1 // ********************************************************************* 2 // IQRF standards header file * 3 // ********************************************************************* 4 // Copyright (c) MICRORISC s.r.o. 5 // 6 // File: $RCSfile: IQRFstandard.h,v $ 7 // Version: $Revision: 1.95 $ 8 // Date: $Date: 2022/04/05 15:31:47 $ 9 // 10 // Revision history: 11 // 2022/02/24 Release for DPA 4.17 12 // 2021/08/20 Release for DPA 4.16 13 // 2020/09/03 Release for DPA 4.15 14 // 2020/04/03 Release for DPA 4.14 15 // 2020/02/27 Release for DPA 4.13 16 // 2020/01/09 Release for DPA 4.12 17 // 2019/12/11 Release for DPA 4.11 18 // 2019/10/09 Release for DPA 4.10 19 // 2019/06/12 Release for DPA 4.03 20 // 2019/06/03 Release for DPA 4.02 21 // 2019/03/07 Release for DPA 4.01 22 // 2019/01/20 Release for DPA 4.00 23 // 2018/10/25 Release for DPA 3.03 24 // 2017/11/16 Release for DPA 3.02 25 // 2017/08/14 Release for DPA 3.01 26 // 27 // ********************************************************************* 28 29 // Online DPA documentation https://doc.iqrf.org/DpaTechGuide/ 30 // IQRF Standards documentation https://doc.iqrf.org/ 31 32 #ifndef _IQRFSTD_HEADER_ 33 #define _IQRFSTD_HEADER_ 34 35 //############################################################################################ 36 37 // Enumerate command valid for standards, when applicable 38 #define PCMD_STD_ENUMERATE 0x3E 39 40 #define FRC_STD_FRC_NO_VALUE 0 41 #define FRC_STD_FRC_NOT_IMPLEMENTED_VALUE 1 42 #define FRC_STD_FRC_ERROR_VALUE 2 43 #define FRC_STD_FRC_RESERVED 3 44 45 // ------------------------------------------------------------------------------------------- 46 // IQRF Sensors standard 47 // ------------------------------------------------------------------------------------------- 48 // IQRF Sensors standard peripheral 49 #define PNUM_STD_SENSORS 0x5E 50 // IQRF Sensors standard peripheral type 51 #define PERIPHERAL_TYPE_STD_SENSORS 0x5E 52 // Current version 53 #define STD_SENSORS_VERSION 15 54 55 // IQRF Sensors standard peripheral - read sensor values command 56 #define PCMD_STD_SENSORS_READ_VALUES 0x00 57 // IQRF Sensors standard peripheral - read sensor types and values command 58 #define PCMD_STD_SENSORS_READ_TYPES_AND_VALUES 0x01 59 60 // Beaming sensor command 61 #define PCMD_STD_SENSORS_READ_TYPES_AND_FRC_VALUES 0x7B 62 63 // IQRF Sensors standard peripheral - sensor types 64 // 2 bytes 65 #define STD_SENSOR_TYPE_TEMPERATURE 0x01 66 #define STD_SENSOR_TYPE_CO2 0x02 67 #define STD_SENSOR_TYPE_VOC 0x03 68 #define STD_SENSOR_TYPE_EXTRA_LOW_VOLTAGE 0x04 69 #define STD_SENSOR_TYPE_EARTHS_MAGNETIC_FIELD 0x05 70 #define STD_SENSOR_TYPE_LOW_VOLTAGE 0x06 71 #define STD_SENSOR_TYPE_CURRENT 0x07 72 #define STD_SENSOR_TYPE_POWER 0x08 73 #define STD_SENSOR_TYPE_MAINS_FREQUENCY 0x09 74 #define STD_SENSOR_TYPE_TIMESPAN 0x0A 75 #define STD_SENSOR_TYPE_ILLUMINANCE 0x0B 76 #define STD_SENSOR_TYPE_NO2 0x0C 77 #define STD_SENSOR_TYPE_SO2 0x0D 78 #define STD_SENSOR_TYPE_CO 0x0E 79 #define STD_SENSOR_TYPE_O3 0x0F 80 #define STD_SENSOR_TYPE_ATMOSPHERIC_PRESSURE 0x10 81 #define STD_SENSOR_TYPE_COLOR_TEMPERATURE 0x11 82 #define STD_SENSOR_TYPE_PARTICULATES_PM25 0x12 83 #define STD_SENSOR_TYPE_SOUND_PRESSURE_LEVEL 0x13 84 #define STD_SENSOR_TYPE_ALTITUDE 0x14 85 #define STD_SENSOR_TYPE_ACCELERATION 0x15 86 #define STD_SENSOR_TYPE_NH3 0x16 87 #define STD_SENSOR_TYPE_METHANE 0x17 88 #define STD_SENSOR_TYPE_SHORT_LENGTH 0x18 89 #define STD_SENSOR_TYPE_PARTICULATES_PM1 0x19 90 #define STD_SENSOR_TYPE_PARTICULATES_PM4 0x1A 91 #define STD_SENSOR_TYPE_PARTICULATES_PM10 0x1B 92 #define STD_SENSOR_TYPE_TVOC 0x1C 93 #define STD_SENSOR_TYPE_NOX 0x1D 94 95 // 1 byte 96 #define STD_SENSOR_TYPE_HUMIDITY 0x80 97 #define STD_SENSOR_TYPE_BINARYDATA7 0x81 98 #define STD_SENSOR_TYPE_POWER_FACTOR 0x82 99 #define STD_SENSOR_TYPE_UV_INDEX 0x83 100 #define STD_SENSOR_TYPE_PH 0x84 101 #define STD_SENSOR_TYPE_RSSI 0x85 102 103 // 4 bytes 104 #define STD_SENSOR_TYPE_BINARYDATA30 0xA0 105 #define STD_SENSOR_TYPE_CONSUMPTION 0xA1 106 #define STD_SENSOR_TYPE_DATETIME 0xA2 107 #define STD_SENSOR_TYPE_TIMESPAN_LONG 0xA3 108 #define STD_SENSOR_TYPE_LATITUDE 0xA4 109 #define STD_SENSOR_TYPE_LONGITUDE 0xA5 110 #define STD_SENSOR_TYPE_TEMPERATURE_FLOAT 0xA6 111 112 // Computes constant (otherwise not optimal) quantity size 113 #define STD_SENSOR_TYPE_SIZE(q) ( ( ( (q) & 0x80 ) == 0x00 ) * 2 + ( ( (q) & 0xE0 ) == 0x80 ) * 1 + ( ( (q) & 0xE0 ) == 0xA0 ) * 4 + ( ( q & 0xC0 ) == 0xC0 || (q) == 0x00 ) * 0xFfFfFfFf /* hopefully causes overflow to signal error */ ) 114 115 // Multiple bytes 116 #define STD_SENSOR_TYPE_DATA_BLOCK 0xC0 117 118 // IQRF Sensors standard peripheral - FRC commands 119 #define FRC_STD_SENSORS_BIT 0x10 120 #define FRC_STD_SENSORS_1B 0x90 121 #define FRC_STD_SENSORS_2B 0xE0 122 #define FRC_STD_SENSORS_4B 0xF9 123 124 // Used at Local FRC by Controller to send quantities' values 125 #define FRC_STD_SENSORS_CTRL_CMD 0x11 126 127 typedef struct 128 { 129 // Equals to PNUM_STD_SENSORS 130 uns8 Header; 131 // Sensor type STD_SENSOR_TYPE_??? 132 uns8 SensorType; 133 // Sensor index (bits 0-4) + optional extended data (bits 5-7) 134 uns8 SensorIndex; 135 // Options 136 // bit 0 : sleep 137 // bits 1-7: reserved 138 uns8 Options; 139 // Optional sleep parameters 140 TPerOSSleep_Request SleepParameters; 141 } STRUCTATTR TPerStdSensorFrc; 142 143 144 #if defined( __CC5X__ ) && !defined( CC5XnotDPA ) 145 // The above structure located at memory 146 TPerStdSensorFrc PerStdSensorFrc @ DataOutBeforeResponseFRC; 147 #endif // #ifdef __CC5X__ 148 149 // Structure for PCMD_STD_SENSORS_READ[_TYPES_AND]_VALUES 150 typedef struct 151 { 152 uns8 Bitmap[4]; 153 uns8 WrittenData[DPA_MAX_DATA_LENGTH - 4]; 154 } STRUCTATTR TPerStdSensorRead_Request; 155 156 // IQRF Sensors standard peripheral - error values 157 // 2 bytes 158 #define STD_SENSOR_TYPE_TEMPERATURE_SET_ERROR(v) do { v = 0x8000; } while( 0 ) 159 #define STD_SENSOR_TYPE_TEMPERATURE_IS_ERROR(v) ( (v) == 0x8000 ) 160 161 #define STD_SENSOR_TYPE_CO2_SET_ERROR(v) do { v = 0x8000; } while( 0 ) 162 #define STD_SENSOR_TYPE_CO2_IS_ERROR(v) ( (v) == 0x8000 ) 163 164 #define STD_SENSOR_TYPE_VOC_SET_ERROR(v) do { v = 0x8000; } while( 0 ) 165 #define STD_SENSOR_TYPE_VOC_IS_ERROR(v) ( (v) == 0x8000 ) 166 167 #define STD_SENSOR_TYPE_EXTRA_LOW_VOLTAGE_SET_ERROR(v) do { v = 0x8000; } while( 0 ) 168 #define STD_SENSOR_TYPE_EXTRA_LOW_VOLTAGE_IS_ERROR(v) ( (v) == 0x8000 ) 169 170 #define STD_SENSOR_TYPE_EARTHS_MAGNETIC_FIELD_SET_ERROR(v) do { v = 0x8000; } while( 0 ) 171 #define STD_SENSOR_TYPE_EARTHS_MAGNETIC_FIELD_IS_ERROR(v) ( (v) == 0x8000 ) 172 173 #define STD_SENSOR_TYPE_LOW_VOLTAGE_SET_ERROR(v) do { v = 0x8000; } while( 0 ) 174 #define STD_SENSOR_TYPE_LOW_VOLTAGE_IS_ERROR(v) ( (v) == 0x8000 ) 175 176 #define STD_SENSOR_TYPE_CURRENT_SET_ERROR(v) do { v = 0x8000; } while( 0 ) 177 #define STD_SENSOR_TYPE_CURRENT_IS_ERROR(v) ( (v) == 0x8000 ) 178 179 #define STD_SENSOR_TYPE_POWER_SET_ERROR(v) do { v = 0xFfFf; } while( 0 ) 180 #define STD_SENSOR_TYPE_POWER_IS_ERROR(v) ( (v) == 0xFfFf ) 181 182 #define STD_SENSOR_TYPE_MAINS_FREQUENCY_SET_ERROR(v) do { v = 0xFfFf; } while( 0 ) 183 #define STD_SENSOR_TYPE_MAINS_FREQUENCY_IS_ERROR(v) ( (v) == 0xFfFf ) 184 185 #define STD_SENSOR_TYPE_TIMESPAN_SET_ERROR(v) do { v = 0xFfFf; } while( 0 ) 186 #define STD_SENSOR_TYPE_TIMESPAN_IS_ERROR(v) ( (v) == 0xFfFf ) 187 188 #define STD_SENSOR_TYPE_ILLUMINANCE_SET_ERROR(v) do { v = 0xFfFf; } while( 0 ) 189 #define STD_SENSOR_TYPE_ILLUMINANCE_IS_ERROR(v) ( (v) == 0xFfFf ) 190 191 #define STD_SENSOR_TYPE_NO2_SET_ERROR(v) do { v = 0xFfFf; } while( 0 ) 192 #define STD_SENSOR_TYPE_NO2_IS_ERROR(v) ( (v) == 0xFfFf ) 193 194 #define STD_SENSOR_TYPE_SO2_SET_ERROR(v) do { v = 0xFfFf; } while( 0 ) 195 #define STD_SENSOR_TYPE_SO2_IS_ERROR(v) ( (v) == 0xFfFf ) 196 197 #define STD_SENSOR_TYPE_CO_SET_ERROR(v) do { v = 0xFfFf; } while( 0 ) 198 #define STD_SENSOR_TYPE_CO_IS_ERROR(v) ( (v) == 0xFfFf ) 199 200 #define STD_SENSOR_TYPE_O3_SET_ERROR(v) do { v = 0xFfFf; } while( 0 ) 201 #define STD_SENSOR_TYPE_O3_IS_ERROR(v) ( (v) == 0xFfFf ) 202 203 #define STD_SENSOR_TYPE_ATMOSPHERIC_PRESSURE_SET_ERROR(v) do { v = 0xFfFf; } while( 0 ) 204 #define STD_SENSOR_TYPE_ATMOSPHERIC_PRESSURE_IS_ERROR(v) ( (v) == 0xFfFf ) 205 206 #define STD_SENSOR_TYPE_COLOR_TEMPERATURE_SET_ERROR(v) do { v = 0x8000; } while( 0 ) 207 #define STD_SENSOR_TYPE_COLOR_TEMPERATURE_IS_ERROR(v) ( (v) == 0x8000 ) 208 209 #define STD_SENSOR_TYPE_PARTICULATES_PM25_SET_ERROR(v) do { v = 0x8000; } while( 0 ) 210 #define STD_SENSOR_TYPE_PARTICULATES_PM25_IS_ERROR(v) ( (v) == 0x8000 ) 211 212 #define STD_SENSOR_TYPE_SOUND_PRESSURE_LEVEL_SET_ERROR(v) do { v = 0x8000; } while( 0 ) 213 #define STD_SENSOR_TYPE_SOUND_PRESSURE_LEVEL_IS_ERROR(v) ( (v) == 0x8000 ) 214 215 #define STD_SENSOR_TYPE_ALTITUDE_SET_ERROR(v) do { v = 0xFfFf; } while( 0 ) 216 #define STD_SENSOR_TYPE_ALTITUDE_IS_ERROR(v) ( (v) == 0xFfFf ) 217 218 #define STD_SENSOR_TYPE_ACCELERATION_SET_ERROR(v) do { v = 0x8000; } while( 0 ) 219 #define STD_SENSOR_TYPE_ACCELERATION_IS_ERROR(v) ( (v) == 0x8000 ) 220 221 #define STD_SENSOR_TYPE_NH3_SET_ERROR(v) do { v = 0xFfFf; } while( 0 ) 222 #define STD_SENSOR_TYPE_NH3_IS_ERROR(v) ( (v) == 0xFfFf ) 223 224 #define STD_SENSOR_TYPE_METHANE_SET_ERROR(v) do { v = 0xFfFf; } while( 0 ) 225 #define STD_SENSOR_TYPE_METHANE_IS_ERROR(v) ( (v) == 0xFfFf ) 226 227 #define STD_SENSOR_TYPE_SHORT_LENGTH_SET_ERROR(v) do { v = 0xFfFf; } while( 0 ) 228 #define STD_SENSOR_TYPE_SHORT_LENGTH_IS_ERROR(v) ( (v) == 0xFfFf ) 229 230 #define STD_SENSOR_TYPE_PARTICULATES_PM1_SET_ERROR(v) do { v = 0x8000; } while( 0 ) 231 #define STD_SENSOR_TYPE_PARTICULATES_PM1_IS_ERROR(v) ( (v) == 0x8000 ) 232 233 #define STD_SENSOR_TYPE_PARTICULATES_PM4_SET_ERROR(v) do { v = 0x8000; } while( 0 ) 234 #define STD_SENSOR_TYPE_PARTICULATES_PM4_IS_ERROR(v) ( (v) == 0x8000 ) 235 236 #define STD_SENSOR_TYPE_PARTICULATES_PM10_SET_ERROR(v) do { v = 0x8000; } while( 0 ) 237 #define STD_SENSOR_TYPE_PARTICULATES_PM10_IS_ERROR(v) ( (v) == 0x8000 ) 238 239 #define STD_SENSOR_TYPE_TVOC_SET_ERROR(v) do { v = 0xFfFf; } while( 0 ) 240 #define STD_SENSOR_TYPE_TVOC_IS_ERROR(v) ( (v) == 0xFfFf ) 241 242 #define STD_SENSOR_TYPE_NOX_SET_ERROR(v) do { v = 0xFfFf; } while( 0 ) 243 #define STD_SENSOR_TYPE_NOX_IS_ERROR(v) ( (v) == 0xFfFf ) 244 245 // 1 byte 246 #define STD_SENSOR_TYPE_HUMIDITY_SET_ERROR(v) do { v = 0xEE; } while( 0 ) 247 #define STD_SENSOR_TYPE_HUMIDITY_IS_ERROR(v) ( (v) == 0xEE ) 248 249 #define STD_SENSOR_TYPE_BINARYDATA7_SET_ERROR(v) do { v = 0x80; } while( 0 ) 250 #define STD_SENSOR_TYPE_BINARYDATA7_IS_ERROR(v) ( ( (v) & 0x80 ) != 0x00 ) 251 252 #define STD_SENSOR_TYPE_POWER_FACTOR_SET_ERROR(v) do { v = 0xEE; } while( 0 ) 253 #define STD_SENSOR_TYPE_POWER_FACTOR_IS_ERROR(v) ( (v) == 0xEE ) 254 255 #define STD_SENSOR_TYPE_UV_INDEX_SET_ERROR(v) do { v = 0xFF; } while( 0 ) 256 #define STD_SENSOR_TYPE_UV_INDEX_IS_ERROR(v) ( (v) == 0xFF ) 257 258 #define STD_SENSOR_TYPE_PH_INDEX_SET_ERROR(v) do { v = 0xFF; } while( 0 ) 259 #define STD_SENSOR_TYPE_PH_INDEX_IS_ERROR(v) ( (v) == 0xFF ) 260 261 #define STD_SENSOR_TYPE_RSSI_INDEX_SET_ERROR(v) do { v = 0xFF; } while( 0 ) 262 #define STD_SENSOR_TYPE_RSSI_INDEX_IS_ERROR(v) ( (v) == 0xFF ) 263 264 // 4 bytes 265 #define STD_SENSOR_TYPE_BINARYDATA30_SET_ERROR(v) do { v = 0x80000000; } while( 0 ) 266 #define STD_SENSOR_TYPE_BINARYDATA30_IS_ERROR(v) ( ( (v) & 0x80000000 ) != 0x00000000 ) 267 268 #define STD_SENSOR_TYPE_CONSUMPTION_SET_ERROR(v) do { v = 0xFfFfFfFf; } while( 0 ) 269 #define STD_SENSOR_TYPE_CONSUMPTION_IS_ERROR(v) ( (v) == 0xFfFfFfFf ) 270 271 #define STD_SENSOR_TYPE_DATETIME_SET_ERROR(v) do { v = 0xFfFfFfFf; } while( 0 ) 272 #define STD_SENSOR_TYPE_DATETIME_IS_ERROR(v) ( (v) == 0xFfFfFfFf ) 273 274 #define STD_SENSOR_TYPE_TIMESPAN_LONG_SET_ERROR(v) do { v = 0xFfFfFfFf; } while( 0 ) 275 #define STD_SENSOR_TYPE_TIMESPAN_LONG_IS_ERROR(v) ( (v) == 0xFfFfFfFf ) 276 277 #define STD_SENSOR_TYPE_LATITUDE_SET_ERROR(v) do { v = 0xFF000000; } while( 0 ) 278 #define STD_SENSOR_TYPE_LATITUDE_IS_ERROR(v) ( ( (v) & 0xFF000000 ) == 0xFF000000 ) 279 280 #define STD_SENSOR_TYPE_LONGITUDE_SET_ERROR(v) do { v = 0xFF000000; } while( 0 ) 281 #define STD_SENSOR_TYPE_LONGITUDE_IS_ERROR(v) ( ( (v) & 0xFF000000 ) == 0xFF000000 ) 282 283 #define STD_SENSOR_TYPE_TEMPERATURE_FLOAT_SET_ERROR(v) do { v = 0x7FfFfFfF; /* NaN */ } while( 0 ) 284 #define STD_SENSOR_TYPE_TEMPERATURE_FLOAT_IS_ERROR(v) ( /* Test for NaN */ ( (v) & 0x7F800000 ) == 0x7F800000 /* Exponent==0xFF */ && ( (v) & 0x007FfFfF ) != 0 /* Fraction != 0 */ ) 285 286 // Written data constants 287 #define STD_SENSOR_TYPE_TEMPERATURE_DATA_GET_1_POINT_CALIBRATION 1 288 #define STD_SENSOR_TYPE_TEMPERATURE_DATA_SET_1_POINT_CALIBRATION 2 289 290 #define STD_SENSOR_TYPE_HUMIDITY_DATA_GET_1_POINT_CALIBRATION 1 291 #define STD_SENSOR_TYPE_HUMIDITY_DATA_SET_1_POINT_CALIBRATION 2 292 293 // ------------------------------------------------------------------------------------------- 294 // IQRF Binary Outputs standard 295 // ------------------------------------------------------------------------------------------- 296 // IQRF Binary Outputs standard peripheral 297 #define PNUM_STD_BINARY_OUTPUTS 0x4B 298 // IQRF Binary Outputs peripheral type 299 #define PERIPHERAL_TYPE_STD_BINARY_OUTPUTS 0x4B 300 // Current version 301 #define STD_BINARY_OUTPUTS_VERSION 4 302 303 // IQRF Binary Outputs standard peripheral - set outputs 304 #define PCMD_STD_BINARY_OUTPUTS_SET 0x00 305 306 // Structure returned by PCMD_STD_ENUMERATE 307 typedef struct 308 { 309 uns8 Count; 310 } STRUCTATTR TPerStdBinaryOutputEnumerate_Response; 311 312 // Structure for PCMD_STD_BINARY_OUTPUTS_SET 313 typedef struct 314 { 315 uns8 Bitmap[4]; 316 uns8 NewState[DPA_MAX_DATA_LENGTH - 4]; 317 } STRUCTATTR TPerStdBinaryOutputSet_Request; 318 319 #define STD_BINARY_OUTPUT_STATE_OFF 0x00 320 #define STD_BINARY_OUTPUT_STATE_ON 0x01 321 322 #define STD_BINARY_OUTPUT_IS_STATE_OK(state) ( (state) != 0x80 ) 323 #define STD_BINARY_OUTPUT_IS_STATE_OFF(state) ( (state) == STD_BINARY_OUTPUT_STATE_OFF ) 324 #define STD_BINARY_OUTPUT_IS_STATE_ON(state) ( (state) >= STD_BINARY_OUTPUT_STATE_ON ) 325 #define STD_BINARY_OUTPUT_STATE_HAS_TIME(state) ( (state) > STD_BINARY_OUTPUT_STATE_ON ) 326 #define STD_BINARY_OUTPUT_STATE_TIME_IN_SECONDS(state) ( ( (state) & 0x80 ) != 0x00 ) 327 #define STD_BINARY_OUTPUT_STATE_GET_SECONDS(state) ( (state) & 0x7F ) 328 #define STD_BINARY_OUTPUT_STATE_TIME_IN_MINUTES(state) ( (state) > STD_BINARY_OUTPUT_STATE_ON && (state) <= 0x7F ) 329 #define STD_BINARY_OUTPUT_STATE_GET_MINUTES(state) (state) 330 331 // Structure returned by PCMD_STD_BINARY_OUTPUTS_SET 332 typedef struct 333 { 334 uns8 PreviousStates[4]; 335 } STRUCTATTR TPerStdBinaryOutputSet_Response; 336 337 338 // ------------------------------------------------------------------------------------------- 339 // IQRF Light standard 340 // ------------------------------------------------------------------------------------------- 341 // IQRF Light standard peripheral 342 #define PNUM_STD_LIGHT 0x71 343 // IQRF Light standard peripheral type 344 #define PERIPHERAL_TYPE_STD_LIGHT 0x71 345 // Current version 346 #define STD_LIGHT_VERSION 5 347 348 // IQRF Light standard peripheral - Set Power 349 #define PCMD_STD_LIGHT_SET 0x00 350 // IQRF Light standard peripheral - Increment Power 351 #define PCMD_STD_LIGHT_INC 0x01 352 // IQRF Light standard peripheral - Decrement Power 353 #define PCMD_STD_LIGHT_DEC 0x02 354 355 // IQRF Light standard peripheral - FRC commands 356 #define FRC_STD_LIGHT_ONOFF 0x10 357 #define FRC_STD_LIGHT_ALARM 0x11 358 359 // Structure returned by PCMD_STD_ENUMERATE 360 typedef struct 361 { 362 uns8 Count; 363 } STRUCTATTR TPerStdLightEnumerate_Response; 364 365 // Structure for PCMD_STD_LIGHT_??? 366 typedef struct 367 { 368 uns8 Bitmap[4]; 369 uns8 Power[DPA_MAX_DATA_LENGTH - 4]; 370 } STRUCTATTR TPerStdLightSetIncDec_Request; 371 372 #define STD_LIGHT_POWER_MIN 0 373 #define STD_LIGHT_POWER_MAX 100 374 #define STD_LIGHT_KEEP_POWER 127 375 #define STD_LIGHT_IS_POWER_OK(power) ( ( ( (power) & 0x7F ) <= STD_LIGHT_POWER_MAX ) || ( (power) & 0x7F ) == STD_LIGHT_KEEP_POWER ) 376 #define STD_LIGHT_TIME_FOLLOWS_POWER(power) ( ( (power) & 0x80 ) != 0x00 ) 377 378 #define STD_LIGHT_IS_TIME_OK(time) ( ( (time) & 0x7F ) != 0x00 ) 379 #define STD_LIGHT_TIME_IN_SECONDS(time) ( ( (time) & 0x80 ) != 0x00 ) 380 #define STD_LIGHT_TIME_GET_SECONDS(time) ( (time) & 0x7F ) 381 #define STD_LIGHT_TIME_IN_MINUTES(time) ( !STD_LIGHT_TIME_IN_SECONDS( time ) ) 382 #define STD_LIGHT_TIME_GET_MINUTES(time) (time) 383 384 // ------------------------------------------------------------------------------------------- 385 // IQRF DALI standard 386 // ------------------------------------------------------------------------------------------- 387 // IQRF DALI standard peripheral 388 #define PNUM_STD_DALI 0x4A 389 // IQRF DALI standard peripheral type 390 #define PERIPHERAL_TYPE_STD_DALI 0x4A 391 // Current version 392 #define STD_DALI_VERSION 0 393 394 // IQRF DALI standard peripheral - Send DALI commands 395 #define PCMD_STD_DALI_SEND_COMMANDS 0x00 396 // IQRF DALI standard peripheral - Send DALI commands asynchronously 397 #define PCMD_STD_DALI_SEND_COMMANDS_ASYNC 0x01 398 399 // IQRF DALI standard peripheral - FRC commands 400 #define FRC_STD_DALI_SEND 0xE0 401 402 // DALI answer byte #0 403 #if defined( __CC5X__ ) 404 typedef struct 405 { 406 bit Answer; 407 bit AnswerError; 408 bit _bit2_reserved; 409 bit _bit3_reserved; 410 bit _bit4_reserved; 411 bit _bit5_reserved; 412 bit _bit6_reserved; 413 bit Always1; 414 } TSTD_DALI_Answer0; 415 #else 416 typedef struct 417 { 418 unsigned Answer : 1; 419 unsigned AnswerError : 1; 420 unsigned _bit2_reserved : 1; 421 unsigned _bit3_reserved : 1; 422 unsigned _bit4_reserved : 1; 423 unsigned _bit5_reserved : 1; 424 unsigned _bit6_reserved : 1; 425 unsigned Always1; 426 } STRUCTATTR TSTD_DALI_Answer0; 427 #endif 428 429 // ------------------------------------------------------------------------------------------- 430 431 // DPA Message data structure (packet w/o NADR, PNUM, PCMD, HWPID) for IQRF standards 432 typedef union 433 { 434 // Structure for PCMD_STD_SENSORS_READ[_TYPES_AND]_VALUES 435 TPerStdSensorRead_Request PerStdSensorRead_Request; 436 437 // Structure returned by PCMD_STD_ENUMERATE for binary output 438 TPerStdBinaryOutputEnumerate_Response PerStdBinaryOutputEnumerate_Response; 439 440 // Structure for PCMD_STD_BINARY_OUTPUTS_SET 441 TPerStdBinaryOutputSet_Request PerStdBinaryOutputSet_Request; 442 443 // Structure returned by PCMD_STD_BINARY_OUTPUTS_SET 444 TPerStdBinaryOutputSet_Response PerStdBinaryOutputSet_Response; 445 446 // Structure returned by PCMD_STD_ENUMERATE for light 447 TPerStdLightEnumerate_Response PerStdLightEnumerate_Response; 448 } TDpaMessageIqrfStd; 449 450 #if defined( __CC5X__ ) && !defined( CC5XnotDPA ) 451 // The structure above mapped at the DpaMessage 452 TDpaMessageIqrfStd _DpaMessageIqrfStd @ DpaRfMessage; 453 #endif // #ifdef __CC5X__ 454 455 // ------------------------------------------------------------------------------------------- 456 457 #endif // _IQRFSTD_HEADER_ 458 459 //############################################################################################