BUSing REGISTERS MANUAL. Registers V2.8 TECHNICAL SERVICE. Phone number (+34)

Transcription

1 Registers BUSing V2.8 Parque Tecnológico de Asturias, Parcela 50, Llanera Asturias - España Phone (+34) Fax (+34) ingeniumsl@ingeniumsl.com TECHNICAL SERVICE Phone number (+34) tecnico@ingeniumsl.com

2 Index Introduction... 2 Actuators ON/OFF Actuators - 6E6S, 4E4S, 2E2S (in every version) Dimmers RBLED, RB300, 2S300, RB1500, RBF10A (in every version) RGBL-BUS...7 Mechanical controls MECing, MECing-W, MDbus-W RFiDBUS...9 Graphic controls MECBUS-C (and older versions) TECBUS-C, TECing-C (and older versions) PPC7, PPS7, PPC10, CGBUS PPLx Smart Touch...14 Temperature control TRC, TRMD, STIBUS, STIBUS-SD, BUStemp...15 Alarms smartbox KCtr (KA) KCtr (Ktf) GSMing, GSMing v Sensors LDRBUS SRBUS SIFBUS and bus probes (in every version) SIFLUX-BUS...27 Integrations IRBUS IRing Sonibus MeterBUS BUSing-LG-AC DMX-BUS DALing BUSing-KNX...36 Bus devices ULing...37 Registers 1/38

3 INTRODUCTION Every BUSing device have three different types of memory: RAM memory, used for the direct working control of the device or the outputs and inputs. EEPROM memory, used for preserve the configuration parameters of the device from voltage failures. FLASH memory, used for the working programs and scripts of the devices. Only the Development System (SIDE) has access to it. The BUSing programming language in low level (by telegrams or scripts) is always structured as following: Command field: Defines the action to execute depending on the data 1 and data 2 fields. It can be writing or reading to RAM, EEPROM, etc. Some examples are these: Ack (1): Packet received correctly. No Ack (2): Packet error or not received. Read (3): Read from RAM as indicated in data 1 and data 2. (4): in RAM as indicated in data 1 and data 2. ReadEeprom (5): Read from EEPROM as indicated in data 1 and data 2. Eeprom (6): in EEPROM as indicated in data 1 and data 2. ReadAddress (7): Read the address of the device. Address (8): a new address to the device. ReadType (9): Read the type of node of the device. Every telegram must be answered by the destination device with an ACK (Acknowledgement) command sent to the origin device. Address field: Number that identifies the destination device of the telegram. It can have a value from 0 to 255 in simple installations or from 0 to in extended installations. Data 1 and data 2 fields: They define the actions that will be executed according this manual for each type of device. Registers 2/38

4 ACTUATORS 2.1 ON/OFF ACTUATORS - 6E6S, 4E4S, 2E2S (IN EVERY VERSION) RAM Read 0 0 Read Read the state of inputs. The result is answered in data1 of the ACK telegram. Decimal value encoded according to table Bit = 0 input activated. Bit = 1 input deactivated. Read the state of outputs. The result is answered in data1 of the ACK telegram. Decimal value encoded according to table Bit = 1 output activated. Bit = 0 output deactivated. Set the state of every output at the same time according to the decimal value indicated in data2, encoded as table Actuate over each output independently. 6E6S: data2 = 0 to 5 activate outputs 1 to 6. data2 = 8 to 13 deactivate outputs 1 to 6. 4E4S: data2 = 2 to 5 activate outputs 1 to 4. data2 = 10 to 13 deactivate outputs 1 to 4. 2E2S: data2 = 4 to 5 activate outputs 1 to 2. data2 = 12 to 13 deactivate outputs 1 to Change the state of an output. The actual state is checked and it is internally changed automatically. 6E6S: data2 = 0 to 5 switch outputs 1 to 6. 4E4S: data2 = 2 to 5 switch outputs 1 to 4. 2E2S: data2 = 4 to 5 switch outputs 1 to Opening percentage position of the blind. 6E6S: 1 st blind (outputs 1 and 2). Opening percentage position of the blind. 6E6S: 2 nd blind (outputs 3 and 4) 4E4S: 1 st blind (outputs 1 and 2). Opening percentage position of the blind. 6E6S: 3 rd blind (outputs 5 and 6) 4E4S: 2 nd blind (outputs 3 and 4) 2E2S: 1 st blind (outputs 1 and 2). Table Registers 3/38

5 2.1.2 EEPROM Eeprom Inputs digital filter. Eeprom Eeprom Eeprom Opening time of the blind measured in seconds. If more than one blind is controlled, the parameter is the same for all. Short pulsation time in blind mode measured in seconds. Pulsation shorter than time = open / close step by step. Pulsation longer than time = open / close completely. Set the working mode of the inputs. Data 2 = 0 Inputs in pushbutton mode. Data 2 = 1 Inputs in switch mode. Data 2 = 2 Blind mode. Data 2 > 3 Special mode. Some inputs in pushbutton mode and others in switch mode. According to table Bit = 1 corresponding input in switch mode. Bit = 0 corresponding input in pushbutton mode. Table INPUTS TABLE Bit 7 Bit 6 Bit 5 Bit 4 Bit 3 Bit 2 Bit 1 Bit 0 6E6S E6 E5 E4 E3 E2 E E4S E4 E3 E2 E E2S E2 E Table Bit = 0 corresponding input activated. Bit = 1 corresponding input deactivated. Example: If read telegram is sent by data1 = 0 to a 6E6S (address 1) whose inputs 2 and 4 are activated, the device answers the following. From 254 to 1, Command: 3, Data1: 0, Data2: 0. From 1 to 254, Command: 1, Data1: 212, Data2: 212. The device answers the state of the inputs in the ACK (command 1), being data1 a decimal value that must be changed to binary according to the table 2.1.3: E6 E5 E4 E3 E2 E = Registers 4/38

6 2.1.4 OUTPUTS TABLE Bit 7 Bit 6 Bit 5 Bit 4 Bit 3 Bit 2 Bit 1 Bit 0 6E6S - - Z6 Z5 Z4 Z3 Z2 Z1 4E4S - - Z4 Z3 Z2 Z E2S - - Z2 Z Table Bit = 1 corresponding output activated. Bit = 0 corresponding output deactivated. Example: If we want to activate outputs 3 and 5 of a 6E6S (address 1), and deactivate the others, we must send the following telegram: From 254 to 1, Command: 4, Data1: 1, Data2: 20. When we send data1 = 1, the device sets the state of its outputs at the same time, according to the decimal value indicated in data2, encoded as indicated in table Z6 Z5 Z4 Z3 Z2 Z1 20 = DIMMERS RBLED, RB300, 2S300, RB1500, RBF10A (IN EVERY VERSION) RAM Channel 1 regulation level. Data2 = 0: Off. Data2 = 255: On 100%. Channel 2* regulation level. Data2 = 0: Off. Data2 = 255: On 100%. Relative increase or decrease of the channel 1 regulation level. Data2 = 0 to 127 Increase. Data2 = 128 to 255 Decrease. Relative increase or decrease of the channel 2* regulation level. Data2 = 0 a 127 Increase. Data2 = 128 a 255 Decrease. Registers 5/38

7 Channel 1 ramp speed. Data2 = 0: Instantaneous. Data2 =255: Slower (0,5 counts / second). Channel 2* ramp speed. Data2 = 0: Instantaneous. Data2 =255: Slower (0,5 counts / second). Channel 1 regulation direction. Data2 = 0: If regulation level = 255, output 100%. Data2 = 255: If regulation level = 255, output 0%. Channel 2* regulation direction. Data2 = 0: If regulation level = 255, output 100%. Data2 = 255: If regulation level = 255, output 0%. Triac shoot pulse width. In RB1500 and 2S300 from rev 1.4: Minimum regulation value. Inductive value. In RB1500 and 2S300 from rev 1.4: Maximum regulation value. Channel 1 remote control by pushbutton (standard dimming). Short pulsation: Complete on and off. Long pulsation: Intensity regulation. Data2 = 1: start dimming Data2 = 0: finish dimming Channel 2* remote control by pushbutton (standard dimming). Short pulsation: Complete on and off. Long pulsation: Intensity regulation. Data2 = 1: start dimming Data2 = 0: finish dimming Table *Only 2S EEPROM Eeprom Silence mode. Data2 = 1: The device answer with ACK to BUSing telegrams as every other device. Data2 = 0: The device do not answer ACK. Table Registers 6/38

8 2.3 RGBL-BUS RAM Channel 1 regulation level: Red. Data2 = 0: Off. Data2 = 255: On 100%. Channel 2 regulation level: Green. Data2 = 0: Off. Data2 = 255: On 100%. Channel 3 regulation level: Blue. Data2 = 0: Off. Data2 = 255: On 100%. Ramp time of channel 1: Red. Time = Data2 x 2,55 seconds. (Ex: Dato2 = 3 -> 7,7 seconds) Data2 = 0: Instantaneous. Ramp time of channel 2: Green. Time = Data2 x 2,55 seconds. (Ex: Dato2 = 3 -> 7,7 seconds) Data2 = 0: Instantaneous. Ramp time of channel 3: Blue. Time = Data2 x 2,55 seconds. (Ex: Dato2 = 3 -> 7,7 seconds) Data2 = 0: Instantaneous. Table EEPROM Table Registers 7/38

9 MECHANICAL CONTROLS 3.1 MECING, MECING-W, MDBUS-W RAM Only MECing: Repetition mode activation in IN3. Data2 = 1 Activated. Data2 = 0 Deactivated. Remote scene execution. Data2 = 0 Executes the activation scene of IN 1. Data2 = 1 Executes the deactivation scene of IN 1. Data2 = 2 Executes the activation scene of IN 2. Data2 = 3 Executes the deactivation scene of IN 2. Data2 = 4 Executes the activation scene of IN 3. Data2 = 5 Executes the deactivation scene of IN 3. Table EEPROM Eeprom Eeprom Eeprom Eeprom Eeprom Eeprom Time delay in seconds until the execution of the activation scene of IN Time delay in seconds until the execution of the deactivation scene of IN Time delay in seconds until the execution of the activation scene of IN Time delay in seconds until the execution of the deactivation scene of IN Time delay in seconds until the execution of the activation scene of IN Time delay in seconds until the execution of the deactivation scene of IN 3. Registers 8/38

10 Eeprom Set the working mode of the inputs. Decimal value encoded according to table = Input in pushbutton mode. 01 = Input in switch mode. 10 = Input in repetition mode. 11 = Input disabled. (Wireless versions do not support repetition mode). Table INPUTS TABLE Bit 7 Bit 6 Bit 5 Bit 4 Bit 3 Bit 2 Bit 1 Bit 0 MECing - - Input 3 Input 2 Input 1 Table Bits = 00: Input in pushbutton mode. Bits = 01: Input in switch mode. Bits = 10: Input in repetition mode. Bits = 11: Input disabled. Example: If we want to set the inputs 1, 2 and 3 of a MECing (address 31) in pushbutton mode, disabled and switch mode respectively, we must send the following telegram: Address: 31, Command: 6, Data1: 47, Data2: 28. The working mode of inputs depends on data 2, being this one a decimal value that must be changed to binary according to the table 3.1.3: - Input 3 Input 2 Input 1 28 = RFIDBUS RAM Read Tag code (5 bytes) of the last card read by the RFiDBUS Sign up of the last Tag code read with the user level indicated in Data 2. Data 2 = 0-4: Time permissions users. Data 2 = 5-200: Users without time permissions Remote scene execution. Table Registers 9/38

11 3.2.2 EEPROM Eeprom Eeprom Eeprom Eeprom Eeprom Eeprom Eeprom Eeprom Eeprom Eeprom Eeprom Working mode. 0: Pushbutton mode. 1: Long-short mode. 2: Switch mode User 1 Tag code User 2 Tag code User 3 Tag code User 4 Tag code User 5 Tag code User 1 time permissions User 2 time permissions User 3 time permissions User 4 time permissions User 5 time permissions. Table Registers 10/38

12 GRAPHIC CONTROLS 4.1 MECBUS-C (AND OLDER VERSIONS) RAM Backlight time in seconds Runs calibration routine of touchscreen Remote scene execution Minimum backlight level adjustment. Table EEPROM Eeprom List of the 16 controlled nodes in point to point mode. Data1 15 = Node address. Data1 16 = Output. Data1 17 = Type of node. Data1 18 = Icon assigned. Add 15 to data1 to set the parameters of the following point to point node (30, 31, 32 y 33), etc. Table TECBUS-C, TECING-C (AND OLDER VERSIONS) RAM Only TECBUS (older version). Address of the Ktf in the installation. Use only in installations with CRA. In installations without CRA it must be = Shows intrusion message: Password keyboard. 3 a 7 = Shows programmed technical alarm message. 11 a 15 = Hide programmed technical alarm message. 10 = Hide low battery message in the screen. Registers 11/38

13 = Disarm the screen: disables intrusion message. 3 a 7 = Disable the technical alarm message programmed. 2 = Arm the screen: enables intrusion message. 3 a 7 = Enable the technical alarm message programmed. Backlight time in seconds. (TECBUS older version: Data2 = Seconds x 2 aprox.) Intrusion zone to be armed selection. (TECing older version only had 2 zones.) 21 0 Runs calibration routine of touchscreen Remote scene execution Minimum backlight level adjustment. Table EEPROM ReadEeprom Intrusion alarm status. 0 = Intrusion disarmed. 1-5 = Intrusion armed with user level from 1 to 5. Eeprom List of the 16 controlled nodes in point to point mode. Data1 15 = Node address. Data1 16 = Output. Data1 17 = Type of node. Data1 18 = Icon assigned. Add 15 to data1 to set the parameters of the following point to point node (30, 31, 32 y 33), etc. Table Registers 12/38

14 4.3 PPC7, PPS7, PPC10, CGBUS RAM = Shows intrusion message: Password keyboard. 3 a 7 = Shows programmed technical alarm message. 11 a 15 = Hide programmed technical alarm message. 10 = Hide low battery message in the screen. 2 = Disarm the screen: disables intrusion message. 3 a 7 = Disable the technical alarm message programmed. 2 = Arm the screen: enables intrusion message. 3 a 7 = Enable the technical alarm message programmed Runs calibration routine of touchscreen Remote scene execution. Only scenes loaded from SIDE Repeats the last scene executed locally or remotely Only PPC10: Erase warning message programmed Only PPC10: Shows warning message programmed. Table EEPROM ReadEeprom Only CGBUS: BUSing address of the device. Table Registers 13/38

15 4.4 PPLX RAM = Shows intrusion message: Password keyboard. 3 a 7 = Shows programmed technical alarm message. 11 a 15 = Hide programmed technical alarm message. 2 = Disarm the screen: disables intrusion message. 3 a 7 = Disable the technical alarm message programmed. 2 = Arm the screen: enables intrusion message. 3 a 7 = Enable the technical alarm message programmed Remote scene execution. Only scenes loaded from SIDE Creates a screenshot that can be downloaded with any web browser by writing the following url: Table SMART TOUCH RAM Comando Dato 1 Dato 2 Descripción Backlight time in seconds Temperature sensor calibration Change appearance using screen uploaded themes Remote scene execution Minimum backlight level adjustment. Tabla Registers 14/38

16 TEMPERATURE CONTROL 5.1 TRC, TRMD, STIBUS, STIBUS-SD, BUSTEMP RAM Read Read Read Read Measured temperature value. The result is answered in data1 of the ACK telegram = 0-51 ºC Actual temperature set value corrected. The result is answered in data1 of the ACK telegram = 0-51 ºC New set value = 0-51 ºC Only TRMD and STIBUS. Actual value of relative humidity. The result is answered in data1 of the ACK telegram = % Only TRMD and STIBUS. The result is answered in data1 of the ACK telegram = % Actual temperature set value without correction. The result is answered in data1 of the ACK telegram = 0-51 ºC Only TRMD and STIBUS. Proportional value of the PI regulator. Only TRMD and STIBUS. Integral value of the PI regulator. Only TRMD and STIBUS (older versions). State of outputs: Bit 0 = Cold output and Bit 1 = Heat output. Data 2 = 0: Both outputs deactivated. Data 2 = 1: Cold output activated and heat output deactivated. Data 2 = 2: Cold output deactivated and heat output activated. Data 2 = 3: Both outputs activated. Allowed set value adjustment (Potentiometer limits). 0 = 0 ºC. Set value can not be adjusted. 255 = 51 ºC. Set value can be adjusted from 0 to 51 ºC. Hysteresis value of the temperature controller = 0-51 ºC. Registers 15/38

17 Working modes of the temperature controller. 0 = Off. Only temperature measure. 1 = Mixed mode. Allows to change the set value locally or remotely by Bus commands. 2 = Remote mode. Only TRMD and STIBUS (older versions). It is not possible to change the set value. Outputs are controlled only by Bus commands with the RAM register 6. 3 = Bus mode. It is not possible to change the set value locally, only by Bus commands Only TRMD and STIBUS (older versions). Fancoil control working mode = Fancoil with temperature control modes = Fancoil with humidity control modes = Fancoil manual control modes Only TRC and TRMD. Backlight time. Data2 = Seconds x 4 (aprox.) Operation modes of the temperature controller. 0 = Thermostat off. Only temperature measure. 1 = Thermostat in cold mode (winter mode). 2 = Thermostat in heat mode (summer mode). 3 = Thermostat in mixed mode. Allows mode change only by Bus commands. Only TRC and TRMD. Operation modes of the temperature controller. 4 = Thermostat off. Only temperature measure. 5 = Thermostat in cold mode (winter mode). 6 = Thermostat in heat mode (summer mode). 7 = Thermostat in mixed mode. Allows mode change locally (on the screen) and by Bus commands Temperature sensor calibration Only TRC and TRMD. Runs calibration routine of touchscreen Remote scene execution Only TRC and TRMD. Backlight contrast level adjustment. Table EEPROM Table Registers 16/38

18 5.1.3 WORKING MODES TABLE Bit 7 Bit 6 Bit 5 Bit 4 Bit 3 Bit 2 Bit 1 Bit 0 Fancoil Temperature control Manual Humidity Temperature BUS mode Remote moe Mix mode Tabla Bit = 1 activated function. Bit = 0 deactivated function. Example: If the STIBUS thermostat (Dir.38), is required to run in fancoil mode, following commands will be delivered through BUS line: From 254 to 38, Command: 4, Data1: 10, Data2: 17. From 38 to 254, Command: 1, Data1: 17, Data2: 17. Thermostat receives the telegram and it will adapt the working mode, translating from decimal to binary following the previous table 5.1.3: B8 B7 B6 B5 B4 B3 B2 B1 17 = If the STIBUS thermostat (Dir.38), is required to be OFF in fancoil mode, following commands will be delivered through BUS line: From 254 to 38, Command: 4, Data1: 10, Data2: 16. From 38 to 254, Command: 1, Data1: 16, Data2: 16. Thermostat receives the telegram and it will adapt the working mode, translating from decimal to binary following the previous table 5.1.3: B8 B7 B6 B5 B4 B3 B2 B1 16 = Registers 17/38

19 ALARMS SMARTBOX 6.1 KCTR (KA) RAM Read Read Read the state of inputs. The result is answered in data1 of the ACK telegram. Decimal value encoded according to table Bit = 0 input activated. Bit = 1 input deactivated. Read the state of outputs*. The result is answered in data1 of the ACK telegram. Decimal value encoded according to table Bit = 1 output activated. Bit = 0 output deactivated. Set the state of every output* at the same time according to the decimal value indicated in data2, encoded as table Actuate over each output independently. Data2 = 3 to 5 activate outputs 4 to 6. Data2 = 11 to 13 deactivate outputs 4 to 6. The working of output 3 (Siren) is automatic. Intrusion alarm management. Data2 = 6 Activate the intrusion alarm (If it has been armed). Data2 = 7 Arm the intrusion alarm. Data2 = 15 Disarm the intrusion alarm. Table *Note: The KCtr has 4 outputs so it must be programmed as a 4E4S actuator EEPROM Eeprom Eeprom Arm time of the intrusion alarm (seconds) Disarm time of the intrusion alarm (seconds). Registers 18/38

20 Eeprom Set the working mode of the inputs. Data 2 = 0 Inputs in pushbutton mode. Data 2 = 1 Inputs in switch mode. Data 2 > 3 Special mode. Some inputs in pushbutton mode and others in switch mode. According to table Bit = 1 corresponding input in switch mode. Bit = 0 corresponding input in pushbutton mode. Table KCTR (KTF) RAM Reproduces the audio phrase in the memory position indicated in data Make the alarm phone call indicated in data Disable the alarm phone call indicated in data Enable the alarm phone call indicated in data Make the phone call to the CRA. 99 zones available being the first 8 programmable from the Ktf. Higher byte / hundreds* of the standardized 3 digits code that indicates the type of alarm in the Contact ID protocol. Medium byte / tens* of the standardized 3 digits code that indicates the type of alarm in the Contact ID protocol. Lower byte / units* of the standardized 3 digits code that indicates the type of alarm in the Contact ID protocol. Make the phone call to the CRA with the Contact ID code indicated in registers 14, 15 and 16, sending start of event. The letter E is sent to the CRA before the alarm code. Make the phone call to the CRA with the Contact ID code indicated in registers 14, 15 and 16, sending finish of event. The letter R is sent to the CRA before the alarm code. Table EEPROM Eeprom Number of tones before picking up the phone. Registers 19/38

21 Eeprom st digit* of user password. Eeprom nd digit* of user password. Eeprom rd digit* of user password. Eeprom th digit* of user password. Eeprom Re-call interval in seconds. Eeprom Eeprom Eeprom Eeprom Digits* of the first warning telephone number. Data 1 = 20: First digit. Data 1 = 34: Last digit. Digits* of the second warning telephone number. Data 1 = 35: First digit. Data 1 = 49: Last digit. Digits* of the third warning telephone number. Data 1 = 50: First digit. Data 1 = 64: Last digit. Warning phone calls status (enabled or disabled). Data 2 = Decimal value encoded according to table Bit = 1: Corresponding phone call enabled. Bit = 0: Corresponding phone call disabled. Eeprom Digits* of the first CRA telephone number. Data 1 = 128: First digit. Data 1 = 142: Last digit. Eeprom Digits* of the second CRA telephone number. Data 1 = 143: First digit. Data 1 = 157: Last digit. Eeprom Eeprom Eeprom Eeprom Eeprom Digits* of the third CRA telephone number. Data 1 = 158: First digit. Data 1 = 172: Last digit st digit* of ID user CRA nd digit* of ID user CRA rd digit* of ID user CRA th digit* of ID user CRA. Eeprom Eeprom Internal phone calls mask status (general configuration tab of SIDE). Data 2 = Decimal value encoded according to table Bit = 1: Corresponding phone call enabled. Bit = 0: Corresponding phone call disabled. External phone calls mask status (remote alarm central tab of SIDE). Data 2 = Decimal value encoded according to table Bit = 1: Corresponding phone call enabled. Bit = 0: Corresponding phone call disabled. Registers 20/38

22 Eeprom Eeprom Pulses or tones phone call generation. Data 1 = 0: Pulses phone calls. Data 1 = 1: Tones phone calls. Tone accumulate mode (answer machine compatibility). Ringtones of consecutive calls are added (1 minute aprox.). Data 2 = 1: Tone accumulation activated. Data 2 = 0: Tone accumulation deactivated. Eeprom Eeprom Eeprom Indicates the KCtr if it must wait for the line to make a phone call or to make it directly. Data 2 = 0: Direct phone call. Data 2 = 1: Wait for line. Periodic phone call test to CRA. Frequency indicated in Data2 in days approximately. Data 2 = 0: Do not make test. CRA phone call priority. Data 2 = 0: CRA phone call interruption allowed. Data 2 0: CRA phone call interruption not allowed. Table *Note: To introduce the value 0 in any of the digits, it must be written the value 10 in data 2. At the end of the digits string sent it is necessary to send a last command with 255 in data PHONE CALLS TABLE Bit 7 Bit 6 Bit 5 Bit 4 Bit 3 Bit 2 Bit 1 Bit 0 Number of call AL. 8 AL. 7 AL. 6 AL. 5 AL. 4 AL. 3 AL. 2 AL. 1 Table Bit = 0: Corresponding phone call disabled. Bit = 1: Corresponding phone call enabled. Registers 21/38

23 6.3 GSMING, GSMING V RAM Read GSM module reset Read the state of outputs*. The result is answered in data1 of the ACK telegram. Decimal value encoded according to table Bit = 1: corresponding output activated. Bit = 0: corresponding output deactivated. Set the state of every output* at the same time according to the decimal value indicated in data2, encoded as table Actuate over each output independently. Data 2 = 4 to 5: activate outputs 1 to 2. Data 2 = 12 to 13: deactivate outputs 1 to 2. Intrusion alarm management. Data 2 = 6: Triggers the intrusion alarm (If it has been armed). Data 2 = 7: Arm/enable the intrusion alarm. Data 2 = 15: Disarm/disable the intrusion alarm. Change the state of an output. The actual state is checked and it is internally changed automatically. Data2 = 4 to 5 switch outputs 1 to 2. Sends the warning message indicated in data 2. The intrusion message is sent automatically when the alarm is triggered Enables the warning message indicated in data Disables the warning message indicated in data Read - Read Starts coverage diagnosis (30 seconds) (Only GSMing v1) Remote scene execution. Data 1 = Signal power RSSi (Máx.=31). Data 2 = Bit error ratio. Read them only after a coverage diagnosis. In GSMing v2 the diagnosis is automatic. Telephone operator name. Answers characters in data 1 and data 2 in ASCII code. Table *Note: the GSMing has 2 outputs so it must be programmed as a 2E2S actuator EEPROM Table Registers 22/38

24 SENSORS 7.1 LDRBUS RAM Read Read In lineal mode = Light level in %. Data 2 = 0 255: 0-100%. The result is answered in data1 of the ACK telegram. In threshold mode = Luminosity level in luxes. Data 2 = : lux. The result is answered in data1 and data2 of the ACK telegram. Data 1 = higher byte and Data 2 = lower byte. Lineal mode: actual set point value corrected. Data 2 = 0 255: 0-100%. Lineal mode: new set point value. Data 2 = 0 255: 0-100% Lineal mode: proportional value of the PI regulator Lineal mode: integral value of the PI regulator. Read Lineal mode: result value of the PI regulator Lineal mode: bandwidth consumed (increases/decreases the amount of data sent to the bus). Lineal mode: hysteresis value of the luminosity controller. Data 2 = 0 255: % Lineal mode: sampling time Working mode. 0 = Off. No actions executed, only measuring. 1 = On. Programmed actions executed. Read Lineal mode: result value of the PI regulator Remote scene execution. Table Registers 23/38

25 7.1.2 EEPROM Eeprom High byte - Low byte of the lower brightness thresholds. Up left scene: Up right scene: Down left scene: Down right scene: Eeprom High byte - Low byte of the lower brightness thresholds. Up left scene: Up right scene: Down left scene: Down right scene: Table SRBUS RAM Read Remaining timing value in seconds/2. The result is answered in data1 and data2 of the ACK telegram. Data 1 = higher byte and Data 2 = lower byte. Read Detection signal intensity Sensor switch on and off. Data 2 = 1: Switch on. Data 2 = 0: Switch off. Remote detection of the sensor. Data 2 = 1: Simulate a start of detection. Data 2 = 0: Simulate a finish of detection. Joint action of Data 1 = 1 and Data 1 = 2. Data 2 = 1: Switch on and simulates a start of detection. Data 2 = 0: Switch off and simulates a finish of detection Remote scene execution. Table Registers 24/38

26 7.2.2 EEPROM Eeprom Eeprom Eeprom Eeprom Eeprom Eeprom Eeprom Eeprom Sensor switch on and off. Data 2 = 1: Switch on. Data 2 = 0: Switch off. Adjustment. Data 2 = 0: Adjustment = 100 % (Maximum sensibility). Data 2 = 100: Adjustment = 0 % (Minimum sensibility). Saturation. Signal level above which detection is generated independently of the control cycles and damping. Smoothing. Number of signals over the adjustment, within the time specified in control cycles, that generates a detection. (It must be less than control cycles /2) Timing in seconds/2. Data 2 = Higher byte. Timing in seconds/2. Data 2 = Low byte. Control cycles. Number of microcontroller cycles that the sensor uses as time base to generate a detection. Events repetition mode and detection echo. Data 2 = 0: Repetition mode deactivated and echo deactivated. Data 2 = 1: Repetition mode activated and echo deactivated. Data 2 = 2: Repetition mode deactivated and echo activated. Data 2 = 3: Repetition mode activated and echo activated. Table 0 Registers 25/38

27 7.3 SIFBUS AND BUS PROBES (IN EVERY VERSION) RAM Read Read Remaining timing value in seconds. The result is answered in data1 and data2 of the ACK telegram. Data 1 = higher byte and Data 2 = lower byte. SifBUS: Number of signal pulses detected. BUS probes: Detection (Data 2 0) or not (Data 2 = 0). Sensor switch on and off. Data 2 = 1: Switch on. Data 2 = 0: Switch off. Remote detection of the sensor. Data 2 = 1: Simulate a start of detection. Data 2 = 0: Simulate a finish of detection Remote scene execution. Joint action of Data 1 = 1 and Data 1 = 2. Data 2 = 1: Switch on and simulates a start of detection. Data 2 = 0: Switch off and simulates a finish of detection. Table Registers 26/38

28 7.3.2 EEPROM Eeprom Eeprom Eeprom Eeprom Sensor switch on and off. Data 2 = 1: Switch on. Data 2 = 0: Switch off. SifBUS: Detection pulses (it must be less than control cycles/2). Number of signals over the adjustment, within the time specified in control cycles, that generates a detection. BUS probes: Detection delay (avoid false alarms). Time in seconds/2 that the detection should go on, to execute the activation scene programmed. Only SifBUS: Timing in seconds/2. Data 2 = Higher byte. Only SifBUS: Timing in seconds/2. Data 2 = Low byte. Eeprom Eeprom Only SifBUS: Control cycles. Number of microcontroller cycles that the sensor uses as time base to generate a detection. Only SifBUS: Events repetition mode. Data 2 = 1: Repetition mode activated. Data 2 = 0: Repetition mode deactivated. Table SIFLUX-BUS RAM Read Presence sensor: remaining timing value in seconds. The result is answered in data1 and data2 of the ACK telegram. Data 1 = higher byte and Data 2 = lower byte. Read Presence sensor: number of signal pulses detected Presence sensor: switch on and off. Data 2 = 1: Switch on the presence sensor. Data 2 = 0: Switch off the presence sensor. Registers 27/38

29 Read Read Presence sensor: remote detection of the sensor. Data 2 = 1: Simulate a start of detection. Data 2 = 0: Simulate a finish of detection. Joint action of Data 1 = 1 and Data 1 = 2. Data 2 = 1: Switch on and simulates a start of detection. Data 2 = 0: Switch off and simulates a finish of detection. In lineal mode = Light level in %. Data 2 = 0 255: 0-100%. The result is answered in data1 of the ACK telegram. In threshold mode = Luminosity level in luxes. Data 2 = : lux. The result is answered in data1 and data2 of the ACK telegram. Data 1 = higher byte and Data 2 = lower byte. Lineal mode: actual set point value corrected. Data 2 = 0 255: 0-100%. Lineal mode: new set point value. Data 2 = 0 255: 0-100% Lineal mode: proportional value of the PI regulator Lineal mode: integral value of the PI regulator. Read Lineal mode: result value of the PI regulator Lineal mode: bandwidth consumed (increases/decreases the amount of data sent to the bus). Lineal mode: hysteresis value of the luminosity controller. Data 2 = 0 255: % Lineal mode: sampling time Working mode. 0 = Off. No actions executed, only measuring. 1 = On. Programmed actions executed. Read Lineal mode: result value of the PI regulator Remote scene execution. Table Registers 28/38

30 7.4.2 EEPROM Eeprom Eeprom Eeprom Eeprom Eeprom Eeprom Presence sensor: switch on and off. Data 2 = 1: Switch on. Data 2 = 0: Switch off. Detection pulses (it must be less than control cycles/2). Number of signals over the adjustment, within the time specified in control cycles, that generates a detection. Timing in seconds. Data 2 = Higher byte. Timing in seconds. Data 2 = Low byte. Control cycles: number of microcontroller cycles that the sensor uses as time base to generate a detection. Events repetition mode. Data 2 = 1: Repetition mode activated. Data 2 = 0: Repetition mode deactivated. Table 0 Registers 29/38

31 INTEGRATIONS 8.1 IRBUS RAM Remote scene execution. Table EEPROM Eeprom Eeprom Working mode. Data 2 = 1: Scenes mode. Data 2 = 0: Point to point mode. Eco mode of the led. Data 2 = 1: Led on while button pressed. Data 2 = 0: Led always off. Table IRING RAM Starts recording mode in the memory position indicated in data Read Load to the buffer the infrared code of the memory position indicated in data 2, to be read after that by data 1 = 30. Read the pulses data of the infrared code loaded in the buffer. Answers in data 1 and data 2 the values of every memory position (2x255) indicated in data Sends the infrared code indicated in data 2. Table Registers 30/38

32 8.2.2 EEPROM Eeprom Time base for the recording of the IR signal. 0 = Time base for faster signals. 254 = Time base for slower signals. 255 = Compatible time base for older versions of IRings. Table SONIBUS RAM Output volume. Data 2 = 255: Volume to 100 %. Data 2 = 255: Volume to 0 %. Input channel selected. Data 2 = 0: Channel 1. Data 2 = 1: Channel 2. Data 2 = 2: Channel 3. Data 2 = 3: Channel 4. Table EEPROM Table Registers 31/38

33 8.4 METERBUS RAM Channel 1 power threshold (Amperes x10) Channel 2 power threshold (Amperes x10) Channel 3 power threshold (Amperes x10) Channel 4 power threshold (Amperes x10). Read Instant power in channel 1 (Amperes x10). Read Instant power in channel 2 (Amperes x10). Read Instant power in channel 3 (Amperes x10). Read Instant power in channel 4 (Amperes x10). / Read Read Read Read Read Consumption limit exceeded alarm. 0 = Deactivated. 1 = Activated. Accumulated consumption in channel 1 of Sunday (Wh/2). Increase 1 to Data 1 for the next day of the week consumption. Data 1 = higher byte and Data 2 = lower byte. Accumulated consumption in channel 2 of Sunday (Wh/2). Increase 1 to Data 1 for the next day of the week consumption. Data 1 = higher byte and Data 2 = lower byte. Accumulated consumption in channel 3 of Sunday (Wh/2). Increase 1 to Data 1 for the next day of the week consumption. Data 1 = higher byte and Data 2 = lower byte. Accumulated consumption in channel 4 of Sunday (Wh/2). Increase 1 to Data 1 for the next day of the week consumption. Data 1 = higher byte and Data 2 = lower byte. Table EEPROM Eeprom Eeprom Eeprom K values of the calibration curve of each channel C values of the calibration curve of each channel Working voltage value (2 bytes). Data 2 = 30: Higher byte and Data 1 = 31: Lower byte. Table Registers 32/38

34 8.5 BUSING-LG-AC RAM = Unit control deactivation. 3 = Unit On. 2 = Unit Off. Fan speed and working mode. Data 2 = 0-4: Fan off. Data 2 = 16: Fan speed low / Cool mode. Data 2 = 17: Fan speed low / Dry mode. Data 2 = 18: Fan speed low / Only Fan mode. Data 2 = 19: Fan speed low / Automatic mode. Data 2 = 20: Fan speed low / Heat mode Data 2 = 32: Fan speed medium / Cool mode. Data 2 = 33: Fan speed medium / Dry mode. Data 2 = 34: Fan speed medium / Only Fan mode. Data 2 = 35: Fan speed medium / Automatic mode. Data 2 = 36: Fan speed medium / Heat mode. Data 2 = 48: Fan speed high / Cool mode. Data 2 = 49: Fan speed high / Dry mode. Data 2 = 50: Fan speed high / Only Fan mode. Data 2 = 51: Fan speed high / Automatic mode. Data 2 = 52: Fan speed high / Heat mode. Read 3 Data 2 = 64: Fan speed auto / Cool mode. Data 2 = 65: Fan speed auto / Dry mode. Data 2 = 66: Fan speed auto / Only Fan mode. Data 2 = 67: Fan speed auto / Automatic mode. Data 2 = 68: Fan speed auto / Heat mode Set point temperature o C = data Measured temperature o C = (164 data 2) / 2 Table *Note: Add 4 to data 1 for the next indoor unit control (0 to 3: Unit 0; 4 to 7: Unit 1; etc) EEPROM Table Registers 33/38

35 8.6 DMX-BUS RAM Regulation level. Data2 = 0: Off. Data2 = 255: On 100%. Relative increase or decrease of the regulation level. Data2 = 0 to 127 Increase. Data2 = 128 to 255 Decrease. Table *Note: These are registers of the BUSing virtual dimmers in the DMX-BUS gateway memory, so the commands must be sent to their addresses, not to the gateway address EEPROM Eeprom Number of channels to emulate. (BUSing virtual dimmers in memory with consecutive addresses of the DMX-BUS gateway). Table *Note: These are registers of the DMX-BUS gateway. Registers 34/38

36 8.7 DALING RAM Regulation level. Data2 = 0: Off. Data2 = 255: On 100%. Relative increase or decrease of the regulation level. Data2 = 0 to 127 Increase. Data2 = 128 to 255 Decrease. Ramp speed. Data2 = 0: Instantaneous. Data2 =15: Lowest speed. Table *Note: These are registers of the BUSing virtual dimmers in the DALI gateway memory, so the commands must be sent to their addresses, not to the gateway address EEPROM Eeprom Eeprom DALI Light address. (BUSing virtual dimmer in memory referred to individual DALI address) DALI group address. (BUSing virtual dimmer in memory referred to DALI group address) Table *Note: These are registers of the DALI gateway. Registers 35/38

37 8.8 BUSING-KNX RAM Lower byte of the group address that the data will be sent to: -/-/X Higher byte of the group address that the data will be sent to: X/X/ KNX command sent. 1 = Read 2 =. 3 = Response. Data bytes to send. Data must be written in decimal (no DPT encoding) Size of the data to send: 0 = 1 bit. 1 = 1 byte. 2 = 2 bytes. When this BUSing telegram is received by the gateway, the KNX telegram is sent according to the values of registers configured above. Tabla Registers 36/38

38 BUS DEVICES 9.1 ULING RAM Read Read Read Channel 1 logic operation result. Data 2 = 0: False. Data 2 0: True. Channel 2 logic operation result. Data 2 = 0: False. Data 2 0: True. Channel 3 logic operation result. Data 2 = 0: False. Data 2 0: True Deactivate bit indicated in Data Activate bit indicated in Data Switch the state of the bit indicated in Data Remote scene execution. Table EEPROM Table Registers 37/38

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