Zennio Zcl8h230v2 8/6/2 Output 230v Heating Actuator User Manual

Zennio Zcl8h230v2 8/6/2 Output 230v Heating Actuator User Manual

Zennio -ZCL8H230V2- 8-6-2- Output- 230V -Heating- Actuator - LOGO

Zennio ZCL8H230V2 8/6/2 Output 230V Heating Actuator

Zennio -ZCL8H230V2- 8-6-2- Output- 230V -Heating- Actuator - PRODUCT IMAGE

Product Information

Heating BOX 230V 8X/6X/2X v2

Heating BOX 230V 8X/6X/2X v2 from Zennio is a heating specific KNX actuator equipped with 8 / 6 / 2 independent outputs (depending  on the model) for controlling 230V valves. It is designed for controlling electromechanical valves and offers several outstanding features:

  • 8 / 6 / 2 configurable outputs for controlling valves
  • 8 / 6 / 2 multi-purpose inputs, configurable as temperature probes or binary inputs (pushbuttons, switches, sensors)
  • A sole 230 VAC power input for all outputs
  • 8 / 6 / 2 independent thermostats
  • 10 customizable, multi-operation logic functions
  • Manual operation / supervision of the outputs through the on-board pushbuttons and LEDs
  • Heartbeat or periodical still-alive notification

Product Usage Instructions

To start using the HeatingBOX 230V 8X/6X/2X v2, please follow the steps below:

Start-up and Power Loss
During the start-up, the device may perform specific actions based on its configuration. Consult the user manual for details on configuring the device’s behavior during start-up. In case of a bus power failure, the device will interrupt pending actions and save its state to be recovered once power is restored.

Configuration

To configure the HeatingBOX 230V 8X/6X/2X v2, follow these steps:

  1. Import the corresponding database in ETS (Engineering Tool Software).
  2. Add the device into the topology of the desired project.
  3. Access the Parameters tab of the device to begin the configuration process.

After importing the corresponding database in ETS and adding the device into the topology of the desired project, the configuration process begins by entering the Parameters tab of the device.

General Configuration

In the General screen, you can activate or deactivate the required functionality. The following parameter is available:

  • Heartbeat (Periodic Alive Notification): This parameter allows the integrator to incorporate a one-bit object to the project ([Heartbeat] Object to Send `1′) that will be sent periodically with value 1 to notify that the device is still working (still alive).

From the “General” screen it is possible to activate/deactivate all the required functionality.

ETS PARAMETERISATION

Zennio -ZCL8H230V2- 8-6-2- Output- 230V -Heating- Actuator - 01

General screen

  • Heartbeat (Periodic Alive Notification) [disabled/enabled]1: this parameter lets the integrator incorporate a one-bit object to the project (“[Heartbeat] Object to Send ‘1’”) that will be sent periodically with value “1” to notify that the device is still working (still alive).

Zennio -ZCL8H230V2- 8-6-2- Output- 230V -Heating- Actuator - 02

Heartbeat (Periodical Alive Notification).
1 The default values of each parameter will be highlighted in blue in this document, as follows: [default/rest of options].
Note: the first sending after download or bus failure takes place with a delay of up to 255 seconds, to prevent bus overload. The following sendings match the period set.
Device Recovery Objects (Send 0 and 1) [disabled/enabled]: this parameter lets the integrator activate two new communication objects (“[Heartbeat] Device Recovery”), which will be sent to the KNX bus with values “0” and “1” respectively whenever the device begins operation (for example, after a bus power failure). It is possible to parameterise a certain delay [0…255] to his sending.

Zennio -ZCL8H230V2- 8-6-2- Output- 230V -Heating- Actuator - 03

Sending of Indication objects on bus voltage recovery.
Note: After download or bus failure, the sending takes place with a delay of up to 6,35 seconds plus the parameterised delay, to prevent overload.

  • Thermostats [disabled/enabled]: enables or disables the “Thermostats” tab in the tree on the left. See section 2.2 for details.
  • Logic Function [disabled/enabled]: enables or disables the “Logic Functions” tab in the tree on the left. See section 2.3 for details.
  • Inputs [disabled/enabled]: enables or disables the “Inputs” tab in the tree on the left. See section 2.4 for details.
  • Heating Controls [enabled]: read-only parameter to make it evident that the “Heating Controls” tab is always enabled in the tab tree on the left. See section 2.5 for details.
  • Manual Control [disabled/enabled]: enables or disables the “Manual Control” tab in the tree on the left. See section 2.6 for details.

THERMOSTATS
HeatingBOX implements 8 / 6 / 2 Zennio thermostats (depending on the model) which can be enabled and configured independently. Please refer to the specific “Zennio Thermostat” user manual (available in the product section at the Zennio homepage, www.zennio.com) for detailed information about the functionality and the configuration of the related parameters.

LOGIC FUNCTIONS
This module makes it possible to perform numeric and binary operations to incoming values received from the KNX bus, and to send the results through other communication objects specifically enabled for this purpose. HeatingBOX can implement up to 10 different and independent functions, each of them entirely customisable and consisting in up to 4 consecutive operations each one. The execution of each function can depend on a configurable condition, which will be evaluated every time the function is triggered through specific, parameterisable communication objects. The result after executing the operations of the function can also be evaluated according to certain conditions and afterwards sent (or not) to the KNX bus, which can be done every time the function is executed, periodically or only when the result differs from the last one. Please refer to the specific “Logic Functions” user manual (available in the product section at the Zennio homepage, www.zennio.com) for detailed information about the functionality and the configuration of the related parameters.

INPUTS
HeatingBOX incorporates 8 / 6 / 2 analogue/digital inputs, each configurable as a:

  • Binary Inputs, for the connection of a pushbutton or a switch/sensor.
  • Temperature Probe, to connect a temperature sensor from Zennio or NTC probes from third parties (the latter requires configuring their parameters in ETS).

BINARY INPUTS
Please refer to the specific user manual “Binary Inputs”, available in the product section, at the Zennio website (www.zennio.com).
TEMPERATURE PROBE
Please refer to the specific user manual “Temperature Probe”, available in the product section, at the Zennio website (www.zennio.com).

HEATING CONTROLS
The HeatingBOX actuator incorporates 8 / 6 / 2 outputs, each of them capable of controlling one or several heating valves at 230V. Please refer to the specific “Heating Control” user manual (available in the product section at the Zennio homepage, www.zennio.com) for detailed information about the functionality and the configuration of the related parameters.

MANUAL CONTROL

HeatingBOX allows controlling the outputs through the pushbuttons on the top of the device. Each output has its associated pushbutton. Manual operation can be done in two different ways, named as Test On Mode (for testing purposes during the configuration of the device) and Test Off Mode (for a normal use, anytime). Whether both, only one or none of these modes are available needs to be parameterised in ETS. Moreover, it is possible to enable a specific binary object for locking and unlocking the manual control in runtime.

Note:

  • The Test Off mode will be active (unless it has been disabled by parameter) after a download or a reset with no need of a specific activation – the pushbuttons will respond to user presses from the start.
  • On the contrary, switching to the Test On mode (unless disabled by parameter) needs to be done by long-pressing the Prog./Test button (for at least three seconds), until the LED is no longer red and turns yellow. From that moment, once the button is released, the LED light will remain green to confirm that the device has switched from the Test Off mode to the Test On mode. After that, an additional press will turn the LED yellow and then off, once the button is released. This way, the device leaves the Test On mode. Note that it will also leave this mode if a bus power failure takes place.
  • The manual control of the outputs is intended to perform on/off switches, independently of the method of control configured (one-bit or one-byte). In other words, it does allow testing the opening and closing of the valves, but intermediate positioning is not possible.

Test Off Mode
Under the Test Off Mode, the outputs can be controlled through both their communication objects and the actual pushbuttons located on the top of the device. Also, during this manual control mode, the control commands received by the bus will continue to be analysed and executed. If the pushbutton on an enabled output is pressed, the output will behave as if an order to open or to close the valve had been received through the corresponding communication object and will also send the status objects when required. Regarding the lock and alarm functions, the device will behave under the Test Off mode as usual. Button presses during this mode are entirely analogous to the reception of the corresponding orders from the KNX bus.

Test On Mode
After entering the Test On mode, it will only be possible to control the outputs through the on-board pushbuttons. Control orders received through communication objects will be ignored. Short or long pressing the button will commute the on-off state of the output. The LED will light in green while the button is being hold. The lock and alarm functions as well as any orders received from the KNX bus will not have an effect over the output status while the device is under the Test On mode. The status objects will not be sent to the bus, either. On the contrary, the alarm and lock objects will be re-evaluated after leaving the Test On mode, so any changes that may have taken place in Test On will be considered when leaving.
Important: the device is delivered from factory with both manual modes (Test Off and Test On) enabled by default.
For detailed technical features, installation process, and security procedures, please refer to the Datasheet provided with the original packaging of the device or visit www.zennio.com.
If you need further assistance or technical support, visit https://support.zennio.com/.

DOCUMENT UPDATES

VersionChangesPage(s)
[1.5]_bNew devices: HeatingBOX 230V 6X / 2X v2.

INTRODUCTION

HeatingBOX

HeatingBOX from Zennio is a heating specific KNX actuator equipped, with 8 / 6 / 2 independent outputs (depending on the model) for controlling 230V valves.
The most outstanding features are:

  • / 6 / 2 configurable outputs for controlling electromechanical valves.
  • 8 / 6 / 2 multi-purpose inputs, configurable as:
    • Temperature probe (with the possibility to parameterize a personalized probe).
    • Binary inputs (i.e., pushbuttons, switches, sensors).
  • A sole 230 VAC power input for all outputs.
  • 8 / 6 / 2 independent thermostats.
  • 10 customisable, multi-operation logic functions.
  • Manual operation / supervision of the outputs through the on-board pushbuttons and LEDs.
  • Heartbeat or periodical “still-alive” notification.

START-UP AND POWER LOSS
During the start-up of the device and depending on the configuration, some specific actions may be performed. For example, the integrator can set whether the outputs should change to a particular position and whether the device should send certain objects to the bus after the power recovery. Please consult the next sections of this document for further details. On the other hand, when a bus power failure takes place, the device will interrupt any pending actions, and will save its state so it can be recovered once the power supply is restored. To get detailed information about the technical features of this device, as well as on the installation process and on security procedures, please refer to the corresponding Datasheet, bundled with the original packaging of the device and also available at www.zennio.com.

ETS PARAMETERISATION
After enabling “Manual Control” in the Configuration screen (see section 2.1), a new tab will be incorporated into the tab tree on the left.

Zennio -ZCL8H230V2- 8-6-2- Output- 230V -Heating- Actuator - 04
Manual Control.
The only two parameters are:

  • Mode [Disabled / Only with Test Mode Off / Only with Test Mode On / Test Off Mode + Test On Mode]. Depending on the selection, the device will permit using the manual control under the Test Off, the Test On, or both modes. Note that, as stated before, using the Test Off mode does not require any special action, while switching to the Test On mode does require long-pressing the Prog./Test button.
  • Lock Manual Control [disabled/enabled]: unless the above parameter has been “Disabled”, the Lock Manual Control parameter provides an optional procedure for locking the manual control in runtime. When this checkbox is enabled, object “Lock Manual Control” turns visible, as well as two more parameters:
    • Value [0 = Unlock; 1 = Lock / 0 = Lock; 1= Unlock]: defines whether the manual control lock/unlock should take place respectively upon the reception (through the aforementioned object) of values “0” and “1”, or the opposite.
    • Initialization [Unlocked / Locked / Last Value (Before Bus Failure)]: sets how the manual control should remain after the device start-up (after an ETS download or a bus power failure).

ANNEX I. COMMUNICATION OBJECTS

  • “Functional range” shows the values that, with independence of any other values permitted by the bus according to the object size, may be of any use or have a particular meaning because of the specifications or restrictions from both the KNX standard or the application programme itself.’
NumberSizeI/OFlagsData type (DPT)Functional RangeNameFunction
11 BitIC – W – –DPT_Switch0/1Lock Manual Control0 = Unlock; 1 = Lock
1 BitIC – W – –DPT_Switch0/1Lock Manual Control0 = Lock; 1 = Unlock
21 ByteIC – W – –DPT_SceneControl0-63; 128-191[Thermostat] Scenes0 – 63 (Execute 1 – 64); 128 – 191
(Save 1 – 64)
3, 41, 79, 117, 155, 193, 231, 2692 BytesIC – W T UDPT_Value_Temp-273,00º – 670433,28º[Tx] Temperature Source 1External Sensor Temperature
4, 42, 80, 118, 156, 194, 232, 2702 BytesIC – W T UDPT_Value_Temp-273,00º – 670433,28º[Tx] Temperature Source 2External Sensor Temperature
5, 43, 81, 119, 157, 195, 233, 2712 BytesOC R – T –DPT_Value_Temp-273,00º – 670433,28º[Tx] Effective TemperatureEffective Control Temperature
6, 44, 82, 120, 158, 196, 234, 272 

1 Byte

 

I

 

C – W – –

 

DPT_HVACMode

1=Confort 2=Standby 3=Económico
4=Protección
[Tx] Special Mode1-Byte HVAC Mode
7, 45, 83, 121, 159, 197, 235, 2731 BitIC – W – –DPT_Ack0/1[Tx] Special Mode: Comfort0 = Nothing; 1 = Trigger
1 BitIC – W – –DPT_Switch0/1[Tx] Special Mode: Comfort0 = Off; 1 = On
8, 46, 84, 122, 160, 198, 236, 2741 BitIC – W – –DPT_Ack0/1[Tx] Special Mode: Standby0 = Nothing; 1 = Trigger
1 BitIC – W – –DPT_Switch0/1[Tx] Special Mode: Standby0 = Off; 1 = On
9, 47, 85, 123, 161, 199, 237, 2751 BitIC – W – –DPT_Ack0/1[Tx] Special Mode: Economy0 = Nothing; 1 = Trigger
1 BitIC – W – –DPT_Switch0/1[Tx] Special Mode: Economy0 = Off; 1 = On
10, 48, 86, 124, 162, 200, 238, 2761 BitIC – W – –DPT_Ack0/1[Tx] Special Mode: Protection0 = Nothing; 1 = Trigger
1 BitIC – W – –DPT_Switch0/1[Tx] Special Mode: Protection0 = Off; 1 = On
11, 49, 87, 125, 163, 201, 239, 2771 BitIC – W – –DPT_Window_Door0/1[Tx] Window Status (Input)0 = Closed; 1 = Open
12, 50, 88, 126, 164, 202, 240, 2781 BitIC – W – –DPT_Trigger0/1[Tx] Comfort Prolongation0 = Nothing; 1 = Timed Comfort
13, 51, 89, 127, 165, 203, 241, 2791 ByteOC R – T –DPT_HVACMode1=Confort 2=Standby 3=Económico 4=Protección[Tx] Special Mode Status1-Byte HVAC Mode
2 BytesIC – W – –DPT_Value_Temp-273,00º – 670433,28º[Tx] SetpointThermostat Setpoint Input
14, 52, 90, 128, 166, 204, 242, 2802 BytesIC – W – –DPT_Value_Temp-273,00º – 670433,28º[Tx] Basic SetpointReference Setpoint
15, 53, 91, 129, 167, 205, 243, 2811 BitIC – W – –DPT_Step0/1[Tx] Setpoint Step0 = Decrease Setpoint; 1 = Increase Setpoint
16, 54, 92, 130, 168, 206, 244, 2822 BytesIC – W – –DPT_Value_Tempd-671088,64º – 670433,28º[Tx] Setpoint OffsetFloat Offset Value
17, 55, 93, 131, 169, 207, 245, 2832 BytesOC R – T –DPT_Value_Temp-273,00º – 670433,28º[Tx] Setpoint StatusCurrent Setpoint
18, 56, 94, 132, 170, 208, 246, 2842 BytesOC R – T –DPT_Value_Temp-273,00º – 670433,28º[Tx] Basic Setpoint StatusCurrent Basic Setpoint
19, 57, 95, 133, 171, 209, 247, 2852 BytesOC R – T –DPT_Value_Tempd-671088,64º – 670433,28º[Tx] Setpoint Offset StatusCurrent Setpoint Offset
20, 58, 96, 134, 172, 210, 248, 2861 BitIC – W – –DPT_Reset0/1[Tx] Setpoint ResetReset Setpoint to Default
1 BitIC – W – –DPT_Reset0/1[Tx] Offset ResetReset Offset
21, 59, 97, 135, 173, 211, 249, 2871 BitIC – W – –DPT_Heat_Cool0/1[Tx] Mode0 = Cool; 1 = Heat
22, 60, 98, 136, 174, 212, 250, 2881 BitOC R – T –DPT_Heat_Cool0/1[Tx] Mode Status0 = Cool; 1 = Heat
23, 61, 99, 137, 175, 213, 251, 2891 BitIC – W – –DPT_Switch0/1[Tx] On/Off0 = Off; 1 = On
24, 62, 100, 138, 176, 214, 252, 2901 BitOC R – T –DPT_Switch0/1[Tx] On/Off Status0 = Off; 1 = On
25, 63, 101, 139, 177, 215, 253, 2911 BitI/OC R W – –DPT_Switch0/1[Tx] Main System (Cool)0 = System 1; 1 = System 2
26, 64, 102, 140, 178, 216, 254, 2921 BitI/OC R W – –DPT_Switch0/1[Tx] Main System (Heat)0 = System 1; 1 = System 2
27, 65, 103, 141, 179, 217, 255, 2931 BitIC – W – –DPT_Enable0/1[Tx] Enable/Disable Secondary System (Cool)0 = Disable; 1 = Enable
28, 66, 104, 142, 180, 218, 256, 2941 BitIC – W – –DPT_Enable0/1[Tx] Enable/Disable Secondary System (Heat)0 = Disable; 1 = Enable
29, 35, 67, 73, 105, 111, 143, 149, 181, 187, 219, 225, 257, 263, 295, 3011 ByteOC R – T –DPT_Scaling0% – 100s[Tx] [Sx] Control Variable (Cool)PI Control (Continuous)
30, 36, 68, 74, 106, 112, 144, 150, 182, 188, 220, 226, 258, 264, 296, 3021 ByteOC R – T –DPT_Scaling0% – 100%[Tx] [Sx] Control Variable (Heat)PI Control (Continuous)
1 ByteOC R – T –DPT_Scaling0% – 100%[Tx] [Sx] Control VariablePI Control (Continuous)
31, 37, 69, 75, 107, 113, 145, 151, 183, 189, 221, 227, 259, 265, 297, 3031 BitOC R – T –DPT_Switch0/1[Tx] [Sx] Control Variable (Cool)2-Point Control
1 BitOC R – T –DPT_Switch0/1[Tx] [Sx] Control Variable (Cool)PI Control (PWM)
1 BitOC R – T –DPT_Switch0/1[Tx] [Sx] Control Variable (Heat)2-Point Control
32, 38, 70, 76, 108, 114, 146, 152, 184, 190, 222, 228, 260, 266, 298, 3041 BitOC R – T –DPT_Switch0/1[Tx] [Sx] Control Variable (Heat)PI Control (PWM)
1 BitOC R – T –DPT_Switch0/1[Tx] [Sx] Control Variable2-Point Control
1 BitOC R – T –DPT_Switch0/1[Tx] [Sx] Control VariablePI Control (PWM)
33, 39, 71, 77, 109, 115, 147, 153, 185, 191, 223, 229, 261, 267, 299, 3051 BitOC R – T –DPT_Switch0/1[Tx] [Sx] PI State (Cool)0 = PI Signal 0%; 1 = PI Signal
Greater than 0%
34, 40, 72, 78, 110, 116, 148, 154, 186, 192, 224, 230, 262, 268, 300, 3061 BitOC R – T –DPT_Switch0/1[Tx] [Sx] PI State (Heat)0 = PI Signal 0%; 1 = PI Signal
Greater than 0%
1 BitOC R – T –DPT_Switch0/1[Tx] [Sx] PI State0 = PI Signal 0%; 1 = PI Signal
Greater than 0%
307, 308, 309, 310, 311, 312, 313, 314, 315, 316, 317, 318, 319, 320, 321, 322, 323, 324, 325, 326, 327, 328, 329, 330, 331, 332, 333, 334, 335, 336, 337, 3381 BitIC – W – –DPT_Bool0/1[LF] (1-Bit) Data Entry xBinary Data Entry (0/1)
339, 340, 341, 342, 343, 344, 345, 346, 347, 348, 349, 350, 351, 352, 353, 3541 ByteIC – W – –DPT_Value_1_Ucount0 – 255[LF] (1-Byte) Data Entry x1-Byte Data Entry (0-255)
355, 356, 357, 358, 359, 360, 361, 362, 363, 364, 365, 366, 367, 368, 369, 3702 BytesIC – W – –DPT_Value_2_Ucount0 – 65535[LF] (2-Byte) Data Entry x2-Byte Data Entry
371, 372, 373, 374, 375, 376, 377, 3784 BytesIC – W – –DPT_Value_4_Count-2147483648 –

2147483647

[LF] (4-Byte) Data Entry x4-Byte Data Entry
379, 380, 381, 382, 383, 384, 385, 386,  387, 3881 BitOC R – T –DPT_Bool0/1[LF] Function x – Result(1-Bit) Boolean
1 ByteOC R – T –DPT_Value_1_Ucount0 – 255[LF] Function x – Result(1-Byte) Unsigned
2 BytesOC R – T –DPT_Value_2_Ucount0 – 65535[LF] Function x – Result(2-Byte) Unsigned
4 BytesOC R – T –DPT_Value_4_Count-2147483648 –

2147483647

[LF] Function x – Result(4-Byte) Signed
1 ByteOC R – T –DPT_Scaling0% – 100%[LF] Function x – Result(1-Byte) Percentage
2 BytesOC R – T –DPT_Value_2_Count-32768 – 32767[LF] Function x – Result(2-Byte) Signed
2 BytesOC R – T –9.xxx-671088,64 – 670433,28[LF] Function x – Result(2-Byte) Float
3891 BitOC R – T –DPT_Bool0/1[HC] All Valves Are Closed0 = False; 1 = True
1 BitOC R – T –DPT_Bool0/1[HC] All Valves Are Closed0 = True; 1 = False
3901 ByteOC R – T –DPT_Scaling0% – 100%[HC] Max. Control Value (Output)0 – 100 %
3911 ByteIC – W – –DPT_Scaling0% – 100%[HC] Max. Control Value (Input)0 – 100 %
392, 404, 416, 428, 440, 452, 464, 4761 BitOC R – T –DPT_Alarm0/1[HCx] Short Circuit Error0 = No Error; 1 = Error
393, 4411 BitOC R – T –DPT_Alarm0/1[HCx-x] Overload Error0 = No Error; 1 = Error
394, 406, 418, 430, 442, 454, 466, 4781 BitIC – W – –DPT_Enable0/1[HCx] Lock0 = Unlock; 1 = Lock
395, 407, 419, 431, 443, 455, 467, 4791 BitIC – W – –DPT_Alarm0/1[HCx] Alarm0 = No Alarm; 1 = Alarm
1 BitIC – W – –DPT_Alarm0/1[HCx] Alarm0 = Alarm; 1 = No Alarm
396, 408, 420, 432, 444, 456, 468, 4801 BitIC – W – –DPT_Alarm0/1[HCx] Alarm x0 = No Alarm; 1 = Alarm
1 BitIC – W – –DPT_Alarm0/1[HCx] Alarm x0 = Alarm; 1 = No Alarm
397, 409, 421, 433, 445, 457, 469, 4811 BitIC – W – –DPT_Ack0/1[HCx] Unfreeze AlarmAlarm = No Alarm + Unfreeze (1) -> End Alarm
1 BitIC – W – –DPT_Ack0/1[HCx] Unfreeze AlarmAlarm = Alarm 2 = No Alarm + Unfreeze (1) -> End Alarm
398, 410, 422, 434, 446, 458, 470, 4821 BitOC R – T –DPT_Bool0/1[HCx] Control Value – Error0 = No Error; 1 = Error
399, 411, 423, 435, 447, 459, 471, 4831 BitOC R – T –DPT_State0/1[HCx] Anti-Seize Protection0 = Inactive; 1 = Active
400, 412, 424, 436, 448, 460, 472, 4841 BitIC – W – –DPT_Switch0/1[HCx] Control Value – 1 bit0 = Close Valve; 1 = Open Valve
1 BitIC – W – –DPT_OpenClose0/1[HCx] Control Value – 1 bit0 = Open Valve; 1 = Close Valve
401, 413, 425, 437, 449, 461, 473, 4851 BitOC R – T –DPT_Switch0/1[HCx] Control Value – 1 bit (Status)0 = Closed; 1 = Open
1 BitOC R – T –DPT_OpenClose0/1[HCx] Control Value – 1 bit (Status)0 = Open; 1 = Closed
402, 414, 426, 438, 450, 462, 474, 4861 ByteIC – W – –DPT_Scaling0% – 100%[HCx] Control Value – 1 byte0 – 100 %
403, 415, 427, 439, 451, 463, 475, 4871 ByteOC R – T –DPT_Scaling0% – 100%[HCx] Control Value – 1 byte (Status)0 – 100 %
4881 BitOC R – T –DPT_Bool0/1[HC] Short Circuit/Overload Lock0 = Unlocked; 1 = Locked
4891 BitC – – T –DPT_Trigger0/1[Heartbeat] Object to Send ‘1’Sending of ‘1’ Periodically
4901 BitC – – T –DPT_Trigger0/1[Heartbeat] Device RecoverySend 0
4911 BitC – – T –DPT_Trigger0/1[Heartbeat] Device RecoverySend 1
492, 498, 504, 510, 516, 522, 528, 5341 BitIC – W – –DPT_Enable0/1[Ix] Input Lock0 = Unlock; 1 = Lock
493, 499, 505, 511, 517, 523, 529, 5351 BitC – – T –DPT_Switch0/1[Ix] [Short Press] 0Sending of 0
1 BitC – – T –DPT_Switch0/1[Ix] [Short Press] 1Sending of 1
1 BitIC – W T –DPT_Switch0/1[Ix] [Short Press] 0/1 SwitchingSwitching 0/1
1 BitC – – T –DPT_UpDown0/1[Ix] [Short Press] Move Up ShutterSending of 0 (Up)
1 BitC – – T –DPT_UpDown0/1[Ix] [Short Press] Move Down ShutterSending of 1 (Down)
1 BitC – – T –DPT_UpDown0/1[Ix] [Short Press] Move Up/Down ShutterSwitching 0/1 (Up/Down)
1 BitC – – T –DPT_Step0/1[Ix] [Short Press] Stop/Step Up ShutterSending of 0 (Stop/Step Up)
1 BitC – – T –DPT_Step0/1[Ix] [Short Press] Stop/Step Down ShutterSending of 1 (Stop/Step Down)
1 BitC – – T –DPT_Step0/1[Ix] [Short Press] Stop/Step Shutter (Switched)Switching of 0/1 (Stop/Step Up/Down)
4 BitC – – T –DPT_Control_Dimming0x0 (Detener) 0x1 (Reducir 100%)

0x7 (Reducir 1%) 0x8 (Detener) 0x9 (Subir 100%)

0xF (Subir 1%)
[Ix] [Short Press] BrighterIncrease Brightness
4 BitC – – T –DPT_Control_Dimming0x0 (Detener) 0x1 (Reducir 100%)

0x7 (Reducir 1%) 0x8 (Detener) 0x9 (Subir 100%)

0xF (Subir 1%)
[Ix] [Short Press] DarkerDecrease Brightness
4 BitC – – T –DPT_Control_Dimming0x0 (Detener) 0x1 (Reducir 100%)
… 0x7 (Reducir 1%) 0x8 (Detener) 0x9 (Subir 100%)… 0xF (Subir 1%)
[Ix] [Short Press] Brighter/DarkerSwitch Bright/Dark
1 BitC – – T –DPT_Switch0/1[Ix] [Short Press] Light OnSending of 1 (On)
1 BitC – – T –DPT_Switch0/1[Ix] [Short Press] Light OffSending of 0 (Off)
1 BitIC – W T –DPT_Switch0/1[Ix] [Short Press] Light On/OffSwitching 0/1
1 ByteC – – T –DPT_SceneControl0-63; 128-191[Ix] [Short Press] Run SceneSending of 0 – 63
1 ByteC – – T –DPT_SceneControl0-63; 128-191[Ix] [Short Press] Save SceneSending of 128 – 191
1 BitI/OC R W T –DPT_Switch0/1[Ix] [Switch/Sensor] EdgeSending of 0 or 1
1 ByteC – – T –DPT_Value_1_Ucount0 – 255[Ix] [Short Press] Constant Value (Integer)0 – 255
1 ByteC – – T –DPT_Scaling0% – 100%[Ix] [Short Press] Constant Value (Percentage)0% – 100%
2 BytesC – – T –DPT_Value_2_Ucount0 – 65535[Ix] [Short Press] Constant Value (Integer)0 – 65535
2 BytesC – – T –9.xxx-671088,64 – 670433,28[Ix] [Short Press] Constant Value (Float)Float Value
494, 500, 506, 512, 518, 524, 530, 5361 ByteIC – W – –DPT_Scaling0% – 100%[Ix] [Short Press] Shutter Status (Input)0% = Top; 100% = Bottom
1 ByteIC – W – –DPT_Scaling0% – 100%[Ix] [Short Press] Dimming Status (Input)0% – 100%
495, 501, 507, 513, 519, 525, 531, 5371 BitC – – T –DPT_Switch0/1[Ix] [Long Press] 0Sending of 0
1 BitC – – T –DPT_Switch0/1[Ix] [Long Press] 1Sending of 1
1 BitIC – W T –DPT_Switch0/1[Ix] [Long Press] 0/1 SwitchingSwitching 0/1
1 BitC – – T –DPT_UpDown0/1[Ix] [Long Press] Move Up ShutterSending of 0 (Up)
1 BitC – – T –DPT_UpDown0/1[Ix] [Long Press] Move Down ShutterSending of 1 (Down)
1 BitC – – T –DPT_UpDown0/1[Ix] [Long Press] Move Up/Down ShutterSwitching 0/1 (Up/Down)
1 BitC – – T –DPT_Step0/1[Ix] [Long Press] Stop/Step Up ShutterSending of 0 (Stop/Step Up)
1 BitC – – T –DPT_Step0/1[Ix] [Long Press] Stop/Step Down ShutterSending of 1 (Stop/Step Down)
1 BitC – – T –DPT_Step0/1[Ix] [Long Press] Stop/Step Shutter (Switched)Switching of 0/1 (Stop/Step Up/Down)
4 BitC – – T –DPT_Control_Dimming0x0 (Detener) 0x1 (Reducir 100%)

0x7 (Reducir 1%) 0x8 (Detener) 0x9 (Subir 100%)

0xF (Subir 1%)
[Ix] [Long Press] BrighterLong Pr. -> Brighter; Release -> Stop
 

 

 

4 Bit

 

 

 

C – – T –

 

 

 

DPT_Control_Dimming

0x0 (Detener) 0x1 (Reducir 100%)

0x7 (Reducir 1%) 0x8 (Detener) 0x9 (Subir 100%)

0xF (Subir 1%)

 

 

 

[Ix] [Long Press] Darker
 

 

 

Long Pr. -> Darker; Release -> Stop

4 BitC – – T –DPT_Control_Dimming0x0 (Detener) 0x1 (Reducir 100%)

0x7 (Reducir 1%) 0x8 (Detener) 0x9 (Subir 100%)

0xF (Subir 1%)
[Ix] [Long Press] Brighter/DarkerLong Pr. -> Brighter/Darker; Release
-> Stop
1 BitC – – T –DPT_Switch0/1[Ix] [Long Press] Light OnSending of 1 (On)
1 BitC – – T –DPT_Switch0/1[Ix] [Long Press] Light OffSending of 0 (Off)
1 BitIC – W T –DPT_Switch0/1[Ix] [Long Press] Light On/OffSwitching 0/1
1 ByteC – – T –DPT_SceneControl0-63; 128-191[Ix] [Long Press] Run SceneSending of 0 – 63
1 ByteC – – T –DPT_SceneControl0-63; 128-191[Ix] [Long Press] Save SceneSending of 128 – 191
1 BitOC R – T –DPT_Alarm0/1[Ix] [Switch/Sensor] Alarm: Breakdown or Sabotage1 = Alarm; 0 = No Alarm
2 BytesC – – T –9.xxx-671088,64 – 670433,28[Ix] [Long Press] Constant Value (Float)Float Value
2 BytesC – – T –DPT_Value_2_Ucount0 – 65535[Ix] [Long Press] Constant Value (Integer)0 – 65535
1 ByteC – – T –DPT_Scaling0% – 100%[Ix] [Long Press] Constant Value (Percentage)0% – 100%
1 ByteC – – T –DPT_Value_1_Ucount0 – 255[Ix] [Long Press] Constant Value (Integer)0 – 255
496, 502, 508, 514, 520, 526, 532, 5381 BitC – – T –DPT_Trigger0/1[Ix] [Long Press/Release] Stop ShutterRelease -> Stop Shutter
497, 503, 509, 515, 521, 527, 533, 5391 ByteIC – W – –DPT_Scaling0% – 100%[Ix] [Long Press] Dimming Status (Input)0% – 100%
1 ByteIC – W – –DPT_Scaling0% – 100%[Ix] [Long Press] Shutter Status (Input)0% = Top; 100% = Bottom
540, 544, 548, 552, 556, 560, 564, 5682 BytesOC R – T –DPT_Value_Temp-273,00º – 670433,28º[Ix] Current TemperatureTemperature Sensor Value
541, 545, 549, 553, 557, 561, 565, 5691 BitOC R – T –DPT_Alarm0/1[Ix] Overcooling0 = No Alarm; 1 = Alarm
542, 546, 550, 554, 558, 562, 566, 5701 BitOC R – T –DPT_Alarm0/1[Ix] Overheating0 = No Alarm; 1 = Alarm
543, 547, 551, 555, 559, 563, 567, 5711 BitOC R – T –DPT_Alarm0/1[Ix] Probe Error0 = No Alarm; 1 = Alarm

Join and send us your inquiries about Zennio devices: https://support.zennio.com/

Zennio Avance y Tecnología S.L.
C/ Río Jarama, 132. Nave P-8.11
45007 Toledo (Spain).
Tel. +34 925 232 002
www.zennio.com
[email protected]

References

Documents / Resouces

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