Kelvin temperature sensor module 10KA 1.0.8 2015-01-26 This module can report temperature from up to six temperature sensors. One sensor is located on board and five are external to the module. http://www.grodansparadis.com/kelvinntc10k/kelvin_ntc10ka.html 8 Grodans Paradis AB

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Main web site Picture of Kelvin NTC10K module. Firmare version 1.1.0 for the Kelvin NTC10K module. Full manual version 1.1 for the Kelvin NTC10K module. 1 8 4096 Zone Zone this module belongs to rw Subzone Subzone this module belongs to rw Control register for sensor 0 In the sensor control register you can set functionality for the measurements of temperature 0.\n Bit 0: Unit for temperature presentation (0=Kelvin, 1=Celsius, 2=Fahrenheit).\n Bit 1: Unit for temperature presentation (0=Kelvin, 1=Celsius, 2=Fahrenheit).\n Bit 2: Reserved.\n Bit 3: Enable low alarm if set to 1.\n Bit 4: Enable high alarm if set to 1\n Bit 5: Send TurnOn/TurnOff events instead of alarm events.\n Bit 6: Invert TurnOn/TurnOff sendings.\n Bit 7: Continous alarm events.\n rw Temperature unit The module can present the temperatures in different units. Default is degrees Celsius but you can select Kelvin or Fahrenheit instead.\n Set to 0 to set unit to Kelvin.\n Set to 1 to set unit to Celsius.\n Set to 2 to set unit to Fahrenheit.\n Kelvin Temperature is presented using Kelvin as unit, Celsius Temperature is presented using Celsius as unit, Kelvin Temperature is presented using Fahrenheit as unit, Reserved This bit is reserved Enable low alarm. Enable sending of low alarm events by setting this bit to one. Enable high alarm. Enable sending of high alarm events by setting this bit to one. Send TurnOn/TurnOff. Send TurnOn/TurnOff events instead of Alarm events by setting this bit to one. Bit 6 control when TurnOn/TurnOff events are sent. Controls when TurnOn/TurnOff events will be sent (if activated). 0 - TurnOn event is sent when low temperature is reached as set in low temperature alarm register. TurnOff event is sent when high temperature is reached as set in high temperature alarm register.\n 1 - TurnOff event is sent when low temperature is reached as set in low temperature alarm register. TurnOn event is sent when high temperature is reached as set in high temperature alarm register.\n The hysteresis value will effect TurnOn/TurnOff events The temperature must go above or below the hysteresis value before a new event will be sent out. Continuous alarm events. If this bit is set Alarm events will be sent continuous with a one second interval until the alarm register is read or the temperature goes to a non alarm state (with hysteresis taken into account). TurnOn/TurnOff events will not be affected by a cleared alarm register and will be sent until this bit is cleared or the temperature goes to a non alarm state (with hysteresis taken into account. Control register for sensor 1 In the sensor control register you can set functionality for the measurements of temperature 0.\n Bit 0: Unit for temperature presentation (0=Kelvin, 1=Celsius, 2=Fahrenheit).\n Bit 1: Unit for temperature presentation (0=Kelvin, 1=Celsius, 2=Fahrenheit).\n Bit 2: Reserved.\n Bit 3: Enable low alarm if set to 1.\n Bit 4: Enable high alarm if set to 1\n Bit 5: Send TurnOn/TurnOff events instead of alarm events.\n Bit 6: Invert TurnOn/TurnOff sendings.\n Bit 7: Continous alarm events.\n rw Temperature unit The module can present the temperatures in different units. Default is degrees Celsius but you can select Kelvin or Fahrenheit instead.\n Set to 0 to set unit to Kelvin.\n Set to 1 to set unit to Celsius.\n Set to 2 to set unit to Fahrenheit.\n Kelvin Temperature is presented using Kelvin as unit, Celsius Temperature is presented using Celsius as unit, Kelvin Temperature is presented using Fahrenheit as unit, Reserved This bit is reserved Enable low alarm. Enable sending of low alarm events by setting this bit to one. Enable high alarm. Enable sending of high alarm events by setting this bit to one. Send TurnOn/TurnOff. Send TurnOn/TurnOff events instead of Alarm events by setting this bit to one. Bit 6 control when TurnOn/TurnOff events are sent. Controls when TurnOn/TurnOff events will be sent (if activated). 0 - TurnOn event is sent when low temperature is reached as set in low temperature alarm register. TurnOff event is sent when high temperature is reached as set in high temperature alarm register.\n 1 - TurnOff event is sent when low temperature is reached as set in low temperature alarm register. TurnOn event is sent when high temperature is reached as set in high temperature alarm register.\n The hysteresis value will effect TurnOn/TurnOff events The temperature must go above or below the hysteresis value before a new event will be sent out. Continuous alarm events. If this bit is set Alarm events will be sent continuous with a one second interval until the alarm register is read or the temperature goes to a non alarm state (with hysteresis taken into account). TurnOn/TurnOff events will not be affected by a cleared alarm register and will be sent until this bit is cleared or the temperature goes to a non alarm state (with hysteresis taken into account. Control register for sensor 2 In the sensor control register you can set functionality for the measurements of temperature 0.\n Bit 0: Unit for temperature presentation (0=Kelvin, 1=Celsius, 2=Fahrenheit).\n Bit 1: Unit for temperature presentation (0=Kelvin, 1=Celsius, 2=Fahrenheit).\n Bit 2: Reserved.\n Bit 3: Enable low alarm if set to 1.\n Bit 4: Enable high alarm if set to 1\n Bit 5: Send TurnOn/TurnOff events instead of alarm events.\n Bit 6: Invert TurnOn/TurnOff sendings.\n Bit 7: Continous alarm events.\n rw Temperature unit The module can present the temperatures in different units. Default is degrees Celsius but you can select Kelvin or Fahrenheit instead.\n Set to 0 to set unit to Kelvin.\n Set to 1 to set unit to Celsius.\n Set to 2 to set unit to Fahrenheit.\n Kelvin Temperature is presented using Kelvin as unit, Celsius Temperature is presented using Celsius as unit, Kelvin Temperature is presented using Fahrenheit as unit, Reserved This bit is reserved Enable low alarm. Enable sending of low alarm events by setting this bit to one. Enable high alarm. Enable sending of high alarm events by setting this bit to one. Send TurnOn/TurnOff. Send TurnOn/TurnOff events instead of Alarm events by setting this bit to one. Bit 6 control when TurnOn/TurnOff events are sent. Controls when TurnOn/TurnOff events will be sent (if activated). 0 - TurnOn event is sent when low temperature is reached as set in low temperature alarm register. TurnOff event is sent when high temperature is reached as set in high temperature alarm register.\n 1 - TurnOff event is sent when low temperature is reached as set in low temperature alarm register. TurnOn event is sent when high temperature is reached as set in high temperature alarm register.\n The hysteresis value will effect TurnOn/TurnOff events The temperature must go above or below the hysteresis value before a new event will be sent out. Continuous alarm events. If this bit is set Alarm events will be sent continuous with a one second interval until the alarm register is read or the temperature goes to a non alarm state (with hysteresis taken into account). TurnOn/TurnOff events will not be affected by a cleared alarm register and will be sent until this bit is cleared or the temperature goes to a non alarm state (with hysteresis taken into account. Control register for sensor 3 In the sensor control register you can set functionality for the measurements of temperature 0.\n Bit 0: Unit for temperature presentation (0=Kelvin, 1=Celsius, 2=Fahrenheit).\n Bit 1: Unit for temperature presentation (0=Kelvin, 1=Celsius, 2=Fahrenheit).\n Bit 2: Reserved.\n Bit 3: Enable low alarm if set to 1.\n Bit 4: Enable high alarm if set to 1\n Bit 5: Send TurnOn/TurnOff events instead of alarm events.\n Bit 6: Invert TurnOn/TurnOff sendings.\n Bit 7: Continous alarm events.\n rw Temperature unit The module can present the temperatures in different units. Default is degrees Celsius but you can select Kelvin or Fahrenheit instead.\n Set to 0 to set unit to Kelvin.\n Set to 1 to set unit to Celsius.\n Set to 2 to set unit to Fahrenheit.\n Kelvin Temperature is presented using Kelvin as unit, Celsius Temperature is presented using Celsius as unit, Kelvin Temperature is presented using Fahrenheit as unit, Reserved This bit is reserved Enable low alarm. Enable sending of low alarm events by setting this bit to one. Enable high alarm. Enable sending of high alarm events by setting this bit to one. Send TurnOn/TurnOff. Send TurnOn/TurnOff events instead of Alarm events by setting this bit to one. Bit 6 control when TurnOn/TurnOff events are sent. Controls when TurnOn/TurnOff events will be sent (if activated). 0 - TurnOn event is sent when low temperature is reached as set in low temperature alarm register. TurnOff event is sent when high temperature is reached as set in high temperature alarm register.\n 1 - TurnOff event is sent when low temperature is reached as set in low temperature alarm register. TurnOn event is sent when high temperature is reached as set in high temperature alarm register.\n The hysteresis value will effect TurnOn/TurnOff events The temperature must go above or below the hysteresis value before a new event will be sent out. Continuous alarm events. If this bit is set Alarm events will be sent continuous with a one second interval until the alarm register is read or the temperature goes to a non alarm state (with hysteresis taken into account). TurnOn/TurnOff events will not be affected by a cleared alarm register and will be sent until this bit is cleared or the temperature goes to a non alarm state (with hysteresis taken into account. Control register for sensor 4 In the sensor control register you can set functionality for the measurements of temperature 0.\n Bit 0: Unit for temperature presentation (0=Kelvin, 1=Celsius, 2=Fahrenheit).\n Bit 1: Unit for temperature presentation (0=Kelvin, 1=Celsius, 2=Fahrenheit).\n Bit 2: Reserved.\n Bit 3: Enable low alarm if set to 1.\n Bit 4: Enable high alarm if set to 1\n Bit 5: Send TurnOn/TurnOff events instead of alarm events.\n Bit 6: Invert TurnOn/TurnOff sendings.\n Bit 7: Continous alarm events.\n rw Temperature unit The module can present the temperatures in different units. Default is degrees Celsius but you can select Kelvin or Fahrenheit instead.\n Set to 0 to set unit to Kelvin.\n Set to 1 to set unit to Celsius.\n Set to 2 to set unit to Fahrenheit.\n Kelvin Temperature is presented using Kelvin as unit, Celsius Temperature is presented using Celsius as unit, Kelvin Temperature is presented using Fahrenheit as unit, Reserved This bit is reserved Enable low alarm. Enable sending of low alarm events by setting this bit to one. Enable high alarm. Enable sending of high alarm events by setting this bit to one. Send TurnOn/TurnOff. Send TurnOn/TurnOff events instead of Alarm events by setting this bit to one. Bit 6 control when TurnOn/TurnOff events are sent. Controls when TurnOn/TurnOff events will be sent (if activated). 0 - TurnOn event is sent when low temperature is reached as set in low temperature alarm register. TurnOff event is sent when high temperature is reached as set in high temperature alarm register.\n 1 - TurnOff event is sent when low temperature is reached as set in low temperature alarm register. TurnOn event is sent when high temperature is reached as set in high temperature alarm register.\n The hysteresis value will effect TurnOn/TurnOff events The temperature must go above or below the hysteresis value before a new event will be sent out. Continuous alarm events. If this bit is set Alarm events will be sent continuous with a one second interval until the alarm register is read or the temperature goes to a non alarm state (with hysteresis taken into account). TurnOn/TurnOff events will not be affected by a cleared alarm register and will be sent until this bit is cleared or the temperature goes to a non alarm state (with hysteresis taken into account. Control register for sensor 5 In the sensor control register you can set functionality for the measurements of temperature 0.\n Bit 0: Unit for temperature presentation (0=Kelvin, 1=Celsius, 2=Fahrenheit).\n Bit 1: Unit for temperature presentation (0=Kelvin, 1=Celsius, 2=Fahrenheit).\n Bit 2: Reserved.\n Bit 3: Enable low alarm if set to 1.\n Bit 4: Enable high alarm if set to 1\n Bit 5: Send TurnOn/TurnOff events instead of alarm events.\n Bit 6: Invert TurnOn/TurnOff sendings.\n Bit 7: Continous alarm events.\n rw Temperature unit The module can present the temperatures in different units. Default is degrees Celsius but you can select Kelvin or Fahrenheit instead.\n Set to 0 to set unit to Kelvin.\n Set to 1 to set unit to Celsius.\n Set to 2 to set unit to Fahrenheit.\n Kelvin Temperature is presented using Kelvin as unit, Celsius Temperature is presented using Celsius as unit, Kelvin Temperature is presented using Fahrenheit as unit, Reserved This bit is reserved Enable low alarm. Enable sending of low alarm events by setting this bit to one. Enable high alarm. Enable sending of high alarm events by setting this bit to one. Send TurnOn/TurnOff. Send TurnOn/TurnOff events instead of Alarm events by setting this bit to one. Bit 6 control when TurnOn/TurnOff events are sent. Controls when TurnOn/TurnOff events will be sent (if activated). 0 - TurnOn event is sent when low temperature is reached as set in low temperature alarm register. TurnOff event is sent when high temperature is reached as set in high temperature alarm register.\n 1 - TurnOff event is sent when low temperature is reached as set in low temperature alarm register. TurnOn event is sent when high temperature is reached as set in high temperature alarm register.\n The hysteresis value will effect TurnOn/TurnOff events The temperature must go above or below the hysteresis value before a new event will be sent out. Continuous alarm events. If this bit is set Alarm events will be sent continuous with a one second interval until the alarm register is read or the temperature goes to a non alarm state (with hysteresis taken into account). TurnOn/TurnOff events will not be affected by a cleared alarm register and will be sent until this bit is cleared or the temperature goes to a non alarm state (with hysteresis taken into account. Temperature sensor 0 MSB This register holds the most significant byte for the reading of the temperature for sensor 0 (on board sensor). The reading is always stored in the Celsius unit and the read value should be divided by 100 to get the real temperature in celsius. The value is stored as a twos complement number as temperature * 100. r Temperature sensor 0 LSB This register holds the least significant byte for the reading of the temperature for sensor 0 (on board sensor). The reading is always stored in the Celsius unit and the read value should be divided by 100 to get the real temperature in celsius. The value is stored as a twos complement number as temperature * 100. r Temperature sensor 1 MSB This register holds the most significant byte for the reading of the temperature for sensor 1. The reading is always stored in the Celsius unit and the read value should be divided by 100 to get the real temperature in celsius. The value is stored as a twos complement number as temperature * 100. r Temperature sensor 1 LSB This register holds the least significant byte for the reading of the temperature for sensor 1. The reading is always stored in the Celsius unit and the read value should be divided by 100 to get the real temperature in celsius. The value is stored as a twos complement number as temperature * 100. r Temperature sensor 2 MSB This register holds the most significant byte for the reading of the temperature for sensor 2. The reading is always stored in the Celsius unit and the read value should be divided by 100 to get the real temperature in celsius. The value is stored as a twos complement number as temperature * 100. r Temperature sensor 2 LSB This register holds the least significant byte for the reading of the temperature for sensor 2. The reading is always stored in the Celsius unit and the read value should be divided by 100 to get the real temperature in celsius. The value is stored as a twos complement number as temperature * 100. r Temperature sensor 3 MSB This register holds the most significant byte for the reading of the temperature for sensor 3. The reading is always stored in the Celsius unit and the read value should be divided by 100 to get the real temperature in celsius. The value is stored as a twos complement number as temperature * 100. r Temperature sensor 3 LSB This register holds the least significant byte for the reading of the temperature for sensor 3. The reading is always stored in the Celsius unit and the read value should be divided by 100 to get the real temperature in celsius. The value is stored as a twos complement number as temperature * 100. r Temperature sensor 4 MSB This register holds the most significant byte for the reading of the temperature for sensor 1. The reading is always stored in the Celsius unit and the read value should be divided by 100 to get the real temperature in celsius. The value is stored as a twos complement number as temperature * 100. r Temperature sensor 4 LSB This register holds the least significant byte for the reading of the temperature for sensor 1. The reading is always stored in the Celsius unit and the read value should be divided by 100 to get the real temperature in celsius. The value is stored as a twos complement number as temperature * 100. r Temperature sensor 5 MSB This register holds the most significant byte for the reading of the temperature for sensor 5. The reading is always stored in the Celsius unit and the read value should be divided by 100 to get the real temperature in celsius. The value is stored as a twos complement number as temperature * 100. r Temperature sensor 5 LSB This register holds the least significant byte for the reading of the temperature for sensor 5. The reading is always stored in the Celsius unit and the read value should be divided by 100 to get the real temperature in celsius. The value is stored as a twos complement number as temperature * 100. r Report interval for sensor 0 This register holds the report interval expressed in seconds for sensor 0. Writing zero to this register turns of report events for the sensor. rw Report interval for sensor 1 This register holds the report interval expressed in seconds for sensor 1. Writing zero to this register turns of report events for the sensor. rw Report interval for sensor 2 This register holds the report interval expressed in seconds for sensor 2. Writing zero to this register turns of report events for the sensor. rw Report interval for sensor 3 This register holds the report interval expressed in seconds for sensor 3. Writing zero to this register turns of report events for the sensor. rw Report interval for sensor 4 This register holds the report interval expressed in seconds for sensor 4. Writing zero to this register turns of report events for the sensor. rw Report interval for sensor 5 This register holds the report interval expressed in seconds for sensor 5. Writing zero to this register turns of report events for the sensor. rw Reserved This register is reserved for future use. r Reserved This register is reserved for future use. r Reserved This register is reserved for future use. r Reserved This register is reserved for future use. r Reserved This register is reserved for future use. r Reserved This register is reserved for future use. r Reserved This register is reserved for future use. r Reserved This register is reserved for future use. r Reserved This register is reserved for future use. r Reserved This register is reserved for future use. r Reserved This register is reserved for future use. r Reserved This register is reserved for future use. r B constant for sensor 0 MSB This register holds the most significant byte of the NTC B constant for sensor 0. rw B constant for 0 LSB This register holds the least significant byte of the NTC B constant for sensor 0. rw B constant for sensor 1 MSB This register holds the most significant byte of the NTC B constant for sensor 1. rw B constant for 1 LSB This register holds the least significant byte of the NTC B constant for sensor 1. rw B constant for sensor 2 MSB This register holds the most significant byte of the NTC B constant for sensor 2. rw B constant for 2 LSB This register holds the least significant byte of the NTC B constant for sensor 2. rw B constant for sensor 3 MSB This register holds the most significant byte of the NTC B constant for sensor 3. rw B constant for 3 LSB This register holds the least significant byte of the NTC B constant for sensor 3. rw B constant for sensor 4 MSB This register holds the most significant byte of the NTC B constant for sensor 4. rw B constant for 4 LSB This register holds the least significant byte of the NTC B constant for sensor 4. rw B constant for sensor 5 MSB This register holds the most significant byte of the NTC B constant for sensor 5. rw B constant for 5 LSB This register holds the least significant byte of the NTC B constant for sensor 5. rw Low alarm set point for sensor 0 MSB This register holds the most significant byte of the low alarm setpoint for sensor 0. The value is stored as a twos complement number as temperature * 100. rw Low alarm set point for sensor 0 LSB This register holds the least significant byte of the low alarm setpoint for sensor 0. The value is stored as a twos complement number as temperature * 100. rw Low alarm set point for sensor 1 MSB This register holds the most significant byte of the low alarm setpoint for sensor 0. The value is stored as a twos complement number as temperature * 100. rw Low alarm set point for sensor 1 LSB This register holds the least significant byte of the low alarm setpoint for sensor 0. The value is stored as a twos complement number as temperature * 100. rw Low alarm set point for sensor 2 MSB This register holds the most significant byte of the low alarm setpoint for sensor 0. The value is stored as a twos complement number as temperature * 100. rw Low alarm set point for sensor 2 LSB This register holds the least significant byte of the low alarm setpoint for sensor 0. The value is stored as a twos complement number as temperature * 100. rw Low alarm set point for sensor 3 MSB This register holds the most significant byte of the low alarm setpoint for sensor 0. The value is stored as a twos complement number as temperature * 100. rw Low alarm set point for sensor 3 LSB This register holds the least significant byte of the low alarm setpoint for sensor 0. The value is stored as a twos complement number as temperature * 100. rw Low alarm set point for sensor 4 MSB This register holds the most significant byte of the low alarm setpoint for sensor 0. The value is stored as a twos complement number as temperature * 100. rw Low alarm set point for sensor 4 LSB This register holds the least significant byte of the low alarm setpoint for sensor 0. The value is stored as a twos complement number as temperature * 100. rw Low alarm set point for sensor 5 MSB This register holds the most significant byte of the low alarm setpoint for sensor 0. The value is stored as a twos complement number as temperature * 100. rw Low alarm set point for sensor 5 LSB This register holds the least significant byte of the low alarm setpoint for sensor 0. The value is stored as a twos complement number as temperature * 100. rw High alarm set point for sensor 0 MSB This register holds the most significant byte of the high alarm setpoint for sensor 0. The value is stored as a twos complement number as temperature * 100. rw High alarm set point for sensor 0 LSB This register holds the least significant byte of the high alarm setpoint for sensor 0. The value is stored as a twos complement number as temperature * 100. rw High alarm set point for sensor 1 MSB This register holds the most significant byte of the high alarm setpoint for sensor 0. The value is stored as a twos complement number as temperature * 100. rw High alarm set point for sensor 1 LSB This register holds the least significant byte of the high alarm setpoint for sensor 0. The value is stored as a twos complement number as temperature * 100. rw High alarm set point for sensor 2 MSB This register holds the most significant byte of the high alarm setpoint for sensor 0. The value is stored as a twos complement number as temperature * 100. rw High alarm set point for sensor 2 LSB This register holds the least significant byte of the high alarm setpoint for sensor 0. The value is stored as a twos complement number as temperature * 100. rw High alarm set point for sensor 3 MSB This register holds the most significant byte of the high alarm setpoint for sensor 0. The value is stored as a twos complement number as temperature * 100. rw High alarm set point for sensor 3 LSB This register holds the least significant byte of the high alarm setpoint for sensor 0. The value is stored as a twos complement number as temperature * 100. rw High alarm set point for sensor 4 MSB This register holds the most significant byte of the high alarm setpoint for sensor 0. The value is stored as a twos complement number as temperature * 100. rw High alarm set point for sensor 4 LSB This register holds the least significant byte of the high alarm setpoint for sensor 0. The value is stored as a twos complement number as temperature * 100. rw High alarm set point for sensor 5 MSB This register holds the most significant byte of the high alarm setpoint for sensor 0. The value is stored as a twos complement number as temperature * 100. rw High alarm set point for sensor 5 LSB This register holds the least significant byte of the high alarm setpoint for sensor 0. The value is stored as a twos complement number as temperature * 100. rw Zone for sensor 0 This register holds the zone for sensor 0. The sensor zone is used for alarm events from the sensor. rw Subzone for sensor 0 This register holds the subzone for sensor 0. The sensor subzone is used for alarm events from the sensor. rw Zone for sensor 1 This register holds the zone for sensor 1. The sensor zone is used for alarm events from the sensor. rw Subzone for sensor 1 This register holds the subzone for sensor 1. The sensor subzone is used for alarm events from the sensor. rw Zone for sensor 2 This register holds the zone for sensor 2. The sensor zone is used for alarm events from the sensor. rw Subzone for sensor 2 This register holds the subzone for sensor 2. The sensor subzone is used for alarm events from the sensor. rw Zone for sensor 3 This register holds the zone for sensor 3. The sensor zone is used for alarm events from the sensor. rw Subzone for sensor 3 This register holds the subzone for sensor 3. The sensor subzone is used for alarm events from the sensor. rw Zone for sensor 4 This register holds the zone for sensor 4. The sensor zone is used for alarm events from the sensor. rw Subzone for sensor 4 This register holds the subzone for sensor 4. The sensor subzone is used for alarm events from the sensor. rw Zone for sensor 5 This register holds the zone for sensor 5. The sensor zone is used for alarm events from the sensor. rw Subzone for sensor 5 This register holds the subzone for sensor 5. The sensor subzone is used for alarm events from the sensor. rw Sensor absolute low temperature for sensor 0 MSB Sensor absolute low temperature for sensor 0. Write any value to reset. A write will set the value of the msb/lsb pair to the highest possible temperature. The value is stored as a twos complement number as temperature * 100. rw Sensor absolute low temperature for sensor 0 LSB Sensor absolute low temperature for sensor 0. Write Write any value to reset. A write will set the value of the msb/lsb pair to the highest possible temperature. The value is stored as a twos complement number as temperature * 100. rw Sensor absolute low temperature for sensor 1 MSB Sensor absolute low temperature for sensor 1. Write Write any value to reset. A write will set the value of the msb/lsb pair to the highest possible temperature. The value is stored as a twos complement number as temperature * 100. rw Sensor absolute low temperature for sensor 1 LSB Sensor absolute low temperature for sensor 1. Write Write any value to reset. A write will set the value of the msb/lsb pair to the highest possible temperature. The value is stored as a twos complement number as temperature * 100. rw Sensor absolute low temperature for sensor 2 MSB Sensor absolute low temperature for sensor 2. Write Write any value to reset. A write will set the value of the msb/lsb pair to the highest possible temperature. The value is stored as a twos complement number as temperature * 100. rw Sensor absolute low temperature for sensor 2 LSB Sensor absolute low temperature for sensor 2. Write Write any value to reset. A write will set the value of the msb/lsb pair to the highest possible temperature. The value is stored as a twos complement number as temperature * 100. rw Sensor absolute low temperature for sensor 3 MSB Sensor absolute low temperature for sensor 3. Write Write any value to reset. A write will set the value of the msb/lsb pair to the highest possible temperature. The value is stored as a twos complement number as temperature * 100. rw Sensor absolute low temperature for sensor 3 LSB Sensor absolute low temperature for for sensor 3. Write Write any value to reset. A write will set the value of the msb/lsb pair to the highest possible temperature. The value is stored as a twos complement number as temperature * 100. rw Sensor absolute low temperature for sensor 4 MSB Sensor absolute low temperature for sensor 4. Write Write any value to reset. A write will set the value of the msb/lsb pair to the highest possible temperature. The value is stored as a twos complement number as temperature * 100. rw Sensor absolute low temperature for sensor 4 LSB Sensor absolute low temperature for sensor 4. Write Write any value to reset. A write will set the value of the msb/lsb pair to the highest possible temperature. The value is stored as a twos complement number as temperature * 100. rw Sensor absolute low temperature for sensor 5 MSB Sensor absolute low temperature for sensor 5. Write Write any value to reset. A write will set the value of the msb/lsb pair to the highest possible temperature. The value is stored as a twos complement number as temperature * 100. rw Sensor absolute low temperature for sensor 5 LSB Sensor absolute low temperature for sensor 5. Write Write any value to reset. A write will set the value of the msb/lsb pair to the highest possible temperature. The value is stored as a twos complement number as temperature * 100. rw Sensor absolute high temperature for sensor 0 MSB Sensor absolute high temperature for sensor 0. Write any value to reset. A write will set the value of the msb/lsb pair to the lowest possible temperature. The value is stored as a twos complement number as temperature * 100. rw Sensor absolute high temperature for sensor 0 LSB Sensor absolute high temperature for sensor 0. Write any value to reset. A write will set the value of the msb/lsb pair to the lowest possible temperature. The value is stored as a twos complement number as temperature * 100. rw Sensor absolute high temperature for sensor 1 MSB Sensor absolute high temperature for sensor 1. Write any value to reset. A write will set the value of the msb/lsb pair to the lowest possible temperature. The value is stored as a twos complement number as temperature * 100. rw Sensor absolute high temperature for sensor 1 LSB Sensor absolute high temperature for sensor 1. Write any value to reset. A write will set the value of the msb/lsb pair to the lowest possible temperature. The value is stored as a twos complement number as temperature * 100. rw Sensor absolute high temperature for sensor 2 MSB Sensor absolute high temperature for sensor 2. Write any value to reset. A write will set the value of the msb/lsb pair to the lowest possible temperature. The value is stored as a twos complement number as temperature * 100. rw Sensor absolute high temperature for sensor 2 LSB Sensor absolute high temperature for sensor 2. Write any value to reset. A write will set the value of the msb/lsb pair to the lowest possible temperature. The value is stored as a twos complement number as temperature * 100. rw Sensor absolute high temperature for sensor 3 MSB Sensor absolute high temperature for sensor 3. Write any value to reset. A write will set the value of the msb/lsb pair to the lowest possible temperature. The value is stored as a twos complement number as temperature * 100. rw Sensor absolute high temperature for sensor 3 LSB Sensor absolute high temperature for for sensor 3. Write any value to reset. A write will set the value of the msb/lsb pair to the lowest possible temperature. The value is stored as a twos complement number as temperature * 100. rw Sensor absolute high temperature for sensor 4 MSB Sensor absolute high temperature for sensor 4. Write any value to reset. A write will set the value of the msb/lsb pair to the lowest possible temperature. The value is stored as a twos complement number as temperature * 100. rw Sensor absolute high temperature for sensor 4 LSB Sensor absolute high temperature for sensor 4. Write any value to reset. A write will set the value of the msb/lsb pair to the lowest possible temperature. The value is stored as a twos complement number as temperature * 100. rw Sensor absolute high temperature for sensor 5 MSB Sensor absolute high temperature for sensor 5. Write any value to reset. A write will set the value of the msb/lsb pair to the lowest possible temperature. The value is stored as a twos complement number as temperature * 100. rw Sensor absolute high temperature for sensor 5 LSB Sensor absolute high temperature for sensor 5. Write any value to reset. A write will set the value of the msb/lsb pair to the lowest possible temperature. The value is stored as a twos complement number as temperature * 100. rw Hysteresis in degrees Celsius for sensor 0. Hysteresis in degrees Celsius for sensor 0 (default is 5 degrees). The value is stored as a twos complement number. rw Hysteresis in degrees Celsius for sensor 1. Hysteresis in degrees Celsius for sensor 1 (default is 5 degrees). The value is stored as a twos complement number. rw Hysteresis in degrees Celsius for sensor 2. Hysteresis in degrees Celsius for sensor 2 (default is 5 degrees). The value is stored as a twos complement number. rw Hysteresis in degrees Celsius for sensor 3. Hysteresis in degrees Celsius for sensor 3 (default is 5 degrees). The value is stored as a twos complement number. rw Hysteresis in degrees Celsius for sensor 4. Hysteresis in degrees Celsius for sensor 4 (default is 5 degrees). The value is stored as a twos complement number. rw Hysteresis in degrees Celsius for sensor 5. Hysteresis in degrees Celsius for sensor 5 (default is 5 degrees). The value is stored as a twos complement number. rw Index into calibration values. Index into array of calibration values. The index can have a value between 0-11 representing for odd values MSB of a calibration value and for even values LSB of calibration value. rw Calibration Sensor 0 MSB MSB of calibration value for sensor 0. Calibration Sensor 0 LSB LSB of calibration value for sensor 0. Calibration Sensor 1 MSB MSB of calibration value for sensor 1. Calibration Sensor 1 LSB LSB of calibration value for sensor 1. Calibration Sensor 2 MSB MSB of calibration value for sensor 2. Calibration Sensor 2 LSB LSB of calibration value for sensor 2. Calibration Sensor 3 MSB MSB of calibration value for sensor 3. Calibration Sensor 3 LSB LSB of calibration value for sensor 3. Calibration Sensor 4 MSB MSB of calibration value for sensor 4. Calibration Sensor 4 LSB LSB of calibration value for sensor 4. Calibration Sensor 5 MSB MSB of calibration value for sensor 5. Calibration Sensor 5 LSB LSB of calibration value for sensor 5. Array of calibration values. Array of calibration values. A total of twelve values is stored in this array forming calibration values in two's complement form for each sensor. The calibration values is stored Sensor 0 MSB, Sensor 0 LSB, Sensor 1 MSB, Sensor 1 LSB, Sensor 2 MSB, Sensor 2 LSB, Sensor 3 MSB, Sensor 3 LSB, Sensor 4 MSB, Sensor 4 LSB, Sensor 5 MSB, Sensor 5 LSB. MSB and LSB of the calibration values together form a two's complement 16-bit integer value as temperature * 100 that is added to the measured temperature before it is reported. rw Voltage calibration value MSB. For precise measurements the actual voltage level in the NTC circuit may need to be measured and set. This is the MSB of the calibrated voltage level * 10000 rw Voltage calibration value LSB. For precise measurements the actual voltage level in the NTC circuit may need to be measured and set. This is the LSB of the calibrated voltage level * 10000 rw Steinhart–Hart equation a coefficient byte 0 (MSB), sensor 0 Byte 0 (MSB) of Steinhart–Hart equation a coefficient for sensor 0 rw Steinhart–Hart equation a coefficient byte 1, sensor 0 Byte 1 of Steinhart–Hart equation a coefficient for sensor 0 rw Steinhart–Hart equation a coefficient byte 2, sensor 0 Byte 2 of Steinhart–Hart equation a coefficient for sensor 0 rw Steinhart–Hart equation a coefficient byte 3 (LSB), sensor 0 Byte 3 (LSB)of Steinhart–Hart equation a coefficient for sensor 0 rw Steinhart–Hart equation b coefficient byte 0 (MSB), sensor 0 Byte 0 (MSB) of Steinhart–Hart equation b coefficient for sensor 0 rw Steinhart–Hart equation b coefficient byte 1, sensor 0 Byte 1 of Steinhart–Hart equation b coefficient for sensor 0 rw Steinhart–Hart equation b coefficient byte 2, sensor 0 Byte 2 of Steinhart–Hart equation b coefficient for sensor 0 rw Steinhart–Hart equation b coefficient byte 3 (LSB), sensor 0 Byte 3 (LSB)of Steinhart–Hart equation b coefficient for sensor 0 rw Steinhart–Hart equation c coefficient byte 0 (MSB), sensor 0 Byte 0 (MSB) of Steinhart–Hart equation c coefficient for sensor 0 rw Steinhart–Hart equation c coefficient byte 1, sensor 0 Byte 1 of Steinhart–Hart equation c coefficient for sensor 0 rw Steinhart–Hart equation c coefficient byte 2, sensor 0 Byte 2 of Steinhart–Hart equation c coefficient for sensor 0 rw Steinhart–Hart equation c coefficient byte 3 (LSB), sensor 0 Byte 3 (LSB)of Steinhart–Hart equation c coefficient for sensor 0 rw Steinhart–Hart equation a coefficient byte 0 (MSB), sensor 1 Byte 0 (MSB) of Steinhart–Hart equation a coefficient for sensor 1 rw Steinhart–Hart equation a coefficient byte 1, sensor 1 Byte 1 of Steinhart–Hart equation a coefficient for sensor 1 rw Steinhart–Hart equation a coefficient byte 2, sensor 1 Byte 2 of Steinhart–Hart equation a coefficient for sensor 1 rw Steinhart–Hart equation a coefficient byte 3 (LSB), sensor 1 Byte 3 (LSB)of Steinhart–Hart equation a coefficient for sensor 1 rw Steinhart–Hart equation b coefficient byte 0 (MSB), sensor 1 Byte 0 (MSB) of Steinhart–Hart equation b coefficient for sensor 1 rw Steinhart–Hart equation b coefficient byte 1, sensor 1 Byte 1 of Steinhart–Hart equation b coefficient for sensor 1 rw Steinhart–Hart equation b coefficient byte 2, sensor 1 Byte 2 of Steinhart–Hart equation b coefficient for sensor 1 rw Steinhart–Hart equation b coefficient byte 3 (LSB), sensor 1 Byte 3 (LSB)of Steinhart–Hart equation b coefficient for sensor 1 rw Steinhart–Hart equation c coefficient byte 0 (MSB), sensor 1 Byte 0 (MSB) of Steinhart–Hart equation c coefficient for sensor 1 rw Steinhart–Hart equation c coefficient byte 1, sensor 1 Byte 1 of Steinhart–Hart equation c coefficient for sensor 1 rw Steinhart–Hart equation c coefficient byte 2, sensor 1 Byte 2 of Steinhart–Hart equation c coefficient for sensor 1 rw Steinhart–Hart equation c coefficient byte 3 (LSB), sensor 1 Byte 3 (LSB)of Steinhart–Hart equation c coefficient for sensor 1 rw Steinhart–Hart equation a coefficient byte 0 (MSB), sensor 2 Byte 0 (MSB) of Steinhart–Hart equation a coefficient for sensor 2 rw Steinhart–Hart equation a coefficient byte 1, sensor 2 Byte 1 of Steinhart–Hart equation a coefficient for sensor 2 rw Steinhart–Hart equation a coefficient byte 2, sensor 2 Byte 2 of Steinhart–Hart equation a coefficient for sensor 2 rw Steinhart–Hart equation a coefficient byte 3 (LSB), sensor 2 Byte 3 (LSB)of Steinhart–Hart equation a coefficient for sensor 2 rw Steinhart–Hart equation b coefficient byte 0 (MSB), sensor 2 Byte 0 (MSB) of Steinhart–Hart equation b coefficient for sensor 2 rw Steinhart–Hart equation b coefficient byte 1, sensor 2 Byte 1 of Steinhart–Hart equation b coefficient for sensor 2 rw Steinhart–Hart equation b coefficient byte 2, sensor 2 Byte 2 of Steinhart–Hart equation b coefficient for sensor 2 rw Steinhart–Hart equation b coefficient byte 3 (LSB), sensor 2 Byte 3 (LSB)of Steinhart–Hart equation b coefficient for sensor 2 rw Steinhart–Hart equation c coefficient byte 0 (MSB), sensor 2 Byte 0 (MSB) of Steinhart–Hart equation c coefficient for sensor 2 rw Steinhart–Hart equation c coefficient byte 1, sensor 2 Byte 1 of Steinhart–Hart equation c coefficient for sensor 2 rw Steinhart–Hart equation c coefficient byte 2, sensor 2 Byte 2 of Steinhart–Hart equation c coefficient for sensor 2 rw Steinhart–Hart equation c coefficient byte 3 (LSB), sensor 2 Byte 3 (LSB)of Steinhart–Hart equation c coefficient for sensor 2 rw Steinhart–Hart equation a coefficient byte 0 (MSB), sensor 3 Byte 0 (MSB) of Steinhart–Hart equation a coefficient for sensor 3 rw Steinhart–Hart equation a coefficient byte 1, sensor 3 Byte 1 of Steinhart–Hart equation a coefficient for sensor 3 rw Steinhart–Hart equation a coefficient byte 2, sensor 3 Byte 2 of Steinhart–Hart equation a coefficient for sensor 3 rw Steinhart–Hart equation a coefficient byte 3 (LSB), sensor 3 Byte 3 (LSB)of Steinhart–Hart equation a coefficient for sensor 3 rw Steinhart–Hart equation b coefficient byte 0 (MSB), sensor 3 Byte 0 (MSB) of Steinhart–Hart equation b coefficient for sensor 3 rw Steinhart–Hart equation b coefficient byte 1, sensor 3 Byte 1 of Steinhart–Hart equation b coefficient for sensor 3 rw Steinhart–Hart equation b coefficient byte 2, sensor 3 Byte 2 of Steinhart–Hart equation b coefficient for sensor 3 rw Steinhart–Hart equation b coefficient byte 3 (LSB), sensor 3 Byte 3 (LSB)of Steinhart–Hart equation b coefficient for sensor 3 rw Steinhart–Hart equation c coefficient byte 0 (MSB), sensor 3 Byte 0 (MSB) of Steinhart–Hart equation c coefficient for sensor 3 rw Steinhart–Hart equation c coefficient byte 1, sensor 3 Byte 1 of Steinhart–Hart equation c coefficient for sensor 3 rw Steinhart–Hart equation c coefficient byte 2, sensor 3 Byte 2 of Steinhart–Hart equation c coefficient for sensor 3 rw Steinhart–Hart equation c coefficient byte 3 (LSB), sensor 3 Byte 3 (LSB)of Steinhart–Hart equation c coefficient for sensor 3 rw Steinhart–Hart equation a coefficient byte 0 (MSB), sensor 4 Byte 0 (MSB) of Steinhart–Hart equation a coefficient for sensor 4 rw Steinhart–Hart equation a coefficient byte 1, sensor 4 Byte 1 of Steinhart–Hart equation a coefficient for sensor 4 rw Steinhart–Hart equation a coefficient byte 2, sensor 4 Byte 2 of Steinhart–Hart equation a coefficient for sensor 4 rw Steinhart–Hart equation a coefficient byte 3 (LSB), sensor 4 Byte 3 (LSB)of Steinhart–Hart equation a coefficient for sensor 4 rw Steinhart–Hart equation b coefficient byte 0 (MSB), sensor 4 Byte 0 (MSB) of Steinhart–Hart equation b coefficient for sensor 4 rw Steinhart–Hart equation b coefficient byte 1, sensor 4 Byte 1 of Steinhart–Hart equation b coefficient for sensor 4 rw Steinhart–Hart equation b coefficient byte 2, sensor 4 Byte 2 of Steinhart–Hart equation b coefficient for sensor 4 rw Steinhart–Hart equation b coefficient byte 3 (LSB), sensor 4 Byte 3 (LSB)of Steinhart–Hart equation b coefficient for sensor 4 rw Steinhart–Hart equation c coefficient byte 0 (MSB), sensor 4 Byte 0 (MSB) of Steinhart–Hart equation c coefficient for sensor 4 rw Steinhart–Hart equation c coefficient byte 1, sensor 4 Byte 1 of Steinhart–Hart equation c coefficient for sensor 4 rw Steinhart–Hart equation c coefficient byte 2, sensor 4 Byte 2 of Steinhart–Hart equation c coefficient for sensor 4 rw Steinhart–Hart equation c coefficient byte 3 (LSB), sensor 4 Byte 3 (LSB)of Steinhart–Hart equation c coefficient for sensor 4 rw Steinhart–Hart equation a coefficient byte 0 (MSB), sensor 5 Byte 0 (MSB) of Steinhart–Hart equation a coefficient for sensor 5 rw Steinhart–Hart equation a coefficient byte 1, sensor 5 Byte 1 of Steinhart–Hart equation a coefficient for sensor 5 rw Steinhart–Hart equation a coefficient byte 2, sensor 5 Byte 2 of Steinhart–Hart equation a coefficient for sensor 5 rw Steinhart–Hart equation a coefficient byte 3 (LSB), sensor 5 Byte 3 (LSB)of Steinhart–Hart equation a coefficient for sensor 5 rw Steinhart–Hart equation b coefficient byte 0 (MSB), sensor 5 Byte 0 (MSB) of Steinhart–Hart equation b coefficient for sensor 5 rw Steinhart–Hart equation b coefficient byte 1, sensor 5 Byte 1 of Steinhart–Hart equation b coefficient for sensor 5 rw Steinhart–Hart equation b coefficient byte 2, sensor 5 Byte 2 of Steinhart–Hart equation b coefficient for sensor 5 rw Steinhart–Hart equation b coefficient byte 3 (LSB), sensor 5 Byte 3 (LSB)of Steinhart–Hart equation b coefficient for sensor 5 rw Steinhart–Hart equation c coefficient byte 0 (MSB), sensor 5 Byte 0 (MSB) of Steinhart–Hart equation c coefficient for sensor 5 rw Steinhart–Hart equation c coefficient byte 1, sensor 5 Byte 1 of Steinhart–Hart equation c coefficient for sensor 5 rw Steinhart–Hart equation c coefficient byte 2, sensor 5 Byte 2 of Steinhart–Hart equation c coefficient for sensor 5 rw Steinhart–Hart equation c coefficient byte 3 (LSB), sensor 5 Byte 3 (LSB)of Steinhart–Hart equation c coefficient for sensor 5 rw // Raw A/D values Raw A/D value for Sensor 0 (MSB) Raw A/D value for Sensor 0 (MSB). r Raw A/D value for Sensor 0 (LSB) Raw A/D value for Sensor 0 (LSB). r Raw A/D value for Sensor 1 (MSB) Raw A/D value for Sensor 1 (MSB). r Raw A/D value for Sensor 1 (LSB) Raw A/D value for Sensor 1 (LSB). r Raw A/D value for Sensor 2 (MSB) Raw A/D value for Sensor 0 (MSB). r Raw A/D value for Sensor 2 (LSB) Raw A/D value for Sensor 0 (LSB). r Raw A/D value for Sensor 3 (MSB) Raw A/D value for Sensor 0 (MSB). r Raw A/D value for Sensor 3 (LSB) Raw A/D value for Sensor 0 (LSB). r Raw A/D value for Sensor 4 (MSB) Raw A/D value for Sensor 4 (MSB). r Raw A/D value for Sensor 4 (LSB) Raw A/D value for Sensor 4 (LSB). r Raw A/D value for Sensor 5 (MSB) Raw A/D value for Sensor 5 (MSB). r Raw A/D value for Sensor 5 (LSB) Raw A/D value for Sensor 5 (LSB). r Temperature sensor 0 Temperature for sensor 0 (on-board sensor).\n The read temperature is actual temperature * 100 and should be divided by 100 to get the actual temperature. r Temperature sensor 1 Temperature for sensor 1.\n The read temperature is actual temperature * 100 and should be divided by 100 to get the actual temperature. r Temperature sensor 2 Temperature for sensor 2.\n The read temperature is actual temperature * 100 and should be divided by 100 to get the actual temperature. r Temperature sensor 3 Temperature for sensor 3.\n The read temperature is actual temperature * 100 and should be divided by 100 to get the actual temperature. r Temperature sensor 4 Temperature for sensor 4.\n The read temperature is actual temperature * 100 and should be divided by 100 to get the actual temperature. r Temperature sensor 5 Temperature for sensor 5.\n The read temperature is actual temperature * 100 and should be divided by 100 to get the actual temperature. r B constant for sensor 0 NTC Thermistor B constant for sensor 0.\n rw B constant for sensor 1 NTC Thermistor B constant for sensor 1.\n rw B constant for sensor 2 NTC Thermistor B constant for sensor 2.\n rw B constant for sensor 3 NTC Thermistor B constant for sensor 3.\n rw B constant for sensor 4 NTC Thermistor B constant for sensor 4.\n rw B constant for sensor 5 NTC Thermistor B constant for sensor 5.\n rw Low alarm for sensor 0 Low alarm setpoint for sensor 0.\n rw Low alarm for sensor 1 Low alarm setpoint for sensor 1.\n rw Low alarm for sensor 2 Low alarm setpoint for sensor 2.\n rw Low alarm for sensor 3 Low alarm setpoint for sensor 3.\n rw Low alarm for sensor 4 Low alarm setpoint for sensor 4.\n rw Low alarm for sensor 5 Low alarm setpoint for sensor 5.\n rw High alarm for sensor 0 High alarm setpoint for sensor 0.\n rw High alarm for sensor 1 High alarm setpoint for sensor 1.\n rw High alarm for sensor 2 High alarm setpoint for sensor 2.\n rw High alarm for sensor 3 High alarm setpoint for sensor 3.\n rw High alarm for sensor 4 High alarm setpoint for sensor 4.\n rw High alarm for sensor 5 High alarm setpoint for sensor 5.\n rw Absolut high temperatur for sensor 0 Absolut high temperatur for sensor 0.\n This is the highest temperature measured for this sensor. The value can be rested by writing any value to it. rw Absolut high temperatur for sensor 1 Absolut high temperatur for sensor 1.\n This is the highest temperature measured for this sensor. The value can be rested by writing any value to it. rw Absolut high temperatur for sensor 2 Absolut high temperatur for sensor 2.\n This is the highest temperature measured for this sensor. The value can be rested by writing any value to it. rw Absolut high temperatur for sensor 3 Absolut high temperatur for sensor 3.\n This is the highest temperature measured for this sensor. The value can be rested by writing any value to it. rw Absolut high temperatur for sensor 4 Absolut high temperatur for sensor 4.\n This is the highest temperature measured for this sensor. The value can be rested by writing any value to it. rw Absolut high temperatur for sensor 5 Absolut high temperatur for sensor 5.\n This is the highest temperature measured for this sensor. The value can be rested by writing any value to it. rw Absolut high temperatur for sensor 0 Absolut high temperatur for sensor 0.\n This is the highest temperature measured for this sensor. The value can be rested by writing any value to it. rw Absolut high temperatur for sensor 1 Absolut high temperatur for sensor 1.\n This is the highest temperature measured for this sensor. The value can be rested by writing any value to it. rw Absolut high temperatur for sensor 2 Absolut high temperatur for sensor 2.\n This is the highest temperature measured for this sensor. The value can be rested by writing any value to it. rw Absolut high temperatur for sensor 3 Absolut high temperatur for sensor 3.\n This is the highest temperature measured for this sensor. The value can be rested by writing any value to it. rw Absolut high temperatur for sensor 4 Absolut high temperatur for sensor 4.\n This is the highest temperature measured for this sensor. The value can be rested by writing any value to it. rw Absolut high temperatur for sensor 5 Absolut high temperatur for sensor 5.\n This is the highest temperature measured for this sensor. The value can be rested by writing any value to it. rw Calibration values for sensors This array holds a calibration value for each sensor. This value is added to the value read form the sensor before it is presented. The value entered should be temperature * 100. rw Calibration voltage value For precise measurements the actual voltage level in the NTC circuit may need to be measured and set. Here the calibrated voltage level * 10000 is set. Default is 50000 representing 5V. rw Coefficient a for sensor 0 Steinhart–Hart equation coefficient a for sensor 0 rw Coefficient b for sensor 0 Steinhart–Hart equation coefficient b for sensor 0 rw Coefficient c for sensor 0 Steinhart–Hart equation coefficient c for sensor 0 rw Coefficient a for sensor 1 Steinhart–Hart equation coefficient a for sensor 1 rw Coefficient b for sensor 1 Steinhart–Hart equation coefficient b for sensor 1 rw Coefficient c for sensor 1 Steinhart–Hart equation coefficient c for sensor 1 rw Coefficient a for sensor 2 Steinhart–Hart equation coefficient a for sensor 2 rw Coefficient b for sensor 2 Steinhart–Hart equation coefficient b for sensor 2 rw Coefficient c for sensor 2 Steinhart–Hart equation coefficient c for sensor 2 rw Coefficient a for sensor 3 Steinhart–Hart equation coefficient a for sensor 3 rw Coefficient b for sensor 3 Steinhart–Hart equation coefficient b for sensor 3 rw Coefficient c for sensor 3 Steinhart–Hart equation coefficient c for sensor 3 rw Coefficient a for sensor 4 Steinhart–Hart equation coefficient a for sensor 4 rw Coefficient b for sensor 4 Steinhart–Hart equation coefficient b for sensor 4 rw Coefficient c for sensor 4 Steinhart–Hart equation coefficient c for sensor 4 rw Coefficient a for sensor 5 Steinhart–Hart equation coefficient a for sensor 5 rw Coefficient b for sensor 5 Steinhart–Hart equation coefficient b for sensor 5 rw Coefficient c for sensor 5 Steinhart–Hart equation coefficient c for sensor 5 rw Raw ADC value for sensor 0 Raw ADC value for sensor 0 r Raw ADC value for sensor 1 Raw ADC value for sensor 1 r Raw ADC value for sensor 2 Raw ADC value for sensor 2 r Raw ADC value for sensor 3 Raw ADC value for sensor 3 r Raw ADC value for sensor 4 Raw ADC value for sensor 4 r Raw ADC value for sensor 5 Raw ADC value for sensor 5 r Reserved Reserved. Reserved Reserved. Reserved Reserved. Reserved Reserved. Reserved Reserved. Reserved Reserved. High alarm One or more of the sensors havs detected a high alarm condition. Write the register to reset the alarmflags. Low alarm One or more of the sensors havs detected a low alarm condition. Write the register to reset the alarmflags. Temperature measurement Event A periodic temperature measurement is sent out using this event. Can also be sent out after a CONTROL.SYNC event has been received by the module. 4 Format This is the format for the measurement. It will tell if the measurement is in the Kelvin(0b00)/Celsius(0b01)/Fahrenheit unit(0b10) (bit 3,4). That the measurement value is a normalized integer (bit 5,6,7 = 0b100) and from which sensor it is from (bits 0,1,2). Decimal point shift This byte tells how many steps left (for a positive number) or right (for a negative number) the decimal point should be shifted to get the correct temperature. Temperature MSB This is the most significant byte of the temperature. Temperature LSB This is the least significant byte of the temperature. Alarm Event One of the temperature sensors have gone below the low alarm point or above the high alarm point. 4 Index Index = 0 for sensor 0, 1 for sensor 1 ans so on. Zone This is the zone the sensor belongs to. Subzone This is the subzone the sensor belongs to. TurnOn Event One of the temperature sensors have gone below the low alarm point or above the high alarm point and it has been configured to send TurnOn/TurnOff events instead of alarm events. 4 Index Index = 0 for sensor 0, 1 for sensor 1 ans so on. Zone This is the zone the sensor belongs to. Subzone This is the subzone the sensor belongs to. TurnOff Event One of the temperature sensors have gone below the low alarm point or above the high alarm point and it has been configured to send TurnOn/TurnOff events instead of alarm events. 4 Index Index = 0 for sensor 0, 1 for sensor 1 ans so on. Zone This is the zone the sensor belongs to. Subzone This is the subzone the sensor belongs to. Sync Event The module send out temperature event(s) when a sync is received for the corresponding zone/subzone. 4 Index This has no meaning for the module. Zone This is the zone the sensor belongs to which should send out a temperature event. Subzone This is the subzone the sensor belongs to which should send out a temperature even t.