Example #1
0
    def test_get_all_channels(self):
        manager = DBManager(filename='openimu.db', overwrite=True)

        # Create sensor in DB
        sensor = manager.add_sensor(SensorType.ACCELEROMETER, 'Sensor Name',
                                    'Hardware Name', 'Wrist', 30.0, 1)
        channelx = manager.add_channel(sensor, Units.GRAVITY_G,
                                       DataFormat.FLOAT32, 'Accelerometer_X')
        channely = manager.add_channel(sensor, Units.GRAVITY_G,
                                       DataFormat.FLOAT32, 'Accelerometer_Y')
        channelz = manager.add_channel(sensor, Units.GRAVITY_G,
                                       DataFormat.FLOAT32, 'Accelerometer_Z')

        # Get all channels (from all sensor)
        channels = manager.get_all_channels()
        self.assertEqual(len(channels), 3)

        # Get all channels (from valid sensor)
        channels = manager.get_all_channels(sensor=sensor)
        self.assertEqual(len(channels), 3)

        # Get all channels (from invalid sensor)
        channels = manager.get_all_channels(sensor=Sensor())
        self.assertEqual(len(channels), 0)

        manager.close()
Example #2
0
    def test_add_sensor_data(self):
        manager = DBManager(filename='openimu.db', overwrite=True)

        # Create sensor in DB
        group = manager.update_group(
            Group(name='Group Name', description='Group Description'))
        participant = manager.update_participant(
            Participant(name='Participant Name',
                        description='Participant Description',
                        group=group))

        sensor = manager.add_sensor(SensorType.ACCELEROMETER, 'Sensor Name',
                                    'Hardware Name', 'Wrist', 30.0, 1)
        channel = manager.add_channel(sensor, Units.GRAVITY_G,
                                      DataFormat.FLOAT32, 'Accelerometer_X')

        timestamps = SensorTimestamps()
        timestamps.timestamps = np.zeros(40, dtype=np.float64)
        # will set start and end
        timestamps.update_timestamps()

        recordset = manager.add_recordset(participant, 'My Record',
                                          timestamps.start_timestamp,
                                          timestamps.end_timestamp)

        data = np.zeros(40, dtype=np.float32)

        sensordata = manager.add_sensor_data(recordset, sensor, channel,
                                             timestamps, data)
        manager.commit()

        sensordata2 = manager.get_sensor_data(sensordata.id_sensor_data)
        self.assertEqual(sensordata, sensordata2)

        manager.close()
Example #3
0
    def test_add_channel(self):
        manager = DBManager(filename='openimu.db', overwrite=True)

        # Create sensor in DB
        sensor = manager.add_sensor(SensorType.ACCELEROMETER, 'Sensor Name',
                                    'Hardware Name', 'Wrist', 30.0, 1)
        channel = manager.add_channel(sensor, Units.GRAVITY_G,
                                      DataFormat.FLOAT32, 'Accelerometer_X')
        channel2 = manager.get_channel(channel.id_channel)
        self.assertEqual(channel, channel2)
Example #4
0
    def test_get_all_sensor_data_with_args(self):
        manager = DBManager(filename='openimu.db', overwrite=True, echo=False)

        # Create sensor in DB
        group = manager.update_group(
            Group(name='Group Name', description='Group Description'))
        participant = manager.update_participant(
            Participant(name='Participant Name',
                        description='Participant Description',
                        group=group))
        sensor = manager.add_sensor(SensorType.ACCELEROMETER, 'Sensor Name',
                                    'Hardware Name', 'Wrist', 30.0, 1)
        sensor2 = manager.add_sensor(SensorType.GYROMETER, 'Sensor Name',
                                     'Hardware Name', 'Wrist', 30.0, 1)
        channel1 = manager.add_channel(sensor, Units.GRAVITY_G,
                                       DataFormat.FLOAT32, 'Accelerometer_X')
        channel2 = manager.add_channel(sensor, Units.GRAVITY_G,
                                       DataFormat.FLOAT32, 'Accelerometer_Y')

        timestamps = SensorTimestamps()
        timestamps.timestamps = np.zeros(40, dtype=np.float64)
        # will set start and end
        timestamps.update_timestamps()

        recordset = manager.add_recordset(participant, 'My Record',
                                          timestamps.start_timestamp,
                                          timestamps.end_timestamp)

        data = np.zeros(40, dtype=np.float32)
        sensordata = manager.add_sensor_data(recordset, sensor, channel1,
                                             timestamps, data)
        sensordata = manager.add_sensor_data(recordset, sensor, channel2,
                                             timestamps, data)
        manager.commit()

        # Test with no args, return everything in the recordset
        sensordata_res = manager.get_all_sensor_data(recordset=recordset,
                                                     convert=True)
        self.assertEqual(len(sensordata_res), 2)
        for sensor_data in sensordata_res:
            self.assertEqual(len(sensor_data.data), len(data))

        # Test with a valid sensor arg
        sensordata_res = manager.get_all_sensor_data(recordset=recordset,
                                                     convert=True,
                                                     sensor=sensor)
        self.assertEqual(len(sensordata_res), 2)
        for sensor_data in sensordata_res:
            self.assertEqual(len(sensor_data.data), len(data))

        # Test with not the right sensor arg
        sensordata_res = manager.get_all_sensor_data(recordset=recordset,
                                                     convert=True,
                                                     sensor=sensor2)
        self.assertEqual(len(sensordata_res), 0)

        # Testing with invalid sensor arg
        sensordata_res = manager.get_all_sensor_data(recordset=recordset,
                                                     convert=True,
                                                     sensor=Sensor())
        self.assertEqual(len(sensordata_res), 0)

        # Testing with channel1
        sensordata_res = manager.get_all_sensor_data(recordset=recordset,
                                                     convert=True,
                                                     channel=channel1)
        self.assertEqual(len(sensordata_res), 1)
        for sensor_data in sensordata_res:
            self.assertEqual(len(sensor_data.data), len(data))

        # Testing with channel2
        sensordata_res = manager.get_all_sensor_data(recordset=recordset,
                                                     convert=True,
                                                     channel=channel2)
        self.assertEqual(len(sensordata_res), 1)
        for sensor_data in sensordata_res:
            self.assertEqual(len(sensor_data.data), len(data))

        # Testing with invalid channel
        sensordata_res = manager.get_all_sensor_data(recordset=recordset,
                                                     convert=True,
                                                     channel=Channel())
        self.assertEqual(len(sensordata_res), 0)

        manager.close()
class ActigraphDBTest1(unittest.TestCase):
    @timing
    def setUp(self):
        np.set_printoptions(suppress=True)
        print(__file__ + ' Creating database')
        self.db = DBManager('actigraph.db', True, False)
        self.group = self.db.add_group('MyGroup', 'MyDescription')
        self.participant = self.db.add_participant(group=self.group,
                                                   name='Anonymous',
                                                   description='Participant')

    @timing
    def tearDown(self):
        self.db.commit()

    @timing
    def load_file(self, name='../resources/samples/test.gt3x'):
        print('loading file :', name)
        result = gt3x_importer(name)
        self.assertEqual(len(result), 2)
        return result

    def add_recordset_to_db(self, name, start_timestamp, stop_timestamp):
        recordset = self.db.add_recordset(self.participant, name,
                                          start_timestamp, stop_timestamp)
        return recordset

    def add_sensor_to_db(self, sensor_type, name, hw_name, location,
                         sampling_rate, data_rate):
        #  _id_sensor_type, _name, _hw_name, _location, _sampling_rate, _data_rate):
        sensor = self.db.add_sensor(sensor_type, name, hw_name, location,
                                    sampling_rate, data_rate)
        return sensor

    def add_channel_to_db(self, sensor, unit, data_format, label):
        channel = self.db.add_channel(sensor, unit, data_format, label)
        return channel

    def add_sensor_data_to_db(self, recordset, sensor, channel, timestamp,
                              data):
        sensor_data = self.db.add_sensor_data(recordset, sensor, channel,
                                              timestamp, data)
        return sensor_data

    @timing
    def commit(self):
        return self.db.commit()

    @timing
    def flush(self):
        return self.db.flush()

    def test_import(self):
        # Return file info and data contents
        """
        return [info, {'activity': activity_data,
                       'battery': battery_data,
                       'lux': lux_data,
                       'event': event_data,
                       'parameters': parameters_data,
                       'metadata': metadata_data
                       }]
        """
        [info, data] = self.load_file()
        self.assertTrue(len(info) > 0)
        self.assertTrue(len(data) == 6)

        print(info)

        # Creating recordset
        # print(info['Start Date'], info['Last Sample Time'])
        start = int(info['Start Date'])
        stop = int(info['Last Sample Time'])
        print(start, stop)
        start_timestamp = ticksconverter(start)
        end_timestamp = ticksconverter(stop)
        print(start_timestamp, end_timestamp)

        recordset = self.add_recordset_to_db(info['Subject Name'],
                                             start_timestamp, end_timestamp)
        print(recordset)

        if data.__contains__('activity'):

            print('activity found')
            # Create sensor
            accelerometer_sensor = self.add_sensor_to_db(
                SensorType.ACCELEROMETER, 'Accelerometer', info['Device Type'],
                'Unknown', info['Sample Rate'], 1)

            accelerometer_channels = list()

            # Create channels
            accelerometer_channels.append(
                self.add_channel_to_db(accelerometer_sensor, Units.GRAVITY_G,
                                       DataFormat.FLOAT32, 'Accelerometer_Y'))

            accelerometer_channels.append(
                self.add_channel_to_db(accelerometer_sensor, Units.GRAVITY_G,
                                       DataFormat.FLOAT32, 'Accelerometer_X'))

            accelerometer_channels.append(
                self.add_channel_to_db(accelerometer_sensor, Units.GRAVITY_G,
                                       DataFormat.FLOAT32, 'Accelerometer_Z'))

            # Should be 1970, epoch
            last_timestamp = 0
            all_timestamps = []
            value_dict = {}

            # Import data
            for epoch in data['activity']:
                # An epoch will contain a timestamp and array with each acc_x, acc_y, acc_z
                self.assertEqual(len(epoch), 2)

                current_timestamp = epoch[0]
                # print('current_timestamp', current_timestamp, current_timestamp == (last_timestamp + 1))

                # Check for consecutive timestamps
                create_array = current_timestamp != (last_timestamp + 1)

                # Do not allow more than one hour of consecutive data
                if create_array is not True:
                    if current_timestamp - all_timestamps[-1] >= 3600:
                        create_array = True

                # Consecutive timestamps?
                if create_array is True:
                    all_timestamps.append(current_timestamp)
                    # Create list for all values for this timestamp
                    value_dict[current_timestamp] = [list(), list(), list()]

                # Get data
                samples = epoch[1]

                # Separate write for each channel
                for index in range(0, len(accelerometer_channels)):
                    # Using last timestamp to append data
                    value_dict[all_timestamps[-1]][index].append(
                        samples[:, index])

                # Update timestamp
                last_timestamp = current_timestamp

            # Insert into DB as chunks of data
            # print('should insert records count: ', len(all_timestamps))
            # print('should insert data count:', len(value_dict))
            for timestamp in all_timestamps:
                for index in range(0, len(value_dict[timestamp])):
                    # print(index, timestamp, len(value_dict[timestamp][index]))
                    vector = np.concatenate(value_dict[timestamp][index])
                    # print('vector: ', len(vector), vector.shape, vector.dtype)
                    if len(vector) > 0:
                        self.add_sensor_data_to_db(
                            recordset, accelerometer_sensor,
                            accelerometer_channels[index],
                            datetime.datetime.fromtimestamp(timestamp), vector)

            # Flush DB
            self.flush()

        if data.__contains__('battery'):
            print('battery found')
            # Create sensor
            volt_sensor = self.add_sensor_to_db(SensorType.BATTERY, 'Battery',
                                                info['Device Type'], 'Unknown',
                                                0, 1)

            # Create channel
            volt_channel = self.add_channel_to_db(volt_sensor, Units.VOLTS,
                                                  DataFormat.FLOAT32,
                                                  'Battery')

            for epoch in data['battery']:
                timestamp = datetime.datetime.fromtimestamp(epoch[0])
                value = np.float32(epoch[1])
                self.assertEqual(len(value.tobytes()), 4)
                self.add_sensor_data_to_db(recordset, volt_sensor,
                                           volt_channel, timestamp, value)

            # Flush to DB (ram)
            self.flush()

        if data.__contains__('lux'):
            print('lux found')
            # Create sensor
            lux_sensor = self.add_sensor_to_db(SensorType.LUX, 'Lux',
                                               info['Device Type'], 'Unknown',
                                               1, 1)

            # Create channel
            lux_channel = self.add_channel_to_db(lux_sensor, Units.LUX,
                                                 DataFormat.FLOAT32, 'Lux')

            for epoch in data['lux']:
                timestamp = datetime.datetime.fromtimestamp(epoch[0])
                value = np.float32(epoch[1])
                self.assertEqual(len(value.tobytes()), 4)
                self.add_sensor_data_to_db(recordset, lux_sensor, lux_channel,
                                           timestamp, value)

            # Flush to DB (ram)
            self.flush()

        # Write data to file
        self.commit()

    @timing
    def read_back_data(self, participant):
        recordsets = self.db.get_all_recordsets(participant)
        print(recordsets)

        for record in recordsets:
            alldata = self.db.get_all_sensor_data(record)
            print('recordset size', len(alldata))
            for data in alldata:
                print('type', type(data.data))
                break

    def test_reload_from_db(self):
        # Import data first
        self.test_import()

        self.read_back_data(self.participant)