554 sensors_event_t *HubConnection::initEv(sensors_event_t *ev, uint64_t timestamp, uint32_t type, uint…  in initEv()  argument
558     ev->timestamp = timestamp;  in initEv()
599 void HubConnection::processSample(uint64_t timestamp, uint32_t type, uint32_t sensor, struct OneAxi…  in processSample()  argument
606         initEv(&nev[cnt++], timestamp, type, sensor)->pressure = sample->fdata;  in processSample()
609         initEv(&nev[cnt++], timestamp, type, sensor)->relative_humidity = sample->fdata;  in processSample()
612         initEv(&nev[cnt++], timestamp, type, sensor)->temperature = sample->fdata;  in processSample()
615         initEv(&nev[cnt++], timestamp, type, sensor)->temperature = sample->fdata;  in processSample()
618         initEv(&nev[cnt++], timestamp, type, sensor)->distance = sample->fdata;  in processSample()
621         initEv(&nev[cnt++], timestamp, type, sensor)->light = sample->fdata;  in processSample()
627         initEv(&nev[cnt++], timestamp, type, sensor)->u64.step_counter = mLastStepCount;  in processSample()
634         initEv(&nev[cnt++], timestamp, type, sensor)->data[0] = 1.0f;  in processSample()
641         initEv(&nev[cnt++], timestamp, type, sensor)->data[0] = sample->idata;  in processSample()
649         initEv(&nev[cnt++], timestamp, type, sensor)->data[0] = sample->idata;  in processSample()
676 void HubConnection::processSample(uint64_t timestamp, uint32_t type, uint32_t sensor, struct RawThr…  in processSample()  argument
685         sv = &initEv(&nev[cnt], timestamp, type, sensor)->acceleration;  in processSample()
692         if (mSensorState[sensor].enable && isSampleIntervalSatisfied(sensor, timestamp)) {  in processSample()
712         ue = &initEv(&nev[cnt], timestamp,  in processSample()
732                 && isSampleIntervalSatisfied(COMMS_SENSOR_ACCEL_UNCALIBRATED, timestamp)) {  in processSample()
737                 && isSampleIntervalSatisfied(COMMS_SENSOR_ACCEL_WRIST_AWARE, timestamp)) {  in processSample()
738             sv = &initEv(&nev[cnt++], timestamp,  in processSample()
748         sv = &initEv(&nev[cnt], timestamp, type, sensor)->magnetic;  in processSample()
755         if (mSensorState[sensor].enable && isSampleIntervalSatisfied(sensor, timestamp)) {  in processSample()
759         ue = &initEv(&nev[cnt], timestamp,  in processSample()
771                 && isSampleIntervalSatisfied(COMMS_SENSOR_MAG_UNCALIBRATED, timestamp)) {  in processSample()
783 void HubConnection::processSample(uint64_t timestamp, uint32_t type, uint32_t sensor, struct ThreeA…  in processSample()  argument
795         sv = &initEv(&nev[cnt], timestamp, type, sensor)->acceleration;  in processSample()
802         if (mSensorState[sensor].enable && isSampleIntervalSatisfied(sensor, timestamp)) {  in processSample()
806         ue = &initEv(&nev[cnt], timestamp,  in processSample()
818                 && isSampleIntervalSatisfied(COMMS_SENSOR_ACCEL_UNCALIBRATED, timestamp)) {  in processSample()
823                 && isSampleIntervalSatisfied(COMMS_SENSOR_ACCEL_WRIST_AWARE, timestamp)) {  in processSample()
824             sv = &initEv(&nev[cnt], timestamp,  in processSample()
835         sv = &initEv(&nev[cnt], timestamp, type, sensor)->gyro;  in processSample()
842         if (mSensorState[sensor].enable && isSampleIntervalSatisfied(sensor, timestamp)) {  in processSample()
846         ue = &initEv(&nev[cnt], timestamp,  in processSample()
858                 && isSampleIntervalSatisfied(COMMS_SENSOR_GYRO_UNCALIBRATED, timestamp)) {  in processSample()
863                 && isSampleIntervalSatisfied(COMMS_SENSOR_GYRO_WRIST_AWARE, timestamp)) {  in processSample()
864             sv = &initEv(&nev[cnt], timestamp,  in processSample()
887         sv = &initEv(&nev[cnt], timestamp, type, sensor)->magnetic;  in processSample()
894         if (mSensorState[sensor].enable && isSampleIntervalSatisfied(sensor, timestamp)) {  in processSample()
898         ue = &initEv(&nev[cnt], timestamp,  in processSample()
910                 && isSampleIntervalSatisfied(COMMS_SENSOR_MAG_UNCALIBRATED, timestamp)) {  in processSample()
925         sv = &initEv(&nev[cnt++], timestamp, type, sensor)->orientation;  in processSample()
932         ev = initEv(&nev[cnt++], timestamp, type, sensor);  in processSample()
938         ev = initEv(&nev[cnt++], timestamp, type, sensor);  in processSample()
952         ev = initEv(&nev[cnt++], timestamp, type, sensor);  in processSample()
1095     uint64_t timestamp;  in processBuf()  local
1287         timestamp = data->referenceTime;  in processBuf()
1301 …timestamp += ((uint64_t)data->oneSamples[i].deltaTime) << delta_time_shift_table[data->oneSamples[…  in processBuf()
1302 …  processSample(timestamp, type, currSensor, &data->oneSamples[i], data->firstSample.highAccuracy);  in processBuf()
1310 …timestamp += ((uint64_t)data->rawThreeSamples[i].deltaTime) << delta_time_shift_table[data->rawThr…  in processBuf()
1311 …processSample(timestamp, type, currSensor, &data->rawThreeSamples[i], data->firstSample.highAccura…  in processBuf()
1319 …timestamp += ((uint64_t)data->threeSamples[i].deltaTime) << delta_time_shift_table[data->threeSamp…  in processBuf()
1320 …processSample(timestamp, type, currSensor, &data->threeSamples[i], data->firstSample.highAccuracy);  in processBuf()
1344                 ev.timestamp = 0;  in processBuf()
1963                     if ((uint64_t)nev->timestamp > j.second.lastTimestamp  in sendDirectReportEvent()
1965                                 nev->timestamp - j.second.lastTimestamp,  in sendDirectReportEvent()
1969                         j.second.lastTimestamp = nev->timestamp;  in sendDirectReportEvent()
2184 bool HubConnection::isSampleIntervalSatisfied(int handle, uint64_t timestamp) {  in isSampleIntervalSatisfied()  argument
2189     if (mSensorState[handle].lastTimestamp >= timestamp  in isSampleIntervalSatisfied()
2192     } else if (intervalLargeEnough(timestamp - mSensorState[handle].lastTimestamp,  in isSampleIntervalSatisfied()
2194         mSensorState[handle].lastTimestamp = timestamp;  in isSampleIntervalSatisfied()