Eelectron KNX PD00E00KNX User manual

PD00E0XKNXFI00020100_HANDBOOK_EN.DOCX
PD00E0xKNX KNX PRESENCE DETECTORS RANGE Handbook
Eelectron SpA, Via Monteverdi 6,
I-20025 Legnano (MI), Italia
Tel: [phone] Fax:[phone]
E-mail: [email protected] Web:www.eelectron.com
C.F. e P.IVA 11666760159
Tribunale di Milano 359157-8760-07
CCIAA Milano 148549
1/46
Product Handbook
PD00E00KNX
KNX PRESENCE DETECTOR BASIC
PD00E01KNX
KNX PRESENCE DETECTOR STANDARD WITH LIGHTING CONTROL
PD00E02KNX
KNX PRESENCE DETECTOR MULTISENSOR - LIGHTING CONTROL,
TEMPERATURE, HUMIDITY, SOUND SENSOR
PD00E03KNX
KNX PRESENCE DETECTOR MULTISENSOR - LIGHTING CONTROL,
TEMPERATURE, HUMIDITY, SOUND SENSOR - OCCUPANCY AND
UTILIZATION REPORTING
PD00E09KNX
KNX HIGH BAY PRESENCE DETECTOR WITH LIGHTING CONTROL
Document
Version: 1.0
Data:
05/03/2020

PD00E0XKNXFI00020100_HANDBOOK_EN.DOCX
PD00E0xKNX KNX PRESENCE DETECTORS RANGE Handbook
Eelectron SpA, Via Monteverdi 6,
I-20025 Legnano (MI), Italia
Tel: [phone] Fax:[phone]
E-mail: [email protected] Web:www.eelectron.com
C.F. e P.IVA 11666760159
Tribunale di Milano 359157-8760-07
CCIAA Milano 148549
2/46
INDEX
1. Introduction............................................................................................................................................................................................5
2. PRODUCT OVERVIEW.......................................................................................................................................................................6
3. Installation instructions..................................................................................................................................................................8
Warning.............................................................................................................................................................................................................8
Hints.....................................................................................................................................................................................................................8
4. General parameters...........................................................................................................................................................................8
5. Test Mode.................................................................................................................................................................................................9
Description and execution of the test..........................................................................................................................................9
6. Presence Module..............................................................................................................................................................................10
Follow up time...........................................................................................................................................................................................10
7. Illuminance module.......................................................................................................................................................................10
Adjustment of the illuminance sensor.....................................................................................................................................10
Manual adjustment................................................................................................................................................................................11
1 point adjustment.................................................................................................................................................................................11
2 points adjustment..............................................................................................................................................................................11
8. Remote presence.............................................................................................................................................................................12
9. Use of remote presence...............................................................................................................................................................13
10. Remote illuminance.......................................................................................................................................................................13
11. Use of remote illuminance........................................................................................................................................................14
12. Sound sensor.......................................................................................................................................................................................15
13. Channels configuration................................................................................................................................................................16
Follow-up time..........................................................................................................................................................................................16
Objects A,B,C - presence/absence................................................................................................................................................17
Stand-by function (corridor function).......................................................................................................................................17
Lock function..............................................................................................................................................................................................18
Stop function..............................................................................................................................................................................................18
Utilization function.................................................................................................................................................................................19
Occupancy FUNCTION.........................................................................................................................................................................19
Simple presence.......................................................................................................................................................................................20
Automatic presence, illuminance depending.....................................................................................................................20
Semi-automatic presence..................................................................................................................................................................21
Semi-automatic presence illuminance depending.........................................................................................................21
Constant illuminance............................................................................................................................................................................21
Constant illuminance presence depending..........................................................................................................................22
Constant illuminance presence depending, semi-automatic..................................................................................22
14. Digital input.........................................................................................................................................................................................22
Activation on press (closing contact).........................................................................................................................................23
Activation on press / release (closing / opening contact)............................................................................................23
Activation on short and long press.............................................................................................................................................23
Dimming........................................................................................................................................................................................................24
Shutter and Blinds..................................................................................................................................................................................24
Scene................................................................................................................................................................................................................24
Commands sequences.........................................................................................................................................................................25
Commands sequences (1 bit).........................................................................................................................................................25
Set RGB color..............................................................................................................................................................................................25
MUR / DND...................................................................................................................................................................................................26

PD00E0XKNXFI00020100_HANDBOOK_EN.DOCX
PD00E0xKNX KNX PRESENCE DETECTORS RANGE Handbook
Eelectron SpA, Via Monteverdi 6,
I-20025 Legnano (MI), Italia
Tel: [phone] Fax:[phone]
E-mail: [email protected] Web:www.eelectron.com
C.F. e P.IVA 11666760159
Tribunale di Milano 359157-8760-07
CCIAA Milano 148549
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Loop among values................................................................................................................................................................................26
15. Analog input........................................................................................................................................................................................26
Additional probe description.......................................................................................................................................................27
Additional probe parameters......................................................................................................................................................27
16. Temperature sensor........................................................................................................................................................................27
KNX probe....................................................................................................................................................................................................28
17. Thermostat............................................................................................................................................................................................28
Setpoint Settings.....................................................................................................................................................................................28
SETPOINT Object....................................................................................................................................................................................28
HVAC MODE obj. (switched heat / cool)..................................................................................................................................28
HVAC MODE obj. (automatic heat / cool)...............................................................................................................................29
SETPOINT COMFORT, STANDBY, ECONOMY.........................................................................................................................29
COMFORT Object.....................................................................................................................................................................................30
Object ENABLE HEATING/COOLING...........................................................................................................................................30
Object LOCK HEAT/COOL...................................................................................................................................................................30
WINDOW CONTACT Object..............................................................................................................................................................30
Object THERMOSTAT OFF..................................................................................................................................................................31
SETPOINT ADJUSTMENT object....................................................................................................................................................31
ACTUAL SETPOINT object..................................................................................................................................................................31
Two points on/off.....................................................................................................................................................................................31
Integral proportional control PWM.............................................................................................................................................32
Integral proportional contr. continuous...................................................................................................................................32
Fan coil on/off.............................................................................................................................................................................................32
Manage valve independently..........................................................................................................................................................34
Fan coil control PI....................................................................................................................................................................................34
Additional valve........................................................................................................................................................................................34
Additional valve 6 ways.......................................................................................................................................................................35
Force fan coil speed...............................................................................................................................................................................35
Ventilation mode.....................................................................................................................................................................................35
Temperature probe failure / out of range measurement.............................................................................................36
Temperature alarm object................................................................................................................................................................36
18. Thermostat behaviour on bus failure, recovery and download......................................................................37
Behaviour on bus voltage failure..................................................................................................................................................37
Behaviour on bus voltage recovery.............................................................................................................................................37
Behaviour on ETS Download...........................................................................................................................................................37
Wrong application download.........................................................................................................................................................37
19. Logics........................................................................................................................................................................................................37
20. Circadian rhythm function........................................................................................................................................................39
Set color temperature..........................................................................................................................................................................41
Set brightness............................................................................................................................................................................................41
21. Virtual holder......................................................................................................................................................................................42
How it works...............................................................................................................................................................................................42
Communication Objects.....................................................................................................................................................................42
Parameters General............................................................................................................................................................................42
Parameters Remote inputs............................................................................................................................................................43
Remote Sensor Inputs (Global Enable).....................................................................................................................................43

PD00E0XKNXFI00020100_HANDBOOK_EN.DOCX
PD00E0xKNX KNX PRESENCE DETECTORS RANGE Handbook
Eelectron SpA, Via Monteverdi 6,
I-20025 Legnano (MI), Italia
Tel: [phone] Fax:[phone]
E-mail: [email protected] Web:www.eelectron.com
C.F. e P.IVA 11666760159
Tribunale di Milano 359157-8760-07
CCIAA Milano 148549
4/46
Any information inside this manual can be changed without advice.
This handbook can be download freely from the website: www.eelectron.com
Exclusion of liability:
Despite checking that the contents of this document match the hardware and software, deviations cannot be
completely excluded. We therefore cannot accept any liability for this.
Any necessary corrections will be incorporated into newer versions of this manual.
Symbol for relevant information
Symbol for warning
DISPOSAL : The crossed-out bin symbol on the equipment or packaging means the product must not be
included with other general waste at the end of its working life. The user must take the worn product to a sorted
waste centre, or return it to the retailer when purchasing a new one. An efficient sorted waste collection for the
environmentally friendly disposal of the used device, or its subsequent recycling, helps avoid the potential
negative effects on the environment and people s health, and encourages the re-use and/or recycling of the
construction materials

PD00E0XKNXFI00020100_HANDBOOK_EN.DOCX
PD00E0xKNX KNX PRESENCE DETECTORS RANGE Handbook
Eelectron SpA, Via Monteverdi 6,
I-20025 Legnano (MI), Italia
Tel: [phone] Fax:[phone]
E-mail: [email protected] Web:www.eelectron.com
C.F. e P.IVA 11666760159
Tribunale di Milano 359157-8760-07
CCIAA Milano 148549
5/46
1. Introduction
This manual is intended for use by KNX® installers
and describes the functions and parameters of the
KNX presence sensors "E" series and how it is
possible to change the settings and configurations
using the ETS software tool.
The range of Eelectron presence sensors is suitable
for ceiling mounting and consists of 5 versions: 4
suitable for mounting up to 4 m in height and a
HIGH BAY stallation up to 16 m
height.
All versions have a rear connector with 3 digital
inputs that can be connected to potential-free
buttons or switches and used for on / off, dimming,
roller shutters or blinds / scenarios, sequences, step-
by-step commands, etc.
On STANDARD, MULTI, SPACE and HIGH BAY
models one of the 3 inputs can be configured as
analogical input for the connection of NTC
temperature probes (see eelectron probes code
TS00A01ACC / TS00B01ACC) with which is possible
to send the temperature measurement on the bus
or manage a complete thermostat module. The
thermostat manages 2 stages with integrated PI
controller for the control of heating and cooling
equipment, valves, 2- and 4-pipe fan coils, etc.
CODE
TYPE
MAIN FUNCTIONS
PD00E00KNX
BASIC
PRESENCE DETECTION
3 DIGITAL INPUTS
PD00E01KNX
STANDARD
PRESENCE DETECTION
LIGHTING CONTROL
2 DIGITAL INPUTS
1 ANALOG / DIGITAL INPUT
PD00E02KNX
PD00E03KNX
MULTI
SPACE
PRESENCE DETECTION
LIGHTING CONTROL
TEMPERATURE CONTROL [1]
HUMIDITY SENSOR
SOUND SENSOR
2 DIGITAL INPUTS
1 ANALOG / DIGITAL INPUT / SMART
SENSOR
PD00E09KNX
HIGH BAY
PRESENCE DETECTION
LIGHTING CONTROL
2 DIGITAL INPUTS
1 ANALOG / DIGITAL INPUT
[1]: WITH EMBEDDED TEMPERATURE SENSOR.
The STANDARD, MULTI, SPACE and HIGH BAY
versions include a brightness sensor for controlling
ambient lighting, the MULTI and SPACE versions
also include humidity and temperature sensors with
relative control algorithms and a sound sensor that
can be used in environments with parts not totally
visible to the infrared sensor.
The humidity sensor (MULTI and SPACE models) can
measure the relative humidity in the room and
provide control with hysteresis of humidification
and dehumidification devices; for this model of
sensors it is possible to connect an accessory cod.
SM03E01ACC which allows to measure temperature
and CO2. The CO2measurement is available on the
bus and from ETS it is possible to manage a
threshold control with hysteresis for both on / off
and proportional algorithm .
Presence detection, based on a passive infrared
sensor, has 5 independent configurable channels
with different functions that can be activated:
presence with or without brightness control and
with automatic or semi-automatic detection;
constant brightness independent or dependent on
presence and with automatic or semi-automatic
activation.
The BASIC sensor manages presence detection only.
There are 12 logic blocks with which is possible to
create simple expressions with a logical or threshold
operator or complex expressions with algebraic and
conditional operators and also is possible to use
predefined algorithms such as proportional controls
of temperature and humidity or dew point
calculation.
The device also integrates the "Virtual ;
the field of application is the hotel room: through a
magnetic sensor installed on the door and
connected to a digital input (also one of the sensor
itself), accurate presence information is managed.
The presence detection solution can recognise the
presence of people in the room using one or more
dedicated sensors. It also detects an unexpected
presence and is able to differentiate multiple
behaviours.

PD00E0XKNXFI00020100_HANDBOOK_EN.DOCX
PD00E0xKNX KNX PRESENCE DETECTORS RANGE Handbook
Eelectron SpA, Via Monteverdi 6,
I-20025 Legnano (MI), Italia
Tel: [phone] Fax:[phone]
E-mail: [email protected] Web:www.eelectron.com
C.F. e P.IVA 11666760159
Tribunale di Milano 359157-8760-07
CCIAA Milano 148549
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The device manages the ambient lighting based on
the measured illuminance; it is also possible to
enable the logic called "Circadian Rhythm" with
which brightness and color temperature are
imposed on the basis of predefined curves or on the
basis of the real position of the sun during the day
with respect to a terrestrial coordinates. This
function allows you to recreate lighting comfort in
an environment as close as possible to reality
(STANDARD, MULTI, SPACE and HIGH BAY models).
The following mounting accessories are available:
CODE
FUNCTION
PD00E00ACC
SURFACE MOUNTING ENCLOSURE
PD00E01ACC
BOX MOUNTING FRAME
2. PRODUCT OVERVIEW
Functional modules of the device
The device includes some functional modules,
below we list and describe those managed by the
SPACE sensor, some modules are not present in the
models that do not include the brightness sensor
(BASIC) and the temperature and humidity sensor
(BASIC, STANDARD and HIGH BAY)
GENERAL PARAMETERS MODULE
Here some modules are enabled such as:
-Sound sensor
-Temperature control function
-Circadian rhythm
-Virtual holder
-Test mode
PRESENCE MODULE
Here are defined the parameters of the PIR sensor
and its base module
-PIR sensor sensitivity
-Sensor follow-up time
ILLUMINANCE MODULE
Here the parameters referring to the light sensor are
defined
-Adjustment method (calibration)
-Correction parameters
-Data sending parameters
REMOTE PRESENCE MODULE
Here up to 4 "slave" channels are enabled, it is
possible to receive the presence detection data
from other 4 sensors to better coordinate the
control of areas that must be covered by multiple
sensors.
REMOTE ILLUMINANCE MODULE
Here up to 4 "slave" channels are enabled,
brightness data can be received from other 4
sensors to coordinate the control of areas that must
be covered by multiple sensors. Each remote
channel has its own correction parameters.
SOUND SENSOR MODULE
Here the parameters connected to the sound sensor
are defined, such as the sensitivity and the telegram
associated with its basic module.
MODULE CHANNEL CONFIGURATION
Here can be enabled up to 5 sensor channels. Each
channel corresponds to a sensor behaviour
selectable from a list which includes:
-simple presence
-automatic presence illuminance depending
-semi-automatic presence
-semi-automatic presence illuminance depending
-Constant illuminance
-Constant illuminance presence depending
-Constant illuminance presence depending semi-
automatic
INPUTS MODULE
Here, parameters and commands relating to digital
and digital / analog inputs are set
HUMIDITY MODULE
Here the parameters and the regulation and
hysteresis thresholds are set in order to control
ambient humidity.
TEMPERATURE SENSOR/THERMOSTAT MODULE
Temperature control parameters and algorithms.
CIRCADIAN RHYTHM MODULE
Parameters relating to the management of the
lighting control according to the circadian rhythm,
logic for setting a forced cycle or a cycle that

PD00E0XKNXFI00020100_HANDBOOK_EN.DOCX
PD00E0xKNX KNX PRESENCE DETECTORS RANGE Handbook
Eelectron SpA, Via Monteverdi 6,
I-20025 Legnano (MI), Italia
Tel: [phone] Fax:[phone]
E-mail: [email protected] Web:www.eelectron.com
C.F. e P.IVA 11666760159
Tribunale di Milano 359157-8760-07
CCIAA Milano 148549
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resumes the light behaviour in any terrestrial
position and includes the management of warm
and cold light.
VIRTUAL HOLDER MODULE
Parameters relating to the logic of automatic
recognition of the presence of people in the room
typically for hotel application
CONFIGURABLE SMART LOGICS
It includes 12 configurable logics that include
algebraic and conditional expressions, the number
of logics is reduced if the "virtual holder" or
"circadian rhythm" or "smart sensor (CO2)" modules
are used.
Main functions digital inputs 1,2,3
Inputs can be connected to pushbuttons, switches,
and can be used for:
1-bit commands: loads activation / deactivation
commands (ON / OFF / TOGGLE) with short
pressure or with long and short pressure
differentiation
1 byte commands (0-255 or HVAC commands
or % value commands).
Sending long action telegrams to the same
short action address or to a different group
address
Commands for cyclic sending
Sequences (3 commands that mix 1 bit / 1 byte
objects) with different group addresses - in
short and long press mode or in switching
mode
Dimmer management (with single button or
with double button)
Roller shutters and blinds management (with
single button or with double button)
Control sequences with 1 bit to manage
switching on / off lights or rows of lights
RGB color setting with fixed value (short
pressure) or color change (long pressure); 1
byte datapoint or 3 byte selectable
MUR / DND (Make Up Room - / Do Not Disturb),
function with built-in logics
Loop function between values to send step by
step a sequence of values of 1 byte
Main functions analog input 3
Input 3 can be configured as analog for the
connection of NTC temperature probes (STANDARD,
MULTI, SPACE and HIGH BAY) and also as a "smart
sensor" input for reading temperature and CO2
(MULTI and SPACE versions)
NTC probes :
For NTC temperature probe the following eelectron
code accessories must be used:
TS01A01ACC (from -20°C to +100°C)
TS01B01ACC (from -50°C to +60°C)
Smart sensor:
Use the external accessory SM03E01ACC, this
accessory includes a temperature sensor (range
from -5 ° C to + 50 ° C) and a CO2sensor (range from
0 ppm to 1000 ppm).
Thermostat main functions
Different Control Algorithms: 2-point on / off;
PWM; continuous control / Fan Coil control
Different modes of operation mode setting:
Automatic HVAC / HVAC Manual / Setpoint
Additional command for 2nd stage
management
Window contact management
Additional external probe (optional)
Logics and Virtual Holder function
The device includes some logic functions and a
logic for the automatic recognition of the presence
called "Virtual Holder"
Logics main functions
Each logic has 2 input objects and 1 output
object available
Smart logics with complex expressions may use
4 input and 1 output objects
Parameters: delay and number of
retransmissions
NOT / AND / OR / NAND / NOR / XOR / XNOR

PD00E0XKNXFI00020100_HANDBOOK_EN.DOCX
PD00E0xKNX KNX PRESENCE DETECTORS RANGE Handbook
Eelectron SpA, Via Monteverdi 6,
I-20025 Legnano (MI), Italia
Tel: [phone] Fax:[phone]
E-mail: [email protected] Web:www.eelectron.com
C.F. e P.IVA 11666760159
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CCIAA Milano 148549
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Bit to Byte conversion
Byte to Bit conversion
Threshold functions for 1,2,4 Bytes objects
Logics to manage Fan coil speeds
Logics to manage dew point calculation
Logics to manage telegrams surveillance
3. Installation instructions
Warning
The device may be used for permanent indoor
installations in dry locations within wall box
mounts..
WARNING
Device must be installed keeping a minimum
distance of 4 mm between electrical power line
(mains) and input cables or red / black bus cable.
The device must not be connected to 230V
cables
The prevailing safety rules must be heeded.
The device must be mounted and commissioned
by an authorized installer.
The applicable safety and accident prevention
regulations must be observed.
The device must not be opened. Any faulty
devices should be returned to manufacturer.
For planning and construction of electric
installations, the relevant guidelines, regulations
and standards of the respective country are to be
considered.
KNX bus allows you to remotely send commands
to the system actuators. Always make sure that
the execution of remote commands do not lead
to hazardous situations, and that the user always
has a warning about which commands can be
activated remotely.
Hints
Illuminance measurement
Ambient illuminance measurement is performed
indirectly and calibration is therefore necessary.
The sensor is installed on the ceiling and the
detected illuminance can differ significantly from
that of the work surface; using the SW ETS it is
possible to set correction parameters for the device
on the basis of an on-site measurement using a lux-
meter
Do not allow sunlight or artificial light to directly
irradiate the sensor.
Presence and movement detection
The sensor allows you to set different sensitivity
levels; read with care the following notes for correct
installation of the device and setting of the
sensitivity parameters.
The sensor detects the difference between the
ambient temperature and the temperature of
moving objects and people; the lower this
temperature difference, the less sensitive the
sensor will be.
For a correct coverage of the sensor surveillance
area, avoid that walls (including glass) or
furniture are an obstacle; if this is not possible,
increase the number of sensors in the area for
complete coverage.
Always mount the sensor on a stable site, not
subject to vibrations or oscillations that can
simulate movement.
Lighting fixtures placed near the sensor or in the
monitored area can cause false detections, avoid
this type of interference as much as possible.
Avoid to place in the coverage area there are
appliances that produce heat such as fan coils,
printers, lamps, etc. or objects that move
because of the wind or drafts.
Please see datasheet at: www.eelectron.com
4. General parameters
PARAMETRO KNX
IMPOSTAZIONI
Delay to send telegrams
on power up [s]
5 ÷ 15
Through this parameter is possible to set the delay of

PD00E0XKNXFI00020100_HANDBOOK_EN.DOCX
PD00E0xKNX KNX PRESENCE DETECTORS RANGE Handbook
Eelectron SpA, Via Monteverdi 6,
I-20025 Legnano (MI), Italia
Tel: [phone] Fax:[phone]
E-mail: [email protected] Web:www.eelectron.com
C.F. e P.IVA 11666760159
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transmission of telegrams after a power on by selecting
the time by which the device is allowed to send
telegrams.
In large systems after a power failure or shutdown this
delay avoids to generate excessive traffic on the bus,
causing slow performance or a transmission block.
If there are different devices requiring sending telegrams
on the bus after a reset, these delays must be
programmed to prevent traffic congestion during the
initialization phase.
The input detection and the values of objects are updated
at the end of the transmission delay time
At the end of ETS programming the device behaves like
after a power on.
Sound sensor
disabled/enabled
Enabling the function shows the dedicated page
Input 3 type
digital
analog
CO2Sensor
Input 3 of the sensor can be configured as digital (for
interfacing buttons) / analog (for interfacing NTC probes /
CO2sensor for interfacing the CO2sensor code
SM03E01ACC
Humidity sensor
disabled/enabled
Enabling the function shows the dedicated page
Temperature function
Temperature function disabled
Temperature sensor
Thermostat
Temperature sensor: 2-point temperature control module
with hysteresis, selection of the control band variable from
the bus, enabling and disabling the module from the bus.
Thermostat: complete temperature control module, PI
algorithm, dedicated functions for on / off valve
management - PWM - continuous - 6-way; fan coil, etc.
Day/night Object
disabled/enabled
Using this object it is possible to change the sensitivity of
the sensor at different times of the day, for example by
increasing the sensitivity during the day and decreasing it
at night.
Use CO2 sensor
no/yes
By enabling this parameter it will be possible to connect a
smart sensor (temperature + CO2) cod. SM03E01ACC
Use circadian rhythm
disabled/enabled
Enable the circadian rhythm module (see paragraph 20 )
Use virtual Holder
disabled/enabled
By setting this parameter, it is possible to enable a "virtual
holder", that is a logical function that automatically
recognizes the presence of a person in a room. This
function can be used in hotels or similar installations and
requires connection to other devices (see Virtual holder)
(see paragraph 21 )
Temperature alarm object
disabled/enabled
The "temperature alarm" object is used to report alarms
relating to the sensor connected to input 3 (if enabled), to
the smart sensor (if present), or if surveillance timeout
occurs when KNX-Probe (via bus is enabled).
Use led for presence
event
no / yes
Defines whether the indicator LED is lit on to indicate
presence detection
Enable test mode
disabled/enabled
By enabling this parameter will be visible a
communication object to enter test mode (see paragraph
5)
5. Test Mode
Description and execution of the test
During installation it is recommended to put the
sensor in test mode to check the actual coverage
area. With the test it is possible to check whether
the area controlled by the sensors includes, for
example, the PC workstations rather than the
expected entry points; similarly, it will be possible to
verify that the monitored areas do not include
unwanted passage areas such as corridors or stairs
that would have the effect of activating lights or
other appliances without the need for them. In both
cases it is recommended to change the position of
the sensor and repeat the test.
To activate the test, use the 1-bit object:
0 | <General> Test Mode
1bit | CW
Enables test mode when receiving a "1" telegram. The test
mode is deactivated upon receipt of a "0" telegram or after
a time that can be set in minutes using the "Test time"
parameter visible on the "General Parameters" page.
During the test, the front LED is always enabled and
its lighting indicates that a movement has been
detected. During the test, the 1-bit telegram
associated with the following object is also sent on
the bus:
4 | <Presence> Output
1bit | CRT
On / Off object subordinated to the presence module
If it is necessary for the sensor to detect "small"
movements such as a person working on a desk, it is

PD00E0XKNXFI00020100_HANDBOOK_EN.DOCX
PD00E0xKNX KNX PRESENCE DETECTORS RANGE Handbook
Eelectron SpA, Via Monteverdi 6,
I-20025 Legnano (MI), Italia
Tel: [phone] Fax:[phone]
E-mail: [email protected] Web:www.eelectron.com
C.F. e P.IVA 11666760159
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CCIAA Milano 148549
10/46
recommended to check the detection also in
relation to the sensitivity value set. The higher the
sensitivity set, the greater the sensor's ability to
detect "small" movements. High sensitivity values
can lead to false detections caused by "thermal
noise": carefully read the warnings in paragraph
Errore. L'origine riferimento non è stata trovata. to
reduce the possibility of false detections.
6. Presence Module
The presence module provides a parameter for
setting the sensitivity of the PIR sensor, this
parameter will also affect detection for channels 1
to 5 that use presence; the remaining parameters
are connected only to this module.
KNX PARAMETER
SETTINGS
Sensor sensitivity
Very high sensitivity
high sensitivity
normal sensitivity
low sensitivity
very low sensitivity
Use low sensitivity values when the sensor is placed in
"thermally noisy" environments, for example in the
presence of sources of hot or cold air emissions (see
installation suggestions); high sensitivity values can be
used when the sensor must detect "small" movements
such as those of a person working at a desk.
Sensor sensitivity day
If the day-night switching
object is enabled (general
parameter), it will be possible
to diversify the sensitivity at
different times of the day
Sensor sensitivity night
Presence sensor
send absence only
send presence only
send both absence/presence
For the basic module it defines in which cases to send the
1 bit telegram.
Presence telegram
OFF is presence
ON is presence
Defines the value of the 1-bit telegram per presence; the
opposite value will be used for absence.
Follow up time
Hours
Minutes
Seconds
0..24
0..59
0..59
Sets the follow up time
Output cyclic send time
No cyclic sending
h
Set the period of cyclical sending.
Follow up time
The presence telegram is sent in the presence
module when the sensor detects presence [A]; the
device waits for the follow up time to elapse before
sending the absence telegram [C]; if a new
movement [B] is detected during the monitoring
time, the follow up time restarts. The absence
telegram is sent only when the follow up time ends
without any movement being detected [D]
7. Illuminance module
In this module the parameters relating to the
brightness sensor are configured (not present on the
model PD00E00KNX - BASIC).
Adjustment of the illuminance sensor
It is very important to carry out a correct and
precise calibration of the illuminance sensor; in fact,
the sensor must measure the illuminance on the
placed in a different position
(on the ceiling). The sensor receives reflected light
and the reflection depends on the reflective
capacity of the floor or furniture and the distance
from the windows.
[A] PRESENCE TELEGRAMM
[B] FOLLOW UP TIME RESTARTS
[C] ABSENCE TELEGRAM
[D] FOLLOW UP TIME

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The calibration is to make the value of reflected
light as similar as possible to direct light.
There are 3 calibration methods available.
MANUAL
1 POINT
2 POINTS
Manual adjustment
Manual calibration is done by setting 2 ETS
parameters:
KNX PARAMETER
SETTINGS
Correction coefficient
[*0.01]
Set the factor, expressed in hundredths, to multiply by the
measured value. The value 100 is equivalent to not
applying any correction value; values greater than 100
cause the measured illuminance value to increase (200 =
double, 250 = 2.5 times; 300 = triple); values less than 100
cause the measured brightness value to decrease (50 =
half, 25 = a quarter, 10 = a tenth).
Correction offset [*10
Lux]
-127
Sets a fixed value to be added or subtracted from the
measured value after applying the correction coefficient;
the Offset value set is in tens of lux therefore setting the
parameter to the value +10 will result in adding 100 Lux
(10 * 10 = 100) to the measured value, on the contrary
setting the parameter to the value -8 will result in that to
subtract 80 Lux (-8 * 10 = -80) from the measured value.
The value 0 is equivalent to not applying any offset.
1 point adjustment
The 1-point calibration uses the correction offset
which is calculated directly by the sensor; requires
setting of 2 ETS parameters:
KNX PARAMETER
SETTINGS
Measured value ceiling
[*10 Lux]
0 .. 255
Measured value desk
[*10 Lux]
0 .. 255
To set the correct values of the parameters, use a
lux meter to detect the brightness and follow the
procedure described below; if possible, carry out the
procedure in the dark hours or with the shutters
down, in any case avoid situations in which the
external light enters the room directly because in
this case the result could be distorted.
STEP
DESCRIPTION
1
Place the lux-meter on the work surface for which
you want to have accurate brightness control,
2
Change the intensity of the lamps until the desired
lighting value is obtained: if, for example, the desired
value is 500 Lux, adjust the lighting until this
measurement is obtained on the lux-meter located
on the desk.
3
Read the brightness value measured by the sensor
and available on object 8 <Illuminance> Output
4
Set in ETS the parameter " Measured value ceiling "
with the value sent by the sensor (divided by 10) and
the parameter " Measured value desk " with the
value measured by the lux meter (divided by 10)
2 points adjustment
The 2-point calibration uses both the correction
offset and the correction coefficient and both are
calculated directly by the sensor; requires setting of
4 ETS parameters:
REFLECTING LIGHT
DIRECT LIGHT

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KNX PARAMETER
SETTINGS
Measured value ceiling
PT1 [*10 Lux]
0 .. 255
Measured value desk
PT1 [*10 Lux]
0 .. 255
Measured value ceiling
PT2 [*10 Lux]
0 .. 255
Measured value desk
PT2 [*10 Lux]
0 .. 255
To set the correct values of the parameters, use a
lux meter to detect the brightness and follow the
procedure described below; if possible, carry out the
procedure in the dark hours or with the shutters
down, in any case avoid situations in which the
external light enters the room directly because in
this case the result could be distorted.
STEP
DESCRIPTION
1
Place the lux-meter on the work surface for which
you want to have accurate brightness control,
2
Change the brightness of the lamps until you get the
lighting value lower than the desired one: if for
example the desired value is 500 Lux, modulate the
lighting up to read 100/200 Lux on the lux-meter
placed on the desk.
3
Read the brightness value measured by the sensor
and available on object 8 <Illuminance> Output
4
Set in ETS the parameter "Value measured on the
ceiling PT1" with the value sent by the sensor
(divided by 10) and the parameter "Value measured
on the desk PT1" with the value measured by the
lux-meter (divided by 10)
5
Change the brightness of the lamps until obtaining
the lighting value higher than the desired one:
considering a desired value of 500 Lux, modulate the
lighting up to read 700/900 Lux on the lux meter
placed on the work surface.
6
Read the brightness value measured by the sensor
and available on object 8 <Illuminance> Output
7
Set in ETS the parameter "Value measured on the
ceiling PT2" with the value sent by the sensor
(divided by 10) and the parameter "Value measured
on the desk PT2" with the value measured by the
lux-meter (divided by 10)
KNX PARAMETER
SETTINGS
Avarage lux algorithm
Very fast
fast
normal
slow
very slow
Defines the response speed of the controlled output after
a measured ambient brightness variation (see figure 1)
Minimum output value
[*10 Lux]
Maximum output value
[*100 Lux]
Values below the minimum value will be forced to the
minimum value, values greater than the maximum value
will be forced to the maximum value,
Send on variation [Lux]
Do not send, 5 .. 75
Minimum difference in the measurement in Lux
compared to the previous value which triggers the
immediate sending of the value
Cyclic send time
No cyclic sending, 15 s .. 12 h
Period of cyclical sending of the illuminance
measurement
AVERAGE LUX CALCULATION ALGORITHM (Fig. 1)
When there is a sudden change in illuminance (in
the example the lux are reduced) the system reacts
by increasing the control value%, the red slope
corresponds to the "very fast" algorithm, the purple
one (softer) corresponds the "very slow" algorithm.
8. Remote presence
The sensor can also receive presence information
from other sensors (remote sensors) which therefore
act as "slaves" of the main sensor acting as "master".
The "slave" sensors are used to increase the
detection area. When a sensor acts as a "slave" it can
still also act as a "master" for the area it covers.
The settings relating to the management of the
slaves can be set in the "Remote Presence" section.
The device can receive up to 4 x 1-bit telegrams on
4 different addresses from "slave" sensors, for each

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"slave" it is possible to define whether presence is
detected with telegram "0" or "1".
As will be seen later, in the section relating to the
sensor channels, each channel can be a "master" of
all the defined slaves or only a part of them; this
allows to define complex behaviours.
For example: in an area covered by 5 sensors the
"master", to which 4 "slaves" are connected, is able
to regulate a group of lights which must be turned
on when at least one slave detects the presence
while other 5 groups of lights can be each
associated with a single sensor.
In figure 1 the sensors A, B, C regulate the lamps
1,2,3 respectively. A second channel of sensor A
regulates lamps 4 and 5, which must both remain
on as long as presence is detected by one of the 3
sensors (A or B or C). The second channel of sensor
A considers the telegrams of remote sensors B and
C.
9..12 | <Remote presence x> Input
1 bit | CW
Object to receive presence / absence from other sensors
9. Use of remote presence
To use the presence information from remote
sensors, the following parameters are available
within the configuration page of each channel; it is
necessary to have enabled and connected the
communication objects as described in the previous
chapter.
KNX PARAMETER
SETTINGS
Use remote presence
no/yes
Choose yes to consider data from other sensors for this
channel
Presence
do not use/use
Choose "use" to use the information of the presence
channel of the device itself.
Remote presence 1 (2.4)
do not use/use
the remote sensor 1 (2,3,4)
10. Remote illuminance
The sensor can receive the illuminance value from
other sensors and use it to obtain a weighted
average. Each sensor channel has its own
parameters to select which external lighting values
to consider and with what weight.
It is possible to activate up to 4 remote brightness
channels, for each channel the following
parameters are available.
KNX PARAMETER
SETTINGS
Remote illuminance
sensor
unused / used
Activates the remote brightness channel, makes a
communication object visible and also the following
parameters.
Illuminance after
download [*10 Lux]
0 .. 255
Defines the value that the communication object assumes
after downloading, ie before valid data is received from the
remote sensor.
Correction coefficient
[*0.1]
1 .. 255
Set the factor to be multiplied, expressed in hundredths, by
the measured value, the value 10 is equivalent to not
applying any correction value; values greater than 100 cause
the received brightness value to increase (20 = double, 25 =
2.5 times; 30 = triple); values less than 100 cause the
measured brightness value to decrease (5 = half, 1 = one
tenth).
Fig. 1
B
C
A
9 <Remote presence> Input
10 < Remote presence > Input
6 <Presence> Output
6 <Presence> Output
A
B
C
2
1
3
5
4

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Correction offset [*10
Lux]
-
Sets a fixed value to be added or subtracted from the
measured value after applying the correction coefficient; the
Offset value set is in tens of lux therefore setting the
parameter to the value +10 will result in adding 100 Lux (10
* 10 = 100) to the measured value, on the contrary setting
the parameter to the value -8 will result in that to subtract
80 Lux (-8 * 10 = -80) from the measured value. The value 0 is
equivalent to not applying any offset.
Correction output limits
Minimum [*10 Lux]
0 .. 255
With this parameter you set the minimum value that the
external component can take after applying the coefficient
and the correction offset (the set value is multiplied by 10
Lux).
Maximum [*100 Lux]
0 .. 255
This parameter sets the maximum value that the external
component can take after applying the coefficient and the
correction offset (the set value is multiplied by 100 Lux).
11. Use of remote illuminance
To use the illuminance information from remote
sensors, the following parameters are available
within the configuration page of each channel; it is
necessary to enable and connect the
communication objects as described in the previous
chapter (function not available on the BASIC
model).
13..16 | <Remote Illuminance x> Input
2 byte | CW
Object to receive Lux value from other sensors
KNX PARAMETER
SETTINGS
Usa illuminazione remota
no / yes
Choose yes to use brightness values from other sensors for
this channel.
Weight illuminance
da 1 a 15
Weight remote
illuminance 1
Do not use, da 1a 15
Weight remote
illuminance 2
Weight remote
illuminance 3
Weight remote
illuminance 4
Choose "use" only if the communication object is
connected, otherwise choose "do not use".
It is possible to apply a different weight to each sensor to
give greater importance to the value read by one sensor
than another.
Example 1:
consider the contribution of a second sensor.
To give the same weight to the value of each sensor
set the parameters as:
Weight illuminance
1
Weight remote illuminance 1
1
The total weight is 2 (1+1) and each
sensor weighs in equal parts: 1/2 of
the total, i.e. 50%
To give one sensor twice the weight of the other, set
the parameters as:
Weight illuminance
2
Weight remote illuminance 1
1
The total weight is 3 (2+1) the
internal sensor weighs 2/3 of the
total (66%), the external one 1/3
(33%)
Example 2:
consider the contribution of 2 other sensors.
To give the same weight to the value of each sensor
set the parameters as:
Weight illuminance
1
Weight remote illuminance 1
1
Weight remote illuminance 2
1
Il peso totale è 3 (1+1+1) e ciascun
sensore pesa in parti uguali : 1/3
del totale cioè pesa al 33%

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Example 3:
consider the contribution of 2 other sensors.
To give a sensor twice the weight of each of the
other two, set the parameters as:
Weight illuminance
2
Weight remote illuminance 1
1
Weight remote illuminance 2
1
The total weight is 4 (2+1+1) the
internal sensor weighs 2/4 of the
total (50%), the remote sensors 1
and 2 weigh 1/4 each (25%)
12. Sound sensor
The MULTI and SPACE models are equipped with a
sensor capable of detecting sounds and measuring
their intensity. Using this sensor it is possible to
send the value in decibels relative to the sound level
of the room via bus: this measurement, together
with those of brightness, relative humidity and
temperature, is used for the control and certification
of buildings (see Leed®, Breeam certifications ® and
Well®).
The sound sensor is also used in environments
where there are parts not visible to the infrared
sensor, such as bathrooms.
Using ETS parameters and communication objects
it is possible to configure actions related to the
detection of sounds or, after the device has
detected movement through the passive infrared
sensor, it is possible to prolong the switching on of
the lights also on the basis of the detected sounds.
At the end of the follow-up time, after the light has
been automatically turned off, the sound sensor can
listen for a set period so that the light can be
reactivated by the sounds even after turned off. The
sensor can be configured with different sensitivity
values (from very high to very low); it is important to
select the appropriate value based on the intended
use of this sensor.
The sound sensor detects sounds or noises
whose intensity differs from the average
value of the environment in which it is located; in
other words, the sensor uses an adaptation
algorithm to avoid false detections if the
background noise changes slowly.
The sound sensor can be enabled or
disabled from the bus via a 1-bit
communication object, it is therefore possible to
keep it enabled at the times when you want to
obtain the maximum performance of the device in
terms of sensitivity and disable it when it is not
necessary (for example in work environments may
be active during working hours and not active in
other hours).
KNX PARAMETER
SETTINGS
State after download
disabled/enabled
Defines whether the sound detection function is enabled
or disabled at the end of the download, the function can
also be enabled or disabled from the bus.
Enable telegram
Select the value of the 1 bit telegram to enable / disable
Sensitivity
Very high
high
normal
low
very low
Select the sensitivity of the sound sensor
Sensitivity day
As in the previous parameter:
if the day-night switching
object is enabled, it will be
possible to diversify the
sensitivity at different times of
the day
Sensitivity - night
Output type
off/on
decibel
intensity [w/m2]
The sound sensor can be used to manage ON / OFF
commands or to communicate to the supervisory systems
the sound intensity value detected in dB or in W / m2
Telegram when sound
event detected
[if output type = off/on]
off/on

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If the one-bit telegram is selected, this parameter defines
the value of the telegram to be sent when sound is
detected (start event).
Send only detection
event
no/yes
Choose no to send the telegram of opposite value to that
of detection (end of event), at the end of the follow-up
time
Detection retention time
1 s. .. 2 ore
If no sound is detected the telegram related to the end of
the event is sent at the end of this time.
Correction offset
[if output type = decibel]
-7 .. +7
Correction offset of the value in dB
Sending interval
never, 1 minute hours
Periodical sending time
Send on variation
[if output type = decibel]
never
Value of deviation from the previous value that generates
the sending of the data.
Send on variation
[if output type = Intensity]
never, 2*10-9 .. 8.19 * 10-6
Value of deviation from the previous value that generates
the sending of the data.
13. Channels configuration
The device has 5 independently configurable
channels, below we see the possible settings and
functions, they are the same for each channel.
The possible types of functions are as follows; not all
functions are possible for all models, the BASIC
model does not provide any function related to
brightness:
No action
Simple presence
Automatic presence, illuminance depending
semi-automatic presence
semi-automatic presence, illuminance
depending
Constant illuminance
Constant illuminance, presence depending
Constant illuminance, presence depending,
semi-automatic
Some settings are recurring and may appear on
more than one function, these settings will be
described below.
Follow-up time
The follow-up time defines how long the device,
after the detection of a presence, must consider the
PRESENCE status valid even if it has not detected
other movements. If a new movement is detected
during the follow-up time, it is restarted. At the end
of this time, the device goes into the ABSENCE
state.
KNX PARAMETER
SETTINGS
Follow-up time
Hours
0 .. 24
Minutes
0 .. 59
Seconds
0 .. 59
It is possible to use the information of the sound
sensor to extend the follow-up time (in this case the
sound is considered as a new presence detection). It
is also possible to define a time at the end of the
follow-up within which the detection of a sound
reactivates the follow-up time even if this has
expired..
KNX PARAMETER
SETTINGS
Use sound sensor event
during follow-up time
no/yes
If you select yes the sound sensor will be considered for
the whole follow-up time.
Sound sensor reaction
time on absence
0 .. 255 s. [0=no reaction]
At the end of the follow-up time the sensor goes into the
ABSENCE state, within the time defined by this parameter
it can return to PRESENCE and reactivate the follow-up
time upon detection of a sound whose intensity differs
from the average value of the environment in where it is.

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Objects A,B,C - presence/absence
The channels in which the behavior of the device is
linked to the presence always have 3
communication objects associated with it.
The configurations of these objects are present in a
dedicated page <Channel x> Outputs
<Channel x> Output A
1 bit | CRT
<Channel x> Output B
1 bit | CRT
<Channel x> Output C
some dpt | CRT
Objects A and B are 1-bit objects; for each of them
it can be defined which telegram is linked to
presence ("1" or "0") and whether the presence,
absence or both telegram must be sent.
KNX PARAMETER
SETTINGS
Output A (same parameters for Output B)
Execute presence action
no/yes
Execute absence action
no/yes
Presence telegramma
Activates the stand-by function whose parameters are
configurable in a dedicated page for each channel.
Object C can be configured with different data
points: 1 byte (signed or insigned), 2 bytes (signed or
unsigned), 2 floating bytes; in this way it is possible
to use each channel to send scenario, percentage,
hvac, temperature, brightness, etc setpoint values
on the presence, absence or both events.
KNX PARAMETER
SETTINGS
Output C
Output C - type
none
1 byte signed
1 byte unsigned
2 byte signed
2 byte unsigned
2 byte floating point
Delay Output C
0, 100 ms, 200ms, 500 ms,
1 s, 2 s, 5 s, 10 s
Delay for sending object C respect to objects A and B.
Stand-by function (corridor function)
The stand-by function is connected to presence
detection; by activating this function the device, at
the end of the follow-up time, does not turn off the
lights but still keeps them on, typically at a lower
brightness level to save energy but avoiding that the
area remains completely in the dark.
A typical application concerns the lighting of
corridors. If there are offices with an adjacent
corridor it is possible to manage the corridor
lighting without installing a dedicated sensor. A
channel of one of the sensors located in the offices
will control the corridor lights and use the sensors
located in the other offices as remote sensors. When
at least one of the offices is occupied the light in the
corridor remains on, when instead all the offices
remain empty the corridor can go into stand-by
remaining with the light on at a reduced brightness
level to facilitate the passage of people who have to
walk through it . If the light is controlled in on / off
mode with a one-bit object, it is possible to keep
the light on during standby time and activate
(optionally) a warning of entry into standby time
with a short (1 sec. ) switching off and on of the
light.
KNX PARAMETER
SETTINGS
Stand-by function
disabled/enabled
Activates the stand-by function whose parameters are
configurable in a dedicated page for each channel.
Stand-by time
Hours
0 .. 24
Minutes
0 .. 59
Seconds
0 .. 59
Output A (same parameters for Output B)
execute warning action
no/yes
Activates the warning function for channels with 1-bit
output, i.e. those channels the constant lighting function
is not configured depending on presence.
Execute Stand-by
Only for output C

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Value entry field dependent on the type of data chosen
for object C.
Stand-by value
Only for channels configured
with "constant illuminace"
For these channels, a value (%) of lights is usually
configured to facilitate orientation, typically in the
corridors.
Sound sensor cofiguration
Use sound sensor event
during stand-by time
no/yes
If you select yes, the sound sensor will be considered for
the whole stand-by time; if a sound is detected (intensity
must differs from the average value of the environment in
which it is located) sensor exits the stand-by state to
return to presence.
Lock function
The function allows to block (disable) a device
channel; each channel has a communication object
to activate / deactivate the block via bus. The
selection of the block function enables in ETS a
page dedicated to its parameters: <Channel x>
Block.
KNX PARAMETER
SETTINGS
Telegram for lock
activation
t
Defines which telegram enters the device in "lock"
Lock state after
download
unlocked / locked
Assigns the status of the lock function after the ETS
download is complete
Lock state at power-on
unlocked / locked / state
before power-off
Assigns the status of the block function at the end of the
power-on sequence
Automatic unlocking
time
0 .. 255
[0=no automatic unlock]
It is possible to set a time after which the block function is
automatically disabled
Output behaviour when
locked
telegram
Disable sensor and send
telegram
Output A (B)
nothing / off / on
Output C
nothing / value
Value
Only for output C enabled:
value entry field dependent on
the type of data chosen for
object C.
If the "disable sensor and send telegrams" behavior is
selected, it will be possible to define which telegrams and
values to send before the block so that the ligths
controlled by the sensor can remain in the chosen state
for as long as the channel is disabled.
Stop function
The stop function is used to temporarily deactivate
the sensor by changing the brightness of the
environment with a manual command, for example
with a KNX button or by using a sensor input.
The KNX button will be connected directly to the
light actuator and the group addresses must also be
connected to the sensor so that it can receive the
commands that are imposed by the user on the
lights.
Sensor objects to be connected to the manual
control:
<Channel x> Stop 1 Bit
1 bit | CW
< Channel x> Stop 4 Bit
4 bit | CW
< Channel x> Stop 1 Byte
1 Byte| CW
Example of connection between button, sensor and
actuator: the objects that connect the button to the
actuator are also connected to the sensor to give
information that the command has been manually
forced.
1 bit on/off
4 bit dimming
1 byte %
1 byte %
1 bit on/off
4 bit dimming
1 byte %
1 bit on/off
4 bit dimming
1 byte %

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A typical application of the stop function is to force
the lights to turn off in a room during a projection
or to force the lights to turn on in an environment
where the detected brightness is greater than the
set threshold.
For as long as the device detects the presence of
people, the adjustment will be disabled considering
the manual selection of the user as a priority. The
sensor will return to directly control the lights only
at the end of the follow-up time.
It is possible to set the parameter "Automatic restart
time"; it defines the duration of the sensor
adjustment disabling time, when it expires the
sensor resumes its automatic behavior.
These communication objects are also available:
< Channel x> Restart
1 bit | CW
< Channel x> Activated/Stopped
1 bit | CRT
The first CO force to exit from the stop state upon
receipt of a "0" or "1" telegram; the second sends the
active / stop status on the bus with telegram "0" or
"1".
KNX PARAMETER
SETTINGS
Stop state after
download
activated / stopped
Defines whether the device is in Stop or not after
download
Stop state after power on
activated / stopped / state
before OFF
Define the status of the stop function on power-up
Telegram for restart
Defines which telegram determines the exit of the sensor
channel from the manual forcing status (stop)
Telegram for activated
Defines which telegram is sent on the bus to indicate that
the sensor channel is active again (not in stop), the
opposite telegram will signal the manual forcing status
(stop)
Automatic restart time
(0=unlimited) [min]
0..255
If different from zero, this parameter defines after how
long the sensor channel exits the manual forcing (stop)
and returns to automatic mode.
Utilization function
Function available on product code PD00E03KNX
SPACE_sensor
The UTILIZATION function is associated with each
channel which includes the presence detection
function, the function can be enabled on the
channel pages. Using the UTILIZATION function it is
possible to calculate the percentage of time in
which the presence of people in the area monitored
by the sensor is detected.
An ETS parameter defines the evaluation time
which can vary from 1 minute to 4 hours; it is
recommended to keep monitoring time values from
5 to 60 minutes in order to make data collection as
granular as possible and leave it to the supervisor to
process it.
The usage data, expressed as a percentage, is sent
at the end of each surveillance period using a 1 byte
object. Another 1-bit object is used to force the
sending of the percentage data as well as to
synchronize the different sensors of the building so
that the transmitted data can be compared. The
ability to manage the sending of data on request is
also useful for collecting data with variable
frequencies throughout the day.
Occupancy FUNCTION
Function available on product code PD00E03KNX
SPACE_sensor
The occupation function detects data to be used to
process information related to the intensity of the
activity of people within the areas monitored by the
sensor, this activity is proportional to the number of
people present and allows you to generate a "heat
map" of the areas of the buildings . The heat map,
usually correlated to the hours of the day, identifies
which areas of the buildings are used during the
various hours of the day and with what intensity by
providing precise information to the building
manager. The analysis of the occupancy data of a
building in fact highlights any planning errors of
energy resources as well as possible optimizations
of the use of individual and common spaces.

PD00E0XKNXFI00020100_HANDBOOK_EN.DOCX
PD00E0xKNX KNX PRESENCE DETECTORS RANGE Handbook
Eelectron SpA, Via Monteverdi 6,
I-20025 Legnano (MI), Italia
Tel: [phone] Fax:[phone]
E-mail: [email protected] Web:www.eelectron.com
C.F. e P.IVA 11666760159
Tribunale di Milano 359157-8760-07
CCIAA Milano 148549
20/46
KNX PARAMETER
SETTINGS
Monitor function
disabled/enabled
If enabled, the sensor activates the monitoring of presence
events.
Monitor cyclic time
[min]
0 .. 255 (0 = never)
Defines the sending period of the movement counter;
each time the counter is restarted from zero.
Simple presence
In this mode, the sensor acts as a simple presence
detector without taking into account the
contribution of the brightness sensor.
There are 3 communication objects that can send
data on the bus when the presence or absence
condition is detected, channels A and B are 1 bit,
channel C is configurable.
<Channel x> Output A
1 bit
CRT
< Channel x> Output B
1 bit
CRT
< Channel x> Output C
1 bit
CRT
1 byte signed
1 byte unsigned
2 byte signed
2 byte unsigned
2 byte float
For channels A, B, C it is possible to set the cyclical
repetition of the command; if activated the
command is sent periodically, in presence and
absence for all 3 objects.
Automatic presence, illuminance
depending
In this mode the sensor works taking into account
the contribution of the brightness sensor.
The parameters, functions and communication
objects are the same seen in the settings of the
simple presence mode plus some specific
parameters for the management of the on / off
control of the light.
[A]
The detector identifies a movement and activates
presence because the illuminance is lower than the
setpoint (the light is turned on)
[B]
The illuminance exceeds the setpoint value + the
hysteresis and the sensor goes into the absence
state (the light is turned off)
[C]
The illuminace becomes lower than the setpoint,
the presence status is still active (the light is
switched on).
[D]
The FOLLOW UP time expires without any new
presence detected, the sensor goes into the
absence state (the light is turned off)
KNX PARAMETER
SETTINGS
Average lux algorythm
Very fast
fast
Normal
slow
very slow
It defines the calculation speed of the average illuminance
value, the faster the algorithm and the faster it reacts to a
change in lux level. The "very fast" selection can lead to
very frequent switching on and off of the light, the "very
slow" selection can introduce delays in switching the light
on or off.
Upper threshold
illuminance [*10 Lux]
Identifies the illuminance threshold to be set as a limit
value for switching on the light when presence is detected
(for higher illuminance values the light is not switched on)
Ignore illuminance
threshold on presence
event
no / yes
This parameter defines whether, when detecting presence
with brightness above the threshold, the sensor must turn
on the light before starting the regulation (parameter =
yes) or not turn on the light (parameter = no).
[A]
FOLLOW UP TIME
SETPOINT ILLUMINANCE
[B]
[C]
SETPOINT + HYSTERESIS
[D]