal socket
56
Legend
1 Service button S1
2 Hex switch S2
3 Manual overrides
4 Status LEDs
4 Service LED
5 Power LED
Functionality of service LED and power LED: see Table 57 to
Table 59 on page 56 and following.
WARNING
Risk of electric shock or equipment damage!
Low voltage and line voltage must not be wired within
the same module.
Fig. 51. Terminal assignment and internal connections
Table 44. Description of floating output module terminals
Terminal
71, 75
72, 76
73, 77
74, 78
* Do not connect by wire!
Signal Comment
COM a
COM b
24 V~
24 V~0
REL1 N.O.
11
REL1 N.C.
12
R1 COM
13
R1 COM
14
REL2 N.O.
21
REL2 N.C.
22
ACTUATOR 1
ACTUATOR 2
ACTUATOR 3
23
24
31
32
33
34
41
42
43
44
51
52
53
54
61
62
63
64
R2 COM
R2 COM
REL3 N.O.
REL3 N.C.
R3 COM
R3 COM
REL4 N.O.
REL4 N.C.
R4 COM
R4 COM
REL5 N.O.
REL5 N.C.
R5 COM
R5 COM
REL6 N.O.
REL6 N.C.
R6 COM
R6 COM
25
2-wire communication bus (LON/Panel Bus)
2-wire communication bus (LON/Panel Bus)
Power supply
Power supply
Floating relay 1 N.O. contact
Floating relay 1 N.C. contact
Floating relay 1 common contact
For connection of floating relay 1 common
via cross connector*
Floating relay 2 N.O. contact
Floating relay 2 N.C. contact
Floating relay 2 common contact
For connection of floating relay 2 common
via cross connector*
Floating relay 3 N.O. contact
Floating relay 3 N.C. contact
Floating relay 3 common contact
For connection of floating relay 3 common
via cross connector*
Floating relay 4 N.O. contact
Floating relay 4 N.C. contact
Floating relay 4 common contact
For connection of floating relay 4 common
via cross connector*
Floating relay 5 N.O. contact
Floating relay 5 N.C. contact
Floating relay 5 common contact
For connection of floating relay 5 common
via cross connector*
Floating relay 6 N.O. contact
Floating relay 6 N.C. contact
Floating relay 6 common contact
For connection of floating relay 6 common
via cross connector*
Shield connection (functional earth),
internally connected to the DIN rail
CTUATOR 3
NO
51
NC
52
COM
53
COM
COM
V~0
75
A
76
B
24
V~
24
78
NO
61
NC
62
COM
63
25
Status LED Behavior
The respective pair of status LEDs will display the following:
Table 45. LED behavior (for e.g., floating output 1)
Actuator 1
Mode LED
Closing Opening
moving
Green LED ON OFF OFF
Auto
Red LED OFF ON OFF
Green LED Flashing OFF Flashing
Override
Red LED OFF Flashing Flashing
Status LEDs with Manual Overrides
1
2
3
Fig. 52. Manual overrides (rotary knobs)
The floating output module is equipped with manual
overrides: one for each floating output. These rotary knobs
can be manually set to either "AUTO" or "0 … 100%"
(infinitely adjustable).
NOTICE
Damage to the electronic module!
► Do not use a tool to adjust the rotary knobs.
► Do not use excessive force. Adjust only by hand.
Manual Override in the AUTO Position
When a manual override of the CLIOPR825A is set to AUTO,
the following applies:
The output signal of the respective floating output (R1 +
R2 or R3 + R4 or R5 + R6) will be as commanded.
The respective pair of status LEDs will be ON/OFF as
commanded.
Manual Override in the Override Position (0…100%)
When a manual override of the CLIOPR825A is set to
0…100%, the respective floating output will drive to the set
position. The runtime depends upon the actuator runtime
configured using the engineering tool and on the actual
position.
If a floating relay output has been configured, the following
applies:
The corresponding manual override can be used to adjust the
respective floating actuator so that it drives to any desired
position between fully closed (0%) and fully open (100%). The
"open" relay or "closed" relay – as the case may be – is then
switched ON for the time the actuator requires to drive to the
desired position, whereupon it will stop. This required time
depends upon the configured motor runtime (time to open /
time to close), while the direction of movement is dependent
upon the configured direct/reverse setting.
Unconfigured Floating Relay Output
5050
0100
AUTO
BOTH RELAYS OFF
ACTUATOR STOPS
0
AUTO
RELAY “N” CLOSED
RELAY “N+1” OPEN
ACTUATOR CLOSES
100
RELAY “N” OPEN
RELAY “N+1” CLOSED
ACTUATOR OPENS
0
AUTO
100
Fig. 53. Use of manual override (floating relay output
unconfigured)
If a floating relay output has not been configured (see Fig.
53), the following applies:
Although the motor runtime is unknown to the CLIOPR825A,
the corresponding manual override can be used during the
commissioning phase to adjust the respective floating
actuator so that it drives to any desired position between fully
closed (0%) and fully open (100%).
The "open" relay (relay "n," i.e. “1,” “3,” or “5”) and the
"closed" relay (relay "n+1," i.e. “2,” “4,” or “6”) are then
switched ON and/or OFF, respectively, when the corresponding manual override is set to "0…100%." Specifically,
the actuator will drive towards its closed position as long as
the manual override is set to "0…50%," and it will drive
towards its open position as long as it is set to "50…100%."
Setting the manual override to "AUTO" stops the actuator.
Type: CLIOP830A and CLIOP831A Mixed Panel Bus I/O
Module
Housing: light-gray (CLIOP830A) and black (CLIOP831A)
In the event of communication problems, the relay outputs will
move to the safety positions you have configured using the
engineering tool, see relay output point description in the
CARE – User Guide, EN2B-0182GE51 / 74-5587.
Fig. 55. Mixed I/O Module (CLIOP830A shown with aux.
terminal packages)
1
71
COM a
COM b
72
24V~
73
24V~0
74
Install. Instr.
DI
EN1B-0375GE51
CLIOP830A
12 BI / 8 AI / 8 AO / 6 RO
24V, 15VA, T50
0706AX0001-XFU830A
8
Made in Germany
0532
Binary Inputs
B8 B9 B10
B7
7
8 9 10 11 12
1 2 3 456
B1 B2 B3 B4B5B6
1 2 3 456 7 8 9
7 8 9
121 22 23 24 29 30 31 32 33 342 3
4
5
3
6
2
7
1
8
0
9
S2
F
A
E
B
C
D
Analog InputsAnalog Outputs
AI5
AI6
AI8
AI7
B11B12
17
18 19 20
13 14 15 16
AI1 AI2 AI3 AI4 41
10 11 12
10 11 12 17 18 19 20
456 13 14 15 16 41 42
GND
AO5
G1 G2
42
AO1 AO2 AO3 AO4 NO1 NO2 NO3 NO4 NO5 NO6
40
24V for relay 1...5
J1 J2 J3 J4 J5
AO6 AO7 AO8
IN1 IN2
25
26 27 28 35
21 22 23 24
25 26 27 28 35 36 37 38 39 40
36 37 38 39 40
29 30 31 32 33 34
1 2 3 456
2
Fig. 56. Mixed I/O Module features (CLIOP830A shown)
Legend
1 Hex switch S2
2 Status LEDs
3 Service LED
4 Power LED
Functionality of service LED and power LED: see Table 57 to
Table 59 on page 56.
75
COM a
24V
76
COM b
77
24V~
78
24V~0
24V Relays
DO
5 B5A6 B6A7 B7A8 B8
75
External
COM a
24V
76
COM b
77
24V~
78
24V~0
24V Relays
IN3
IN5 IN6
IN4
DO
3
!
!
4
WARNING
Risk of electric shock or equipment damage!
It is not permitted to wire the relays of the mixed Panel
Bus I/O modules for anything other than low voltage.
Permissible Loads
Table 46. Permissible loads of mixed Panel Bus I/O
max. load min. load
per module
(total for all
relay
contacts)
19…29 VAC, 1…29 VDC
3 A resistive or inductive,
cos φ ≥ 0.6,
no capacitive load,
protected by fuse F4
per normally open
contact
19…29 VAC, 1…29 VDC
0.5 A resistive or inductive,
cos φ ≥ 0.6,
no capacitive load
Fig. 57. Analog input high impedance (input circuit for
voltage input for active sensors)
Fig. 58. Analog input impedance setpoint (input circuit
for NTC10kΩ, NTC20kΩ, wall module setpoint)
FAST
TOTALIZER
Fig. 59. Configuration of a binary input as a fast totalizer
Common contacts of relays 1…5. May be set to common supply voltage via terminal 40 by
35…39 IN1…5 --
inserting jumpers J1…J5 into their lower positions. When, in contrast, a jumper is in the upper
position (the so-called “parking position” = default setting), the corresponding relay receives no
supply voltage from terminal 40.
40 IN6 --
Common contact of relay 6, internally connected to the middle contact of jumpers J1…J5. May be
used to connect common supply voltage.
Table 48. Mixed Panel Bus I/O module specifications
Number: 8
Analog Inputs Analog OutputsBinary InputsRelay Outputs
Configurable types:
NTC20kΩ (-30…+110 °C)
(default)
Linear Graph
0..10 VDC with pull-up
0(2)…10 VDC without pull-up
Also configurable as:
binary inputs (static, dry contact,
only)
Features:
10-bit resolution
configurable offset per input
Number: 8
Configurable types:
0…11 VDC / 1 mA (default)
Also configurable as:
binary outputs (0 V / 10 V)
Features:
10-bit resolution (default)
Safety position (remain, 0%,
50%, 100%)
Number: 12 (requiring a gold
contact or open collector)
Configurable types:
Static binary inputs (default:
static, dry contact)
ON: < 1.6 kΩ to GND or < 2.5 V
to GND,
OFF: > 90 kΩ to GND or > 4 V
to GND
Also configurable as:
totalizers (15 Hz)
Features:
1 yellow LED per input
IN4
R3
38
32
NO4
IN5
R5 R6
39
R4
33
NO5
EXT. 24VAC FOR
IN6
RELAY COMMON
40
34
NO6
Number: 6
Configurable types:
Relay outputs (default)
Features:
Voltage: 24 VAC/DC, P>50 mW
max. total current: 3 A (AC/DC)
current per relay: 500 mA
normally-open contacts: P >
For fusing specifications see section "Fusing Specifications" on page 8. For internal connections of auxiliary terminal modules,
see section “XS830 Auxiliary Terminal Package” and section “XS831 Auxiliary Terminal Package” on page 49.
For mounting onto already installed pluggable I/O modules
in order to equip them with additional terminals.
Each unit consists of two terminal blocks (the "A" block
and the "B" block), each with seven push-in terminals with
a max. load of 12 A.
For wiring specifications, see also Table 21 on pg. 16.
Fig. 63. XS814 Auxiliary Terminal Package
Terminal Assignment
A3B3
A1B1A2B2
Fig. 64. Terminal assignment and internal connections of
A5B5A6B6
A4B4
A7B7
XS814 Auxiliary Terminal Package
XS830 Auxiliary Terminal Package
Terminal Assignment
A3B3
A1B1A2B2
A5B5A6B6
A4B4
A7
A8 A9
Fig. 66. Terminal assignment and internal connections of
XS830 Auxiliary Terminal Package
XS831 Auxiliary Terminal Package
Features
Type: XS831 Auxiliary Terminal Package
For mounting onto the top and/or bottom of already-
installed mixed I/O modules in order to equip them with
additional terminals.
NOTE:While the CLIOP830A can be equipped with up to
Each unit consists of two groups of four pairs of push-in
For wiring specifications, see also Table 21 on pg. 16.
NOTE:The ground side of each of the eight incoming
two rows of XS831 auxiliary terminal blocks on the
top and/or bottom, the CLIOP831A can be
equipped with up to two rows of XS831 auxiliary
terminal blocks on the top, only.
terminals (A1B1, A2B2, … A8B8, each with a 499Ω
resistor to GND) for converting 0…20 mA signals (max.
load per resistor = 25 mA) into 0…10 VDC signals, and
one push-in ground terminal per group. See also Fig. 68.
0…20 mA signals (A1B1, A2B2, … A8B8) must be
connected to a ground terminal.
B7
B8 B9
Features
Type: XS830 Auxiliary Terminal Package
For mounting onto the top and/or bottom of already-
installed mixed I/O modules in order to equip them with
additional terminals.
NOTE:While the CLIOP830A can be equipped with up to
A1 B1 A2 B2
A3 B3
A4 B4 G1G2
Fig. 67. XS831 Auxiliary Terminal Package
Terminal Assignment
A1 B1 A2 B2
A3 B3
A4 B4 G1
A5 B5 A6 B6
A5 B5 A6 B6
A7 B7
A7A8B7
A8 B8
B8
G2
two rows of XS830 auxiliary terminal blocks on the
top and/or bottom, the CLIOP831A can be
equipped with up to two rows of XS830 auxiliary
terminal blocks on the top, only.
Each unit consists of two groups of terminal blocks (the "A"
block and the "B" block), each with nine internallyconnected push-in terminals with a max. load of 12 A.
Fig. 68. Terminal assignment and internal connections of
XS831 Auxiliary Terminal Package
For wiring specifications, see also Table 21 on pg. 16.
CentraLine LONWORKS Bus I/O Modules use a LONTALK
protocol communication with other nodes on the L
network, with commissioning tools und supervisory devices.
Features
Network variables for communications between nodes, but
no explicit messages
Configuration network variables
L
ONMARK FPT protocol for downloading a CentraLine
L
ONWORKS Bus I/O Module firmware via LONWORKS:
loadable apbG file (supported by CARE and EXCELON)
Addressing, binding, and commissioning
CentraLine LONWORKS Bus I/O Modules are addressed,
bound, and commissioned using CARE or any other standard
L
ONWORKS commissioning tool based on LNS 2.0 and higher,
e.g., LonMaker for Windows.
Configuration
CentraLine LONWORKS Bus I/O Modules are configured using
CARE or COACH.
ONWORKS
CLIOL821A Analog Input Module
For the CLIOL821A Analog Input Module the LONMARK Profile
520 "Analog Input" has been assigned per input.
Each input object has its own configuration properties, except
for heartbeat configuration, which will be shared among all
objects.
These variables are transmitted immediately when their value
has been changed by a higher rate than the configured "send
on delta" (default: 0.3 K).
These variables are also transmitted as heartbeat output
(default: 60 sec) on a regular basis as dictated by the max.
send time (nciSndHrtBt) configuration variable.
The default service type of these variables is
unacknowledged.
Analog Sensor Output – nvoAiValuePct[ ]
This network variable output represents the percentage level
for the appropriate input, if configured for voltage input.
Valid Ranges for 0 … 10 V Input
Table 50. Analog input values: 0 … 10 V
Value Representation
< 0 V 0 %
0 V … 10 V 0 … 100 %
> 10 V 100 %
Valid Ranges for 2 … 10 V Input
Table 51. Analog input values: 2 … 10 V
Value Representation
< 1.5 V Sensor break/short circuit
1.5 V … 2 V 0 %
2 V … 10 V 0 … 100 %
> 10 V 100 %
Default Value
The default value is set after power-up or reset and remains
until the module has measured a valid value.
nvoAiValuePct = INVALID = 0x7FFF (=163.835 %)
The sensor failure behavior can be configured for 2 … 10 V.
Temperature Sensor Output – nvoAiTempP[ ]
If configured for temperature sensor input (but not from
PT1000-2 temperature sensors), this network variable output
represents the temperature for the appropriate input.
Range: see Table 29 and Table 30 on page 23.
Default Value
The default value is set after power-up or reset and remains
until the module has measured a valid value.
nvoAiTempP = INVALID = 0x7FFF (= 327.67 °C)
Slow Digital Input – nvoAiSwitch[ ]
This network variable output represents a slow digital input
connected to the universal input terminals.
Valid Range
Table 52. Slow digital input values
Sensor Value State
Enabled 100 % 1
Disabled 0 % 0
Not configured 0 % -1
Temperature#2 Sensor Output – nvoAiTemp[ ]
If configured for temperature sensor input (from PT1000-2
temperature sensors, only), this network variable output
represents the temperature for the appropriate input.
Range: see Table 29 and Table 30 on page 23.
Default Value
The default value is set after power-up or reset and remains
until the module has measured a valid value.
For the CLIOL822A/CLIOLR822A Analog Output Module, the
L
ONMARK open-loop actuator object has been assigned per
output.
Each analog output object has its own configuration
properties, except for heartbeat configuration and
nciAoConfig, which will be shared among all objects.
Fig. 71. L
Receive Heartbeat
The default configuration for “Receive Heartbeat” is 300 sec.
If no nvi update is received during this time, the actuators will
go to their configured safety positions.
Start-up Behavior
At start-up, i.e., power-up or reset, all nvi's will be initialized
with INVALID, and after 1 minute, the actuators will go to their
configured safety positions.
ONMARK analog output object
Analog Output Control Level – nviAoValuePct[ ]
This network variable is used to drive the analog output to
0 … 100 %.
If both nviAoSwitch[ ] and nviAoValuePct[ ] receive valid
values, nviAoValuePct[ ] will have priority.
Valid Ranges
Fig. 72. Analog output control levels – direct actuator
Fig. 73. Analog output control levels – reverse actuator
Default Value
nvoAoValuePct = INVALID = 0x7FFF (=163.835 %)
This will cause the actuator to adopt a predefined position
defined for failure behavior.
This value represents the current status of the analog output
including feedback related to manual override initiated from
the manual override.
This is typically used for monitoring purposes at a supervisory
station or for diagnostic purposes.
Valid Range
Table 53. Analog output feedback range
Value State Current analog output position
0.5 … 100 % 1
Analog output position due to
normal control by nviAoSwitch or
0 % (OFF) 0
0 … 100 % -1
nviAoValuePct
Manual override position via the
manual override panel
Current position unknown or
0xFF -1
synchronization active, analog
output not configured
Transmission
This variable is transmitted immediately when the
corresponding network input variable has changed more than
1 % or immediately as an answer to an
nviAoValuePct[ ] or nviAoSwitch[ ] update.
Default Service Type
The default service type is unacknowledged.
Analog Output Command – nviAoSwitch[ ]
This network variable is used to drive the analog output to
0 … 100 %.
It is typically bound to a L
ONWORKS control device issuing an
output level 0 … 100 %.
If both nviAoSwitch[ ] and nviAoValuePct[ ] receive valid
values, nviAoValuePct[ ] will have priority.
Default Value
Value = 0
State = –1
CLIOL823A Binary Input Module
One instance of the LONMARK open-loop sensor object has
been assigned per input of the CLIOL823A Binary Input
Module.
Each digital input object has its own configuration properties,
except for heartbeat configuration, which will be shared
among all objects.
Open Loop Sensor Object
(LonMark Object Type 1)
nciDiConfig[x]
UCPT_DIConfig
nciSndHrtBt
SCPTmaxSendTime
Fig. 74. L
ONMARK digital input object
Configuration
Parameter
Value File
nvoDiSwitch[x]
SNVT_s witch
nvoDiCoun t[x]
SNVT_cou nt
|1
#1
Transmission
These variables are transmitted immediately when its value
has been changed by a higher rate than the configured "send
on delta" (in the case of the totalizer, “send on delta” has a
default value of 5 counts).
These variables are also transmitted as a heartbeat output on
a regular basis as dictated by the max. send time
(nciSndHrtBt) (default = 0 = disabled) configuration variable.
Default Service Type
The default service type of these variables is
unacknowledged.
Fast Binary Input – nvoDiSwitch[ ]
This network variable output represents the logical state of a
fast binary input connected to the binary input terminals.
Valid Range
Table 54. Slow digital input values
Logical input state Value State
ON 100 % 1
OFF 0 % 0
Not configured 0 % -1
Default Value
The default value is set after power-up or reset and remains
until the module has measured a valid value.
Value = 0
State = -1
Totalizer Count – nvoDiCount[ ]
This network variable output indicates the total number of
transitions from 0 to 1 since the last reset due to power-up or
network reset.
After power-up and reset, the value 0xFFFF = 65535 will be
sent to the network to indicate that previous count values
have been lost due to a reset.
CLIOL(R)824A Relay Output Module
One instance of the LONMARK open-loop sensor object has
been assigned per input of the CLIOL824A/CLIOLR824A
Relay Output Module.
Each output object has its own configuration properties,
except for heartbeat configuration, which will be shared
among all objects.
Open Loop Actuator Object
(LonMark Object Type 3)
Relay Output Command – nviDoSwitch[ ]
This network variable is used to drive the relay output.
It is typically bound to a L
output level ON/OFF, respectively 0 … 100 %.
Valid Range
Value State Action
N/a 0 OFF
0 1 OFF
0.5 … 100 %
N/a
Table 56. Relay output command values
Default Value
Value = 0
State = -1
Start-up Behavior
At start-up, i.e., power-up or reset, all nvi's will be initialized
with INVALID, leading the actuator to drive to the configured
safety position after 1 minute.
Receive Heartbeat
The default configuration for “Receive Heartbeat” is 300 sec.
If no nvi update is received during this time, the field devices
will go to their configured safety positions.
ONWORKS control device issuing an
Outputs are switched
according to actual output type
Manufactured for and on behalf of the Connected Building Division of Honeywell Products and Solutions SARL, Z.A. La Pièce, 16, 1180 Rolle, Switzerland by its Authorized Representative: