*/
char* SensorsGetError(int nRet)
{
- char *szErrorVal = NULL;
+ char *szErrorVal = "Unknown error";
switch ( nRet )
{
- case SENSOR_ERROR_NONE: szErrorVal = "SENSOR_ERROR_NONE"; break;
- case SENSOR_ERROR_IO_ERROR: szErrorVal = "SENSOR_ERROR_IO_ERROR"; break;
- case SENSOR_ERROR_INVALID_PARAMETER: szErrorVal = "SENSOR_ERROR_INVALID_PARAMETER"; break;
- case SENSOR_ERROR_OUT_OF_MEMORY: szErrorVal = "SENSOR_ERROR_OUT_OF_MEMORY"; break;
- case SENSOR_ERROR_NOT_NEED_CALIBRATION: szErrorVal = "SENSOR_ERROR_NOT_NEED_CALIBRATION"; break;
- case SENSOR_ERROR_NOT_SUPPORTED: szErrorVal = "SENSOR_ERROR_NOT_SUPPORTED"; break;
- case SENSOR_ERROR_OPERATION_FAILED: szErrorVal = "SENSOR_ERROR_OPERATION_FAILED"; break;
- case SENSOR_ERROR_PERMISSION_DENIED: szErrorVal = "SENSOR_ERROR_PERMISSION_DENIED"; break;
- case SENSOR_ERROR_NO_DATA: szErrorVal = "SENSOR_ERROR_NO_DATA"; break;
- case SENSOR_ERROR_NOT_AVAILABLE: szErrorVal = "SENSOR_ERROR_NOT_AVAILABLE"; break;
- default : szErrorVal = "Unknown error"; break;
+ case SENSOR_ERROR_NONE: szErrorVal = "SENSOR_ERROR_NONE"; break;
+ case SENSOR_ERROR_IO_ERROR: szErrorVal = "SENSOR_ERROR_IO_ERROR"; break;
+ case SENSOR_ERROR_INVALID_PARAMETER: szErrorVal = "SENSOR_ERROR_INVALID_PARAMETER"; break;
+ case SENSOR_ERROR_OUT_OF_MEMORY: szErrorVal = "SENSOR_ERROR_OUT_OF_MEMORY"; break;
+ case SENSOR_ERROR_NOT_NEED_CALIBRATION: szErrorVal = "SENSOR_ERROR_NOT_NEED_CALIBRATION"; break;
+ case SENSOR_ERROR_NOT_SUPPORTED: szErrorVal = "SENSOR_ERROR_NOT_SUPPORTED"; break;
+ case SENSOR_ERROR_OPERATION_FAILED: szErrorVal = "SENSOR_ERROR_OPERATION_FAILED"; break;
+ case SENSOR_ERROR_PERMISSION_DENIED: szErrorVal = "SENSOR_ERROR_PERMISSION_DENIED"; break;
+ case SENSOR_ERROR_NO_DATA: szErrorVal = "SENSOR_ERROR_NO_DATA"; break;
+ case SENSOR_ERROR_NOT_AVAILABLE: szErrorVal = "SENSOR_ERROR_NOT_AVAILABLE"; break;
}
return szErrorVal;
}
*/
char* SensorGetType(sensor_type_e nSensorType)
{
- char *szErrorVal = NULL;
+ char *szErrorVal = "Unknown Error";
switch ( nSensorType )
{
- case SENSOR_ACCELEROMETER: szErrorVal = "SENSOR_ACCELEROMETER"; break;
- case SENSOR_GRAVITY: szErrorVal = "SENSOR_GRAVITY"; break;
- case SENSOR_LINEAR_ACCELERATION: szErrorVal = "SENSOR_LINEAR_ACCELERATION"; break;
- case SENSOR_MAGNETIC: szErrorVal = "SENSOR_MAGNETIC"; break;
- case SENSOR_ROTATION_VECTOR: szErrorVal = "SENSOR_ROTATION_VECTOR"; break;
- case SENSOR_ORIENTATION: szErrorVal = "SENSOR_ORIENTATION"; break;
- case SENSOR_GYROSCOPE: szErrorVal = "SENSOR_GYROSCOPE"; break;
- case SENSOR_LIGHT: szErrorVal = "SENSOR_LIGHT"; break;
- case SENSOR_PROXIMITY: szErrorVal = "SENSOR_PROXIMITY"; break;
- case SENSOR_PRESSURE: szErrorVal = "SENSOR_PRESSURE"; break;
- case SENSOR_ULTRAVIOLET: szErrorVal = "SENSOR_ULTRAVIOLET"; break;
- case SENSOR_TEMPERATURE: szErrorVal = "SENSOR_TEMPERATURE"; break;
- case SENSOR_HUMIDITY: szErrorVal = "SENSOR_HUMIDITY"; break;
- case SENSOR_HRM: szErrorVal = "SENSOR_HRM"; break; /**< Heart Rate Monitor sensor */
- case SENSOR_HRM_LED_GREEN: szErrorVal = "SENSOR_HRM_LED_GREEN"; break; /**< HRM (LED Green) sensor */
- case SENSOR_HRM_LED_IR: szErrorVal = "SENSOR_HRM_LED_IR"; break; /**< HRM (LED IR) sensor */
- case SENSOR_HRM_LED_RED: szErrorVal = "SENSOR_HRM_LED_RED"; break; /**< HRM (LED RED) sensor */
- case SENSOR_GYROSCOPE_UNCALIBRATED: szErrorVal = "SENSOR_GYROSCOPE_UNCALIBRATED"; break; /**< Uncalibrated Gyroscope sensor (Since Tizen 2.4) */
- case SENSOR_GEOMAGNETIC_UNCALIBRATED: szErrorVal = "SENSOR_GEOMAGNETIC_UNCALIBRATED"; break; /**< Uncalibrated Geomagnetic sensor (Since Tizen 2.4) */
- case SENSOR_GYROSCOPE_ROTATION_VECTOR: szErrorVal = "SENSOR_GYROSCOPE_ROTATION_VECTOR"; break; /**< Gyroscope-based rotation vector sensor (Since Tizen 2.4) */
- case SENSOR_GEOMAGNETIC_ROTATION_VECTOR: szErrorVal = "SENSOR_GEOMAGNETIC_ROTATION_VECTOR"; break; /**< Geomagnetic-based rotation vector sensor (Since Tizen 2.4) */
- case SENSOR_SIGNIFICANT_MOTION: szErrorVal = "SENSOR_SIGNIFICANT_MOTION"; break;
- case SENSOR_HUMAN_PEDOMETER: szErrorVal = "SENSOR_HUMAN_PEDOMETER"; break;
- case SENSOR_HUMAN_SLEEP_MONITOR : szErrorVal = "SENSOR_HUMAN_SLEEP_MONITOR"; break;
- case SENSOR_HUMAN_SLEEP_DETECTOR : szErrorVal = "SENSOR_HUMAN_SLEEP_DETECTOR"; break;
- case SENSOR_HUMAN_STRESS_MONITOR : szErrorVal = "SENSOR_HUMAN_STRESS_MONITOR"; break;
- default : szErrorVal = "Unknown Error"; break;
+ case SENSOR_ACCELEROMETER: szErrorVal = "SENSOR_ACCELEROMETER"; break;
+ case SENSOR_GRAVITY: szErrorVal = "SENSOR_GRAVITY"; break;
+ case SENSOR_LINEAR_ACCELERATION: szErrorVal = "SENSOR_LINEAR_ACCELERATION"; break;
+ case SENSOR_MAGNETIC: szErrorVal = "SENSOR_MAGNETIC"; break;
+ case SENSOR_ROTATION_VECTOR: szErrorVal = "SENSOR_ROTATION_VECTOR"; break;
+ case SENSOR_ORIENTATION: szErrorVal = "SENSOR_ORIENTATION"; break;
+ case SENSOR_GYROSCOPE: szErrorVal = "SENSOR_GYROSCOPE"; break;
+ case SENSOR_LIGHT: szErrorVal = "SENSOR_LIGHT"; break;
+ case SENSOR_PROXIMITY: szErrorVal = "SENSOR_PROXIMITY"; break;
+ case SENSOR_PRESSURE: szErrorVal = "SENSOR_PRESSURE"; break;
+ case SENSOR_ULTRAVIOLET: szErrorVal = "SENSOR_ULTRAVIOLET"; break;
+ case SENSOR_TEMPERATURE: szErrorVal = "SENSOR_TEMPERATURE"; break;
+ case SENSOR_HUMIDITY: szErrorVal = "SENSOR_HUMIDITY"; break;
+ case SENSOR_HRM: szErrorVal = "SENSOR_HRM"; break; /**< Heart Rate Monitor sensor */
+ case SENSOR_HRM_LED_GREEN: szErrorVal = "SENSOR_HRM_LED_GREEN"; break; /**< HRM (LED Green) sensor */
+ case SENSOR_HRM_LED_IR: szErrorVal = "SENSOR_HRM_LED_IR"; break; /**< HRM (LED IR) sensor */
+ case SENSOR_HRM_LED_RED: szErrorVal = "SENSOR_HRM_LED_RED"; break; /**< HRM (LED RED) sensor */
+ case SENSOR_GYROSCOPE_UNCALIBRATED: szErrorVal = "SENSOR_GYROSCOPE_UNCALIBRATED"; break; /**< Uncalibrated Gyroscope sensor (Since Tizen 2.4) */
+ case SENSOR_GEOMAGNETIC_UNCALIBRATED: szErrorVal = "SENSOR_GEOMAGNETIC_UNCALIBRATED"; break; /**< Uncalibrated Geomagnetic sensor (Since Tizen 2.4) */
+ case SENSOR_GYROSCOPE_ROTATION_VECTOR: szErrorVal = "SENSOR_GYROSCOPE_ROTATION_VECTOR"; break; /**< Gyroscope-based rotation vector sensor (Since Tizen 2.4) */
+ case SENSOR_GEOMAGNETIC_ROTATION_VECTOR: szErrorVal = "SENSOR_GEOMAGNETIC_ROTATION_VECTOR"; break; /**< Geomagnetic-based rotation vector sensor (Since Tizen 2.4) */
+ case SENSOR_SIGNIFICANT_MOTION: szErrorVal = "SENSOR_SIGNIFICANT_MOTION"; break;
+ case SENSOR_HUMAN_PEDOMETER: szErrorVal = "SENSOR_HUMAN_PEDOMETER"; break;
+ case SENSOR_HUMAN_SLEEP_MONITOR : szErrorVal = "SENSOR_HUMAN_SLEEP_MONITOR"; break;
+ case SENSOR_HUMAN_SLEEP_DETECTOR : szErrorVal = "SENSOR_HUMAN_SLEEP_DETECTOR"; break;
+ case SENSOR_HUMAN_STRESS_MONITOR : szErrorVal = "SENSOR_HUMAN_STRESS_MONITOR"; break;
+ case SENSOR_HRM_BATCH : szErrorVal = "SENSOR_HRM_BATCH"; break;
+ case SENSOR_HRM_LED_GREEN_BATCH : szErrorVal = "SENSOR_HRM_LED_GREEN_BATCH"; break;
}
return szErrorVal;
}
*/
#define API_NAMESPACE "SENSOR_ITC"
#define PATH_LEN 1024
-#define TIMEOUT_CB 2000
#define MICROSECONDS_PER_SECOND 1000000
#define TIME_1_HOUR_SEC 3600
#define TIME_1_DAY_SEC (TIME_1_HOUR_SEC * 24)
#define RUN_POLLING_LOOP {\
g_pSensorMainLoop = g_main_loop_new(NULL, false);\
- nSensorTimeoutId = g_timeout_add(TIMEOUT_CB, SensorTimeout, g_pSensorMainLoop);\
+ nSensorTimeoutId = g_timeout_add(nTimeOutCB, SensorTimeout, g_pSensorMainLoop);\
g_main_loop_run(g_pSensorMainLoop);\
g_source_remove(nSensorTimeoutId);\
g_pSensorMainLoop = NULL;\
START_TEST;
sensor_provider_h hSensorProvider;
int nSensorTimeoutId = 0;
+ int nTimeOutCB = 2000;
g_bSensorAddCallback = false;
int nRet = sensor_create_provider(TEST_SENSOR_URI, &hSensorProvider);
START_TEST;
sensor_provider_h hSensorProvider;
int nSensorTimeoutId = 0;
+ int nTimeOutCB = 2000;
g_bSensorAddCallback = false;
int nRet = sensor_create_provider(TEST_SENSOR_URI, &hSensorProvider);
sensor_provider_h hSensorProvider;
sensor_listener_h hlistener;
int nSensorTimeoutId = 0;
+ int nTimeOutCB = 2000;
g_bSensorAddCallback = false;
int nRet = sensor_create_provider(TEST_SENSOR_URI, &hSensorProvider);
sensor_provider_h hSensorProvider;
sensor_listener_h hlistener;
int nSensorTimeoutId = 0;
+ int nTimeOutCB = 2000;
g_bSensorAddCallback = false;
int nRet = sensor_create_provider(TEST_SENSOR_URI, &hSensorProvider);
sensor_provider_h hSensorProvider;
sensor_listener_h hlistener;
int nSensorTimeoutId = 0;
+ int nTimeOutCB = 2000;
g_bSensorAddCallback = false;
int nRet = sensor_create_provider(TEST_SENSOR_URI, &hSensorProvider);
sensor_provider_h hSensorProvider;
sensor_listener_h hlistener;
int nSensorTimeoutId = 0;
+ int nTimeOutCB = 2000;
g_bSensorAddCallback = false;
int nRet = sensor_create_provider(TEST_SENSOR_URI, &hSensorProvider);
//
#include "ITs-sensor-common.h"
-
-static bool sensor_recorder_supported[24];
+static bool sensor_recorder_supported[30]; //This needs to be increased, with addition of new sensors in "Sensor[]".
static bool g_bCallbackHit = false;
static int g_nRet;
static bool g_bStatus;
{SENSOR_GEOMAGNETIC_ROTATION_VECTOR, "http://tizen.org/feature/sensor.geomagnetic_rotation_vector"},
{SENSOR_HUMAN_SLEEP_MONITOR, "http://tizen.org/feature/sensor.sleep_monitor"},
{SENSOR_HUMAN_SLEEP_DETECTOR, "http://tizen.org/feature/sensor.sleep_monitor"},
- {SENSOR_HUMAN_STRESS_MONITOR, "http://tizen.org/feature/sensor.stress_monitor"}
-
+ {SENSOR_HUMAN_STRESS_MONITOR, "http://tizen.org/feature/sensor.stress_monitor"},
+ {SENSOR_HRM_BATCH, "http://tizen.org/feature/sensor.heart_rate_monitor.batch"},
+ {SENSOR_HRM_LED_GREEN_BATCH, "http://tizen.org/feature/sensor.heart_rate_monitor.led_green.batch"}
};
int ITc_sensor_recorder_read_p(void)
{
START_TEST;
- int nSensorTimeoutId = 0;
+ int nSensorTimeoutId = 0;
+ int nTimeOutCB = 2000;
time_t now;
time_t start, end;
time_t anchor;
continue;
g_bCallbackHit = false;
-
+ if(Sensor[i].eSensorType == SENSOR_HRM_BATCH || Sensor[i].eSensorType == SENSOR_HRM_LED_GREEN_BATCH)
+ {
+ nTimeOutCB = 30000;
+ }
//Target API
nRet = sensor_recorder_read(Sensor[i].eSensorType, query, SensorRecorderDatacb, NULL);
PRINT_RESULT_CLEANUP(SENSOR_ERROR_NONE, nRet, "sensor_recorder_read", SensorsGetError(nRet),sensor_recorder_destroy_query(query));
{SENSOR_GYROSCOPE_ROTATION_VECTOR, "http://tizen.org/feature/sensor.gyroscope_rotation_vector"},
{SENSOR_GEOMAGNETIC_ROTATION_VECTOR, "http://tizen.org/feature/sensor.geomagnetic_rotation_vector"},
{SENSOR_SIGNIFICANT_MOTION, "http://tizen.org/feature/sensor.significant_motion"},
-
+ {SENSOR_HRM_BATCH, "http://tizen.org/feature/sensor.heart_rate_monitor.batch"},
+ {SENSOR_HRM_LED_GREEN_BATCH, "http://tizen.org/feature/sensor.heart_rate_monitor.led_green.batch"}
};
const char *stUriTypes[] = {
"http://tizen.org/sensor/healthinfo/human_pedometer", /**< Pedometer
@if MOBILE (Since 3.0) @elseif WEARABLE (Since 2.3.2) @endif
@n Privilege : http://tizen.org/privilege/healthinfo */
+ "http://tizen.org/sensor/healthinfo/heart_rate_monitor.batch", /**< Heart Rate Monitor Batch sensor */
+ "http://tizen.org/sensor/healthinfo/heart_rate_monitor.led_green.batch" /**< HRM (LED Green) Batch sensor */
};
int enum_size = sizeof(stSensor) / sizeof(stSensor[0]);
START_TEST;
int nSensorTimeoutId = 0;
+ int nTimeOutCB = 2000;
int nRet = -1;
for ( enum_counter=0; enum_counter<enum_size; enum_counter++ )
continue;
}
+ if(stSensor[enum_counter].eSensorType == SENSOR_HRM_BATCH || stSensor[enum_counter].eSensorType == SENSOR_HRM_LED_GREEN_BATCH)
+ {
+ nTimeOutCB = 30000;
+ }
+
feature_check_e eFeatureCheck = SensorCheckFeature(stSensor[enum_counter].eSensorType, stSensor[enum_counter].szFeature);
if ( eFeatureCheck == FEATURE_MISMATCH )
{
{
START_TEST;
- int nSensorTimeoutId = 0;
int nRet = -1;
for ( enum_counter=0; enum_counter<enum_size; enum_counter++ )
g_bSensorEventCallback = false;
int nSensorTimeoutId = 0;
+ int nTimeOutCB = 2000;
+ if(stSensor[enum_counter].eSensorType == SENSOR_HRM_BATCH || stSensor[enum_counter].eSensorType == SENSOR_HRM_LED_GREEN_BATCH)
+ {
+ nTimeOutCB = 30000;
+ }
// Target API
nRet = sensor_listener_set_events_cb(g_pstSensorListener, SensorEventCallback, NULL);