Gewiss Chorus GW 10 786 User manual

Movement detector with EIB twilight sensor
GW 10 786
GW 12 786
GW 14 786
TECHNICAL MANUAL

Summary
1Introduction................................................................................................................................................. 3
2Application .................................................................................................................................................. 4
2.1 Limits to the associations .................................................................................................................... 4
3“Times” Menu ............................................................................................................................................. 5
3.1 Parameters.......................................................................................................................................... 6
3.2 Communication objects....................................................................................................................... 7
4“Twilight sensor” menu ............................................................................................................................... 8
4.1 Parameters.......................................................................................................................................... 8
4.2 Communication objects....................................................................................................................... 9
5“Movement sensor” menu ........................................................................................................................ 10
5.1 Parameters........................................................................................................................................ 10
5.2 Communication objects..................................................................................................................... 13
6“Block” menu ............................................................................................................................................ 15
6.1 Parameters........................................................................................................................................ 15
6.2 Communication objects..................................................................................................................... 16
7“Aux x ” Menu ........................................................................................................................................... 17
7.1 Parameters........................................................................................................................................ 17
7.2 Communication objects..................................................................................................................... 19
8“AuxX_Block” menu.................................................................................................................................. 20
8.1 Parameters........................................................................................................................................ 20
8.2 Communication objects..................................................................................................................... 21
2

1 Introduction
This manual describes the functions of the devices named GW10786 - GW12786 - GW14786 “Movement
Detector with EIB twilight sensor” and how to use the ETS configuration software to change the settings
and configurations.
3

2 Application
The Movement Detector with EIB Twilight Sensor is a device that is able to send bus commands to other
devices on the Building Automation Konnex system according to the movements detected and the
brightness measured by the two incorporated sensors; this device is in fact able to send ON/OFF
commands, percentage values and scene activation commands to other KNX/EIB devices following
movement detection, whether conditioned or not by the level of light in the environment where the device is
installed.
The device is designed to also operate as a simple twilight sensor.
Three auxiliary command objects are also available which can be used independently to activate or
command other devices according to the conditions which may occur.
It is also possible to enable/disable the function that sends commands following movement detection,
including the commands sent by the auxiliary objects.
The device is fitted with two trimmers, one to set the brightness threshold and the other to modify the
recovery time (that will be analysed in detail further on) and a pilot light backlit by a green led which indicates
when a start and movement end telegram is sent.
This manual refers solely to the configuration using the ETS software. Please refer to the INSTALLATION
AND USER MANUAL supplied with the product for instructions on how to adjust and use the trimmers fitted
on the device.
2.1 Limits to the associations
The maximum number of logical associations that the device is able to memorize is 40; this means that the
maximum number of logical connections between communication objects and group addresses is 40.
The maximum number of group addresses that the device is able to memorize is 40; this means that it is
possible to associate the communication objects to a maximum of 40 group addresses.
4

3 “Times” Menu
The Times menu lists all the parameters needed to configure the 1 bit inputs on device; Diag. 3.1 shows the
complete Times menu screen shot with the relative configurable parameters.
Diag. 3.1
Before commencing a detailed analysis of the items on the configuration menu, let’s look briefly at how the
device actually functions so that the explanations of the items will then be easier to understand.
When the device detects movement (and after assessing the brightness level detected by the twilight sensor,
if this option is enabled) it sends a movement start telegram; from this moment in time, the value on the cycle
time counter and the recovery time counter both decrease.
The recovery time refers to the period that must lapse before the device can detect another movement within
its range of action, so that it can determine the end of the movement and sent the relative “movement end”
telegram (if this option is enabled); naturally, the recovery time counter is reset each time the device detects
movement.
During the cycle time, any movement detected will not trigger the sending of a bus telegram as this would
create an overflow on the bus line, whilst it is possible to set the repeated sending of periodical telegrams
associated to the “movement start” event at the end of each cycle time; therefore, if the cycle time lapses
and the recovery time has not expired, (that is, there is constant movement), the device will send another
“movement start” telegram if the cyclic command mode is enabled.
Diag. 3.2 shows a drawing that may simply these concepts.
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Recovery time
Cycle time
Movement start Movement end
Cycle time Cycle time
Movement start Movement endMovement start
Recovery time
Recovery
time
Recovery
time
Diag. 3.2
The first diagram illustrates the condition where, within the cycle time, a time equal to the recovery time
lapses without the device detecting any movement; the cycle time therefore commences when the first
movement is detected, indicated by a bold font arrow; at the same time a movement start telegram is also
sent (if the send telegram option is enabled); if no further movement is detected within the cycle time, the
recovery time counter is reset, indicated by a styled font arrow. In this case, the recovery time count is
completed because no movement has reset the counter value, and the end of the movement is confirmed by
the sending of a movement end telegram (if this option is enabled) and the end of the cycle time count. Once
the recovery time has expired, the detection of movement triggers the above illustrated cycle once again.
The second diagram replicates the complete operating condition, that is when more than one cycle time
lapses before the movement end command is given.
When the device detects the first movement, indicated by a bold text arrow, this triggers the start of the cycle
time counter and the sending of the movement start telegram (if this telegram is enabled); when no more
movement is detected, the recovery time counter starts which is not terminated when a new movement is
detected. This situation reoccurs again until the cycle time expire (second bold arrow); at this point, if the
cyclic command option is enabled, the movement start telegram is sent once again and the cycle time
counter is reset. This time however, a time equal to the recovery time lapses, within the cycle time, without
any movement detection and this condition triggers the movement end command (last bold arrow), and the
movement end telegram is sent, and the cycle time count ends. The detection of movement triggers the
above illustrated cycle once again.
3.1 Parameters
¾3.1.1 Format selection
This determines the format to be set for the recovery time.
According to the value set for this item, the Minutes and seconds options will be displayed.
The settings are:
•seconds
On using this value the recovery time format will be in seconds, so the maximum value will be 59
seconds. With this setting, the Seconds option is available.
•minutes, seconds
On using this value the recovery time format will be in minutes and seconds, so the maximum value will
be 59 minutes and 59 seconds and the minimum value 1 minute. With this setting, the Minutes and
Seconds options is available.
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¾3.1.2 Minutes
Here you can set the first of the two values (minutes) for the recovery time; the values range from 1
(minute) to 59 (minutes).
¾3.1.3 Seconds
Here you can set the second of the two values (seconds) for the recovery time; the values range from
10 (seconds) to 59 (minutes) in the case where the Format selection option is set to seconds,
otherwise the values will range from 0 (seconds) to 59 (seconds).
¾3.1.4 Format selection
This determines the format to be set for the cycle time.
According to the value set for this item, the Hours, Minutes and seconds options will be displayed.
The settings are:
•seconds
On using this value the cycle time format will be in seconds, so the maximum value will be 59 seconds.
With this setting, the Seconds option is available.
•minutes, seconds
On using this value the cycle time format will be in minutes and seconds, so the maximum value will be
59 minutes and 59 seconds and the minimum value 1 minute. With this setting, the Minutes and
Seconds options is available.
•hours, minutes, seconds
On using this value the cycle time format will be in hours, minutes and seconds, so the maximum value
will be 59 hours and 59 minutes and 59 seconds and the minimum value 1 hour. With this setting, the
Hours, Minutes and Seconds options is available.
¾3.1.5 Hours
Here you can set the first of the three values (hours) for the cycle time; the values range from 1 (hour) to
59 (hours).
¾3.1.6 Minutes
Here you can set the second of the three values (minutes) for the cycle time; the values range from 1
(minute) to 59 (minutes) in the case where the Format selection option is set to minutes, seconds,
otherwise the values will range from 0 (minutes) to 59 (minutes).
¾3.1.7 Seconds
Here you can set the third of the three values (seconds) for the cycle time; the values range from 20
(seconds) to 59 (minutes) in the case where the Format selection option is set to seconds, otherwise
the values will range from 0 (seconds) to 59 (seconds).
3.2 Communication objects
There are no communication objects enabled by the Times menu.
7

4 “Twilight sensor” menu
The Twilight sensor menu lists all the parameters needed to configure the function of the twilight sensor on
the device; Diag. 4.1 shows the complete Twilight sensor menu screen shot with the relative configurable
parameters.
Diag. 4.1
4.1 Parameters
¾4.1.1 Twilight threshold regulation
Here you can configure the brightness value that determines the threshold for the twilight sensor.
The settings are:
•local trimmer
The regulation of the brightness value that constitutes the twilight sensor threshold is performed by a
local trimmer installed on the device. With this setting the Threshold value option is not visible..
•parameter
The regulation of the brightness value that constitutes the twilight sensor threshold is performed by an
ETS parameter and it cannot be modified by the local trimmer installed on the device. With this setting,
the Threshold value option is available.
¾4.1.2 Threshold value
Here you can set the brightness value that constitutes the threshold for the twilight sensor.
The values range from 10 lux to 500 lux; the threshold value in this case cannot be modified by the local
trimmer installed on the device.
8

¾4.1.3 Twilight threshold exceeding object
This section allows you to view and use the Twilight threshold exceeding communication object
though which the device notifies that the brightness value detected by the twilight sensor is higher/lower
(according to the value settings) than the threshold. Using this object, the device is able to reproduce the
typical functions of the twilight sensor which is not combined with the movement sensor.
The settings are:
•disabled
The Twilight threshold exceeding communication object is not visible and therefore the device will not
signal that the twilight sensor has been exceeded.
•direct (1 if brightness below the threshold)
When the twilight sensor detects a level of brightness below the set threshold, it sends a bus telegram
with a "1” logic value to the communication object; vice versa, when the brightness level detected
exceeds the threshold value, the device sends a telegram with a "0" logic value to the same
communication object.
•reverse ( 0 if brightness below the threshold)
When the twilight sensor detects a level of brightness below the set threshold, it sends a bus telegram
with a "0” logic value to the communication object; vice versa, when the brightness level detected
exceeds the threshold value, the device sends a telegram with a "1" logic value to the same
communication object.
4.2 Communication objects
The communication objects enabled by the Twilight sensor menu are those seen in Diag. 4.2.
Diag. 4.2
¾4.2.1 Twilight threshold exceeding
The device sends signals to the bus through this communication object which indicate that the twilight
sensor has detected a brightness level that exceeds the twilight sensor; these signals are sent as soon
as the detected brightness value exceeds the threshold, or falls below the threshold and the logic values
of the telegrams linked to these two events depends on the value set for the Twilight threshold
exceeding object option.
The enabled flags are C (communication), R (read by bus) and T (transmission) .
The standard format of the object is 1.001 DPT_Switch, so the size of the object is 1 bit and the
command it sends is twilight threshold value exceeding.
9

5 “Movement sensor” menu
The Movement sensor menu lists all the parameters needed to configure the functions of the IR twilight
sensor installed on the device; Diag. 5.1 shows the complete Movement sensor menu screen shot with the
relative configurable parameters.
Diag. 5.1
5.1 Parameters
¾5.1.1 Movement start object sending
This enables the sending of periodic telegrams linked to the “movement start” event and also
subordinate the sending of this telegram according to the brightness value detected by the twilight
sensor;
The settings in the first menu window are:
•cyclic
the telegram linked to the “movement start” event is sent periodically, at intervals equal to the set cycle
time; this means that, each time the cycle time expires, the device will send a "movement start"
telegram.
•not cyclical
The telegram linked to the “movement start” event is not sent periodically; this means that, each time the
cycle time expires, the device will not send a "movement start" telegram as it is only sent when the first
movement is detected.
The settings in the second menu window are:
•depending on twilight sensor
The device detects the “movement start" event and sends the associated telegram when movement is
detected by the IR movement sensor; at the same time the brightness value measured by the twilight
sensor is below the threshold, which creates conditioned movement detection.
10

The condition of brightness measured below the threshold is taken into consideration by the device to
assert the “movement start” event only, whilst for all subsequent detection the value measured by the
twilight sensor is not taken into consideration as the measurement could easily be influenced by the
activation of the loads that the device controls; once that the "movement end" event has been asserted,
the value of the twilight sensor again contributes to detecting conditioned movement.
•not depending on twilight sensor
The device detects the “movement start" event and sends the associated telegram simply when
movement is detected by the IR movement sensor, without taking into consideration the brightness value
measured by the twilight sensor.
¾5.1.2 Movement object format
Here you can configure the format of the bus telegrams which will be sent when the start and movement
end events occur.
According to the value set for this item, different value options will be visible for the Movement start
value and Movement end value items. The settings are:
•1 bit
The command format that the device will send following a start or movement end event is 1 bit, so it will
have a “1” or “0” logic value that, according to how it is used, could for instance perform an ON/OFF
command, an UP/DOWN command or a TRUE/FALSE Boolean value command.
•1 byte
The command format that the device will send following a start or movement end event is 1 byte and in
this case it will be a percentage value.
•scene
The command format that the device will send following a start or movement end event is 1 byte and in
this case it will be preset execute scene value.
¾5.1.3 Movement start value
Here you can configure the command or the value to be sent following a movement start event.
According to the value set for the Movement object format option, the parameter options also change:
−If the format of the movement object to be sent is 1 bit, the values to be configured are:
•no effect
When the movement start event occurs, the device will not send a telegram to the bus.
•“0” value
When a movement start event occurs, the device will send a telegram to the bus with a “0” logic
value through the Movement (switching) communication object.
•“1” value
When a movement start event occurs, the device will send a telegram to the bus with a “1” logic
value through the Movement (switching) communication object.
−If the format of the object to be sent is 1 byte, the values to be configured are:
•the values range from 0% to 100% with a 10% pitch plus the no effect value. When a
movement start event occurs, the device will send a telegram to the bus with the percentage
value set for the relative option through the Movement (% value) communication object; when
the no effect option is selected, no telegrams are sent when an event occurs
−If the format of the movement object is scene, the values to be configured are:
•no effect
When the movement start event occurs, the device will not send a telegram to the bus.
11

•scene number
When a movement start event occurs, the device will send a telegram to the bus with an execute
scene command through the Movement (scene) communication object. When this value is selected,
the new Scene number option appears which will be analysed further on.
¾5.1.4 Movement end value
Here you can configure the command or the value to be sent following a movement end event.
For further details please see 5.1.3 Movement start value, where the difference is that the telegrams
are sent when a movement end event occurs.
¾5.1.5 Scene number
Here you can assign the scene number which you intend to execute following a start or movement end
event (according to the event the item refers to); the settings range from 0 to 63.
¾5.1.6 Status feedback object
Here it is possible to view and use the Status feedback communication object through which the device
is able to receive the status signal of the load it controls; this occurs especially when a safety pause is
inserted between the moment when the "movement end" occurs and the moment when the device is
able to detect new movements. This is because, on enabling this option, the safety pause is calculated
from the moment the Status feedback communication object receives the signal that the load has been
deactivated and not from the movement when the “movement end” is detected.
The settings are:
•disabled
The Status feedback communication object is not visible and therefore the device is not able to
acknowledge the status of the load it controls.
•enabled
The Status feedback communication object is visible and therefore the device is able to acknowledge
the status of the load it controls.
¾5.1.7 Safety pause
This allows you to enable the possibility to enter a safety pause between the moment when the
“movement end” is detected and the moment when the device is able to detect new movements; this
prevents the deactivation of the load controlled by the device from generating false trigger events on the
movement sensor which are mainly caused by the variation in temperature of the illuminating body; in
fact during the safety pause, the device is not able to detect new movements. This option is visible if the
Movement end value option has a value other than no action and/or the Status feedback object
option is set to enabled; in the case where the status feedback object is not enabled, the safety pause
will commence when the device sends to the bus telegram associated to the “movement end” event,
whilst, when the notification option is enabled, remember that the pause begins at the moment that the
notification is received that the load has been deactivated.
The settings are:
•disabled
The safety pause is not enabled so immediately after a "movement end” event the device is instantly
able to detect new movements. With this setting the Safety pause length : seconds is not visible.
•enabled
The safety pause is enabled so the device is only able to detect new movements when this safety pause
time has lapsed. With this setting the Safety pause length : seconds option is visible.
¾5.1.8 Safety pause length : seconds
Here it is possible to set the safety pause time in seconds.
The settings range from 1 (second) to 10 (seconds).
¾5.1.9 Movement end sending with “0” reset object value
This enables the possibility to record the “movement end” event when the Reset object receives a bus
telegram with a “0” logic value.
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The settings are:
•disabled
When the Reset communication object receives a telegram with a “0” logic value, this produces no
effect on the device.
•enabled
When the Reset communication object receives a telegram with a “0” logic value during the cycle time,
this triggers a “movement end” event, replicating the same procedures as when the recovery time
lapses.
¾5.1.10 Auxiliary object number
Here you can enable new independent auxiliary objects in order to control a series of loads
simultaneously; according to the value set for this option, new configuration menus will appear, namely
Aux 1, Aux 2 and Aux 3 that allow you to configure the functions for the relative command objects.
The settings range from 0 (auxiliary inputs) to 3 (auxiliary objects).
5.2 Communication objects
The communication objects enabled by the Movement sensor menu are those seen in Diag. 5.2.
Diag. 5.2
¾5.2.1 Movement (switching)
The devices sends telegrams to the bus through this communication object which are associated to the
“movement start” and “movement end” events if the Movement object format is set to a value of 1 bit,
according to the values set for the Movement start value and Movement end value options.
The enabled flags are C (communication), R (read by bus) and T (transmission) .
The standard format of the object is 1.001 DPT_Switch, so the size of the object is 1 bit and the
command it sends is a “1”/”0”. logic value
¾5.2.2 Movement (% value)
The devices sends telegrams to the bus through this communication object which are associated to the
“movement start” and “movement end” events if the Movement object format is set to a value of 1 byte,
according to the values set for the Movement start value and Movement end value options.
The enabled flags are C (communication), R (read by bus) and T (transmission) .
The standard format of the object is 1.001 DPT_Scaling, so the size of the object is 1 byte and the
command it sends is a percentage value.
¾5.2.3 Movement (scene)
The devices sends telegrams to the bus through this communication object which are associated to the
“movement start” and “movement end” events if a scene value is set for the Movement object format ,
according to the values set for the Movement start value and Movement end value options.
The enabled flags are C (communication), R (read by bus) and T (transmission) .
The standard format of the object is 18.001 DPT_SceneControl, so the size of the object is 1 byte and
the command it sends is an execute set scene.
¾5.2.4 Status feedback
Using this communication object, the device receives status feedback bus telegrams from the actuators
that manage the loads controlled by the movement detector.
The enabled flags are C (communication) and W (written by bus) .
The standard format of the object is 1.001 DPT_Switch, so the size of the object is 1 bit and the
command it receives is load activated/deactivated.
13

¾5.2.5 Reset
Using this communication object, the device receives telegrams from the bus that simulate the
“movement start” and "movement end" events without the device actually detecting any movement.
When this communication object receives a bus telegram with a “1” logic value, it is interpreted by the
device as a movement detection, and therefore it triggers a “movement start” event or it prolongs the
cycle time; with regard to the triggering of a "movement start" event, it is important to remember that this
depends on the twilight sensor, also in this case the brightness level detected must be below the twilight
threshold to trigger the event, similar to when a movement is detected directly by the device.
Vice versa, if it is enabled, when this communication object receives a bus telegram with a “0” logic value
during the cycle time, it must be interpreted by the device as the recovery time limit, therefore triggering
a “movement end” event just as if the recovery time had actually expired.
The enabled flags are C (communication) and W (written by bus) .
The standard format of the object is 1.001 DPT_Switch, so the size of the object is 1 bit and the
command it receives is load activated/deactivated.
14

6 “Block” menu
The Block menu lists all the parameters needed to configure the block functions used by the device, that is
the function that prevents the device from operating in normal mode (see Diag. 6.1).
Diag. 6.1
6.1 Parameters
¾6.1.1 Block object
This is to enable and configure the function and make the (Block object start value, Block activation
value, If block activation during cycle time) and the relative Block communication object visible.
The block function, once the relative trigger command is received from the bus, blocks the device and
prevents it from operating in normal mode, that is movement detection. The settings are:
•disabled
The block function is not enabled and consequently the various options and communication object are
not visible.
•enabled
The block function can be enabled by the Block communication object and can be activated by a bus
command.
In this section you can also view the other settings to configure the function.
¾6.1.2 Block object start value
This is used to set what logic value the Block communication object must assume each time the bus
power is reinstated; the settings are:
•“0” value
Each time the bus power is reinstated (29 Volt SELV) the device, on completing the initialisation phase,
sets the logic value on the Block communication object to “0”; if this is also the block activation value,
15

once the bus power is reinstated the device is “blocked”, if the block activation value is “1” the device will
function normally.
•“1” value
Each time the bus power is reinstated (29 Volt SELV) the device, on completing the initialisation phase,
sets the logic value on the Block communication object to “1”; if this is also the block activation value,
once the bus power is reinstated the device is “blocked”, if the block activation value is “0” the device will
function normally.
¾6.1.3 Block activation value
This is used to set what logic value the bus telegram must indicate to activate the block function; the
settings are:
•“0” value
When the device receives a telegram from the bus with a “0” logic value, it activates the block function,
preventing the device from operating in normal mode. When the device receives a telegram with a “1”, it
deactivates block function if it is activated, on the contrary the command is ignored.
•“1” value
When the device receives a telegram from the bus with a “1” logic value, it activates the block function,
preventing the device from operating in normal mode. When the device receives a telegram with a “0”, it
deactivates block function if it is activated, on the contrary the command is ignored.
¾6.1.4 If block activation during cycle time
This allows you to set the behaviour of the device when it receives a block activation bus telegram during
the cycle time; the settings are:
•send movement end object anyway
When the device receives a block activation telegram during the cycle time this prevents all further
movement detection and also prevents the sending of a “movement end” event bus telegram.
•does not send movement end object
When the device receives a block activation telegram during the cycle time this only prevents it from
further movement detection.
6.2 Communication objects
The communication objects enabled by the Block menu are those seen in Diag. 6.2.
Diag. 6.2
¾6.2.1 Block
Using this communication object, the device is able to receive the block switching on/off commands from
the bus.
The enabled flags are C (communication) and W (written by bus) .
The standard format of the object is 1.003 DPT_Enable, so the size of the object is 1 bit and the
information it receives is block switched on/off .
16

7 “Aux x ” Menu
The Aux x menu, that summarises the content of the Aux 1, Aux 2 and Aux 3 menus, lists all the
parameters needed to configure the functions of the IR twilight sensor installed on the device, for what
concerns the auxiliary object “X”; Diag. 7.1 shows the complete Aux x menu screen shot with the relative
configurable parameters.
Diag. 7.1
7.1 Parameters
¾7.1.1 Movement start object sending
Here you can subordinate the sending of the telegram linked to the “movement start" event to the
brightness value detected by the twilight sensor on the general auxiliary object “x”; the settings are:
•depending on twilight sensor
The device detects the “movement start" event and sends the associated telegram when movement is
detected by the IR movement sensor; at the same time the brightness value measured by the twilight
sensor is below the threshold, which creates conditioned movement detection.
The condition of brightness measured below the threshold is taken into consideration by the device to
assert the “movement start” event only, whilst for all subsequent detection the value measured by the
twilight sensor is not taken into consideration as the measurement could easily be influenced by the
activation of the loads that the device controls; once that the "movement end" event has been asserted,
the value of the twilight sensor again contributes to detecting conditioned movement.
•not depending on twilight sensor
The device detects the “movement start" event and sends the associated telegram simply when
movement is detected by the IR movement sensor, without taking into consideration the brightness value
measured by the twilight sensor.
17

¾7.1.2 Movement object format
Here you can configure the format of the bus telegrams which will be sent when the start and movement
end events occur on the general auxiliary object “x".
According to the value set for this item, different value options will be visible for the Movement start
value and Movement end value items. The settings are:
•1 bit
The command format that the device will send following a start or movement end event is 1 bit, so it will
have a “1” or “0” logic value that, according to how it is used, could for instance perform an ON/OFF
command, an UP/DOWN command or a TRUE/FALSE Boolean value command.
•1 byte
The command format that the device will send following a start or movement end event is 1 byte and in
this case it will be a percentage value.
•scene
The command format that the device will send following a start or movement end event is 1 byte and in
this case it will be preset execute scene value.
¾7.1.3 Movement start value
Here you can configure the command or the value, of the general auxiliary object “x” to be sent following
a movement start event.
According to the value set for the Movement object format option, the parameter options also change:
−If the format of the movement object to be sent is 1 bit, the values to be configured are:
•no effect
When the movement start event occurs, the device will not send a telegram to the bus.
•“0” value
When a movement start event occurs, the device will send a telegram to the bus with a “0” logic
value through the AuxX movement (switching) communication object.
•“1” value
When a movement start event occurs, the device will send a telegram to the bus with a “1” logic
value through the AuxX movement (switching) communication object.
−If the format of the object to be sent is 1 byte, the values to be configured are:
•the values range from 0% to 100% with a 10% pitch plus the no effect value. When a
movement start event occurs, the device will send a telegram to the bus with the percentage
value set for the relative option through the AuxX movement (% value) communication object;
when the no effect option is selected, no telegrams are sent when an event occurs
−If the format of the movement object is scene, the values to be configured are:
•no effect
When the movement start event occurs, the device will not send a telegram to the bus.
•scene number
When a movement start event occurs, the device will send a telegram to the bus with an execute
scene command through the AuxX movement (scene) communication object. When this value is
selected, the new Scene number option appears which will be analysed further on.
¾7.1.4 Movement end value
Here you can configure the command or the value, of the general auxiliary object “x” to be sent following
a movement end event.
For further details please see 7.1.3 Movement start value, where the difference is that the telegrams
are sent when a movement end event occurs.
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¾7.1.5 Scene number
Here you can assign the scene number, of the general auxiliary object “x”, which you intend to perform
following a start or movement end event (according to the event the item refers to); the settings range
from 0 to 63.
¾7.1.6 Block object
This is to enable and configure the function and make the general AuxX_Block configuration menu
visible.
The block function, once the relative trigger command is received from the bus, blocks the device
preventing the general auxiliary object “x” from operating in normal mode, that is movement detection
performed by this object. The settings are:
•disabled
The block function is not enabled and consequently the AuxX_ Block is not visible.
•enabled
The block function is enabled and consequently the AuxX_ Block is visible and can be configured.
7.2 Communication objects
The communication objects enabled by the Movement sensor menu are those seen in Diag. 7.2.
Diag. 7.2
¾7.2.1 AuxX movement (switching)
The devices sends telegrams to the bus through this communication object which are associated to the
“movement start” and “movement end” events (related to the general auxiliary object “x”) if the
Movement object format is set to a value of 1 bit, according to the values set for the Movement start
value and Movement end value options.
The enabled flags are C (communication), R (read by bus) and T (transmission) .
The standard format of the object is 1.001 DPT_Switch, so the size of the object is 1 bit and the
command it sends is a “1”/”0” .logic value
¾7.2.2 AuxX movement (% value)
The devices sends telegrams to the bus through this communication object which are associated to the
“movement start” and “movement end” events ( related to the general auxiliary object “x”) if the
Movement object format is set to a value of 1 Byte, according to the values set for the Movement
start value and Movement end value options.
The enabled flags are C (communication), R (read by bus) and T (transmission) .
The standard format of the object is 1.001 DPT_Scaling, so the size of the object is 1 byte and the
command it sends is a percentage value.
¾7.2.3 AuxX movement (scene)
The devices sends telegrams to the bus through this communication object which are associated to the
“movement start” and “movement end” events ( related to the general auxiliary object “x”) if the
Movement object format is set to a scene value, according to the values set for the Movement start
value and Movement end value options.
The enabled flags are C (communication), R (read by bus) and T (transmission) .
The standard format of the object is 18.001 DPT_SceneControl, so the size of the object is 1 byte and
the command it sends is execute set scene.
19

8 “AuxX_Block” menu
The AuxX_Block menu, that summarises the content of the Aux1_Block, Aux2_Block and Aux3_Block
menus, lists all the parameters needed to configure the block function used on the device, that is the function
that prevents the general auxiliary object “x”, from operating in normal mode (see Diag. 8.1).
Diag. 8.1
8.1 Parameters
¾8.1.1 Block object start value
This is used to set what logic value the AuxX block communication object must assume each time the
bus power is reinstated; the settings are:
•“0” value
Each time the bus power is reinstated (29 Volt SELV) the device, on completing the initialisation phase,
sets the logic value on the AuxX block communication object to “0”; if this is also the block activation
value, each time the bus power is reinstated the general auxiliary channel x will be “blocked”, if the block
activation value is “1” the general auxiliary “x” on the device will function normally.
•“1” value
Each time the bus power is reinstated (29 Volt SELV) the device, on completing the initialisation phase,
sets the logic value on the AuxX block communication object to “1”; if this is also the block activation
value, each time the bus power is reinstated the general auxiliary channel x will be “blocked”, if the block
activation value is “0” the general auxiliary “x” on the device will function normally.
8.1.2 Block activation value
This is used to set what logic value the bus telegram must indicate to activate the block function for the
general auxiliary channel “x”; the settings are:
20
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