Fibar Group S.A. FGRGBWM441 ユーザーズマニュアル

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Fibaro RGBW Controller is a universal, Z-Wave compatible RGB / 
RGBW controller. Fibaro RGBW Controller uses PWM output 
signal, which enables it to control LED, RGB, RGBW strips, 
halogen lights and fans. Controlled devices may be powered by 12 
or 24 VDC. In addition the device supports up to four, 0V - 10V 
analog sensors, such as temperature sensors, humidity sensors, 
wind sensors, air quality sensors, light sensors etc. All IN and OUT 
terminals may be user configured for LED control or 0V-10V signal 
readouts.
Specifications
Power Supply:
Rated output power:
PWM output frequency:
Electricity consumption:
Radio signal power: 
For installation in boxes:
Max load (e.g. halogen 
bulbs):
In accordance with EU 
standards:
FCC ID:
Radio protocol:
Radio frequency: 
Range:
Operational temperature:
Dimensions (L x W x H):
12 V DC
24 V DC
combined 12A (sum of all 
connected output channels); 6A 
for single output channel
244 Hz
0,3W
1mW
Ø≥50 mm
at 12V - 144W combined,
at 24V - 288W combined.
EMC 2004/108/EC
R&TTE  199/5/WE 
2AA9MFGRGBWM441
Z-Wave
868,4 MHz EU;
908,4 MHz US;
921,4 MHz ANZ;
869,2 MHz RU;
up to 50m outdoors / up to 30m 
indoors; depending on terrain and 
building structure
0 - 40
o
42 x 37 x 17 mm
Operating Manual
FIBARO RGBW Controller 
FGRGBWM-441 v2.1 - v2.3.
Technical Information
• Controlled by Fibaro System devices or any Z-Wave controller
• Microprocessor controlled
• Executive element: transistor
• Active and historic (average) power consumption measuring
I General Information About Fibaro System
Fibaro is a wireless system, based on Z-Wave technology. Fibaro 
provides many advantages when compared to similar systems. In 
general, radio systems create a direct connection between the 
receiver and transmitter. However, the radio signal is weakened by 
various obstacles located in its path (apartment walls, furniture, 
etc.) and in extreme cases it fails to transfer required data. The 
advantage of Fibaro System is that its devices, apart from being 
transmitters and signal receivers, also duplicate signal. When a 
direct connection path between the transmitter and the receiver 
cannot be established, the connection may be achieved through 
other intermediate devices.
Fibaro is a bi-directional wireless system. This means that the 
signal is not only sent to the receivers but also the receivers send 
the confirmation of its reception. This operation confirms their 
status, which checks whether they are active or not. 
II Device Applications
Note!
1) Please contact your local supplier for the 
current rates.
2) Fibaro RGBW Controller stores consumed 
electricity data on its memory, which means 
disconnecting the module from voltage supply 
does not erase the data.
i
Safety of the Fibaro System transmission is comparable to the 
safety of transmission in data bus wired systems.
Fibaro operates in the free bandwidth for data transmission. The 
frequency depends on radio regulations in individual countries. 
Each Fibaro  network has its own unique network identification 
number (home ID), which is why it is possible to co-operate two or 
more independent systems in a single building without any 
interference.
Although Z-Wave is quite a new technology, it has already become 
recognized and officially a binding standard, similarly to Wi-Fi. 
Many manufacturers in various industries offer solutions based on 
Z-Wave technology, guaranteeing their compatibility. This means 
that the system is open and it may be extended in the future. Find 
more information at www.fibaro.com.
Fibaro generates a dynamic network structure. After Fibaro System 
is switched on, the location of its individual components is 
automatically updated in real-time through status confirmation 
signals received from devices operating in a "mesh" network.
Fibaro RGBW Controller may control:
• 12 / 24VDC powered RGB strips
• 12 / 24VDC powered RGBW strips
• 12 / 24VDC powered LED strips, bulbs, etc.
• 12 / 24VDC powered halogen lights
• 12 / 24VDC powered low output power fans
Additional features:
• 0-10V sensors signal readouts,
• 0-10V potentiometer signal readouts, and managing outputs 
  accordingly,
• controlled by momentary or toggle switches
III Installing the device
1. Before installation ensure the voltage supply is disconnected.
2. Connect Fibaro RGBW Controller according to wiring diagram. 
First, connect outputs (R,G,B,W) RGB/RGBW/LED diodes or 
Halogen lights, or inputs (I1-I4). Second, connect voltage supply. 
Note the device must be powered by a dedicated stabilized power 
adapter.
3. Arrange the antenna (find tips below wiring diagrams).
4. Turn the voltage on.
5. Include the module into the Z-Wave network.
Warning!
1)
 Fibaro RGBW Controller is dedicated to operate in low voltage 
circuits of 12VDC or 24VDC. Connecting higher voltage load may 
result in Fibaro RGBW Controller damage.
2) Fibaro RGBW Controller must be powered by the same voltage 
as the connected light source. I.e. if controlling 12V LED strip, the 
module must be connected to 12V power supply. Similarly, if 
controlling 24V RGBW strip, Fibaro RGBW Controller must be 
powered by 24V voltage supply.
3)  Fibaro RGBW Controller has 0-10V input. There is no 0-10V 
output. Output is controlled by PWM at 244Hz.
4) Fibaro RGBW Controller must be powered by 12VDC or 24 VDC 
stabilized power supply with outputs load capacity matched to loads 
voltage.
5) Sensors using 0-10V interface use wire connection to inputs I1 - 
I4. Maximum length of 0-10V connection line is 10 m. Observe 
sensor's manufacturer recommendations towards 0-10V line 
diameter.
6) In case of connecting long RGBW/RGB/LED strips voltage drops 
may occur, resulting in lower light brightness further from R/G/B/W 
outputs. To eliminate this effect it's recommended to connect few 
shorter strips in serial connection instead of one long strip 
connected parallel.
Maximum recommended wire length, used to connect R/G/B/W 
outputs with a RGBW/RGB/LED strip is 10 m. Observe connected 
loads manufacturer recommendations towards connection wire 
diameter. 
IV Z-Wave network inclusion
Fibaro RGBW Controller may be included into Z-Wave network 
using B-button or any switch key connected to I1-I4 inputs. The 
device has an auto-inclusion function implemented and can be 
included into the Z-Wave network automatically, by simply 
connecting the voltage supply.
Adding Fibaro RGBW Controller to the Z-Wave network in 
auto-inclusion mode:
1. Make sure Fibaro RGBW Controller is not connected to voltage 
supply and located within direct range of the main controller.
2. Set the Z-Wave network main controller into learning mode (see 
Z-Wave network controller operating manual).
3. Connect voltage supply to auto-include Fibaro RGBW Controller.
4. Fibaro RGBW Controller will be automatically recognized and 
included in the Z-Wave network.
To disable auto-inclusion press the B-button briefly, after 
connecting Fibaro RGBW Controller to voltage supply.
Adding Fibaro RGBW Controller to the Z-Wave network in manual 
inclusion mode:
1. Connect Fibaro RGBW Controller to voltage supply.
2. Set the Z-Wave network main controller into learning mode (see 
Z-Wave network controller operating manual).
3. Triple click the B-button or any switch connected to I1-I4 inputs.
4. Fibaro RGBW Controller will be automatically recognized and 
included in the Z-Wave network.
V Z-Wave network exclusion
Excluding the Fibaro RGBW Controller from the Z-Wave network:
1. Connect Fibaro RGBW Controller to voltage supply.
2. Set the Z-Wave network main controller into learning mode (see 
Z-Wave network controller operating manual).
3. Triple click the B-button or any switch connected to I1-I4 inputs.
VI Resetting Fibaro RGBW Controller
Reset procedure clears the Fibaro RGBW Controller's memory, 
including Z-Wave network controller information, energy 
consumption data and 5 user-defined programs.
Resetting Fibaro RGBW Controller:
1. Disconnect voltage supply.
2. Press and hold the B-button located inside Fibaro RGBW 
Controller's casing.
3. Connect voltage supply still holding the B-button.
4. Release the B-button.
5. B channel will turn on (blue channel).
6. Disconnect power supply.
Warning!
Resetting the RGBW Controller does not mean is 
has been removed from Z-Wave network 
controller's memory. Remove the RGBW 
Controller from Z-Wave network controller's 
memory before carrying out the resetting 
procedure.
i
VII Fibaro RGBW Controller operating modes
The device may be controller by momentary or toggle switches. 
Fibaro RGBW Controller may serve as 0-10V input module and 
operate with any 0-10V sensor, e.g. temperature sensors, wind 
speed/direction sensors, air quality sensors, light sensors, etc.
Fibaro RGBW Controller offers fully configurable operating modes, 
described in pt. X, user defined in parameter 14. Operating mode 
is set during first configuration in Home Center 2 interface. Other 
main controllers require dedicated setting of parameter 14. Refer to 
p.VIII and IX for operating modes detailed description.
Fibaro RGBW Controller's operating modes:
1) RGB/RGBW - controlling RGBW/RGB/LED strips or Halogen 
lights based on signals from switches connected to I1-I4 inputs. 
User may precisely set illumination colour.
2) IN/OUT - all inputs and outputs may be freely configured by the 
user. All inputs I1 - I4 and outputs R, G, B, W may be independently 
configured by the user. Depending on configuration the device will 
be presented in Home Center 2 interface as sensors or dimmers. 
User defines sensor type and its operating range. If a given 
channel operates in OUT mode, user may control e.g. LED or 
Halogen lamp brightness.
All of the operating modes are described in fig. 5 
VIII Manual RGB/RGBW operating mode
Fibaro RGBW Controller has 4 controllable inputs I1-I4, configured 
by default to work with push buttons. Each input controls 
designated channel, i.e.:
- I1 controls R channel.
- I2 controls G channel.
- I3 controls B channel.
- I4 controls W channel.
Controlling I1-I4 inputs is achieved by connecting ground wire 
(GND) to specified channel (see scheme).
Further, parameter's 14 settings allow for following type of manual 
control:
1)  NORMAL mode - controlling output assigned to given input 
terminal. In this setting outputs will be controlled independently 
from one another, e.g. allowing for free adjusting each colours 
saturation. Double click will set a given channel's saturation to 
100%. This operating mode works with momentary and toggle 
switches.
2) BRIGHTNESS mode - all outputs are controlled together, i.e. 
one switch controls brightness of all channels at the same time. 
This operating mode works with momentary and toggle switches.
3) RAINBOW mode - 3. mode - all outputs are controlled together 
giving a transition of full colours spectrum. RAINBOW mode works 
with momentary switches only.
IX  IN/OUT mode - 0-10V inputs, PWM outputs
Fibaro RGBW Controller has 4 controllable, analog inputs I1 - I4, 
allowing for 0-10V analog signal interpretation. This functionality 
may be used in operation with analog sensors and potentiometers. 
What's more, in IN/OUT mode all inputs and outputs may be 
configured independently, e.g. I1 may be configured as 0-10V 
sensor input and I2-I4 may control LED strip or Halogen lamps. 
Another option is to configure I1 as 0-10V input and connect 0-10V 
potentiometer to it, and connecting Halogen lamps to R output. At 
the same time, other inputs may work with 0-10V sensors.
X First configuration.
   Operating through the Z-Wave network
After inclusion to the Z-Wave network, Home Center 2 interface will 
present the module as un-configured device.
To configure the device please follow the steps below:
1) Specify controlled device - RGBW, RGB, IN/OUT (further 
described in pt. IX) 
If RGBW/RGB mode is chosen, device icon will be as follows:
Control window description:
1 - Currently chosen colour.
2 - ON/OFF button.
3 - Colours slider - allows for choosing any colour in RGB scale, 
white colour saturation and all colours brightness.
4 - Favourite colours section.
5 - Predefined colour programs.
2) 2. As described in pt. IX IN/OUT mode allows for configuring each 
IN/OUT independently.
Fig 3 shows an example configuration: I1 configured as a light 
intensity sensor; I2 configured as a dimmer, e.g. controlling LED 
strip; I3 configured as a temperature sensor; I4 configured as a 
dimmer, e.g. controlling halogen lamp.
As shown in Fig.3 inputs set to work in analog mode require 
following configuration:
- Actual voltage range (e.g. 0-10V, 1-10V, 0-5V)
- Measured unit range (e.g. 0-50oC for temperature sensor)
Above information can be found in sensor's operating manual.
Device icons in the main controllers interface will reflect the above 
configuration settings, e.g. light sensor, temperature sensor, two 
OUT devices i.e. LED strips or Halogen bulbs, as shown in fig.4.
Fig. 2 Fibaro RGBW Controller control window
Fig 1 - Un-configured RGB device icon
Fig 4 - IN / OUT controlled devices icons
XI Associations
Through an association Fibaro RGBW Controller may control 
another Z-Wave network device, e.g. another RGBW Controller, 
Wall Plug, Dimmer, Relay Switch or Roller Shutter. Such a control 
is done via switch keys connected to I1-I4 outputs only. Operation 
through the Z-Wave network doesn't trigger the associated 
devices.
Note!
Association allows for direct communication 
between Z-Wave network devices. Main controller 
does not take part in such communication. Using 
this mechanism, Fibaro RGBW Controller may 
communicate with other devices even when the 
main controller is damaged, e.g. in fire.
i
Fibaro RGBW Controller provides five association groups:
I association group assigned to I1 input - sends control frame to 
associated devices each time the device state changes. (ON / 
OFF)
II association group assigned to I2 input - sends control frame to 
associated devices each time the device state changes. (ON / 
OFF)
III association group assigned to I3 input - sends control frame to 
associated devices each time the device state changes. (ON / 
OFF)
IV association group assigned to I4 input - sends control frame to 
associated devices each time the device state changes. (ON / 
OFF)
V association  group reports device status. Only one device may 
be assigned to this group, main controller by default. It's not 
recommended to modify this group's settings.
Fibaro  RGBW  Controller  allows  for  controlling  up  to  5  regular 
devices (opposed to multi channel devices) per each association 
group, out of which 1 field is reserved for the main controller.
To add an association, (using Home Center 2 interface) go to 
device settings and click the following icon:
Select the "device options" tab. Then specify to which group and 
what devices are to be associated. Sending relevant information to 
devices added to association groups may take even a few minutes.
XII Current load and energy consumption
1) Fibaro RGBW Controller allows for the current load and power 
consumption monitoring. Data is sent to the main controller, e.g. 
Home Center 2. Measuring is carried out by an independent 
microprocessor dedicated exclusively for the purpose, assuring 
maximum accuracy and precision. The microprocessor is factory 
calibrated.
Electric power - power consumed by an electric device in an 
instant, in Watts (W).
Electric energy - energy consumed by a device through a time 
period. Most commonly measured in kilowatt-hours (kWh). One 
kilowatt-hour is equal to one kilowatt of power consumed over a 
period of one hour, 1kWh = 1000 Wh.
Fig 3 - IN / OUT mode settings screen
Resetting electricity consumption memory - reset the device 
(see pt. VI) or choose reset electricity consumption memory option 
from the main controller's menu.
Home Center 2 controller allows for choosing command frame sent 
to associated devices:
Normal (Dimmer) - synchronization with dimmer
Normal (RGBW) - synchronization with other producers RGBW 
controllers
Normal (RGBW-FIBARO) - synchronization with Fibaro RGBW 
Controllers
Fig 5 - Modes of operation