def testStartAndStopManagerWithMqtt(self):
"""
NOTE: Be sure to enable CoAP by setting the following flag to True
within PiotConfig.props
enableMqttClient = True
enableCoapClient = False
"""
ddMgr = DeviceDataManager()
ddMgr.startManager()
mqttClient = MqttClientConnector()
mqttClient.connectClient()
ad = ActuatorData()
ad.setCommand(1)
adJson = DataUtil().actuatorDataToJson(ad)
mqttClient.publishMessage(ResourceNameEnum.CDA_ACTUATOR_CMD_RESOURCE,
msg=adJson,
qos=1)
sleep(10)
mqttClient.disconnectClient()
ddMgr.stopManager()
class MqttClientConnectorTest(unittest.TestCase):
"""
This test case class contains very basic unit tests for
MqttClientConnector. It should not be considered complete,
but serve as a starting point for the student implementing
additional functionality within their Programming the IoT
environment.
"""
@classmethod
def setUpClass(self):
logging.basicConfig(
format='%(asctime)s:%(module)s:%(levelname)s:%(message)s',
level=logging.DEBUG)
logging.info("Testing MqttClientConnector class...")
self.cfg = ConfigUtil()
self.mcc = MqttClientConnector()
def setUp(self):
pass
def tearDown(self):
pass
@unittest.skip("Ignore for now.")
def testConnectAndDisconnect(self):
delay = self.cfg.getInteger(ConfigConst.MQTT_GATEWAY_SERVICE,
ConfigConst.KEEP_ALIVE_KEY,
ConfigConst.DEFAULT_KEEP_ALIVE)
self.mcc.connectClient()
sleep(delay + 5)
self.mcc.disconnectClient()
@unittest.skip("Ignore for now.")
def testConnectAndCDAManagementStatusPubSub(self):
qos = 1
delay = self.cfg.getInteger(ConfigConst.MQTT_GATEWAY_SERVICE,
ConfigConst.KEEP_ALIVE_KEY,
ConfigConst.DEFAULT_KEEP_ALIVE)
self.mcc.connectClient()
self.mcc.subscribeToTopic(
resource=ResourceNameEnum.CDA_MGMT_STATUS_MSG_RESOURCE, qos=qos)
sleep(5)
self.mcc.publishMessage(
resource=ResourceNameEnum.CDA_MGMT_STATUS_MSG_RESOURCE,
msg="TEST: This is the CDA message payload.",
qos=qos)
sleep(5)
self.mcc.unsubscribeFromTopic(
resource=ResourceNameEnum.CDA_MGMT_STATUS_MSG_RESOURCE)
sleep(5)
sleep(delay)
self.mcc.disconnectClient()
@unittest.skip("Ignore for now.")
def testActuatorCmdPubSub(self):
qos = 0
delay = self.cfg.getInteger(ConfigConst.MQTT_GATEWAY_SERVICE,
ConfigConst.KEEP_ALIVE_KEY,
ConfigConst.DEFAULT_KEEP_ALIVE)
actuatorData = ActuatorData()
actuatorData.setCommand(7)
self.mcc.setDataMessageListener(DefaultDataMessageListener())
payload = DataUtil().actuatorDataToJson(actuatorData)
self.mcc.connectClient()
sleep(5)
self.mcc.publishMessage(
resource=ResourceNameEnum.CDA_ACTUATOR_CMD_RESOURCE,
msg=payload,
qos=qos)
sleep(delay + 5)
self.mcc.disconnectClient()
@unittest.skip("Ignore for now.")
def testCDAManagementStatusSubscribe(self):
qos = 1
delay = self.cfg.getInteger(ConfigConst.MQTT_GATEWAY_SERVICE,
ConfigConst.KEEP_ALIVE_KEY,
ConfigConst.DEFAULT_KEEP_ALIVE)
self.mcc.connectClient()
self.mcc.subscribeToTopic(
resource=ResourceNameEnum.CDA_MGMT_STATUS_CMD_RESOURCE, qos=qos)
sleep(delay)
self.mcc.disconnectClient()
@unittest.skip("Ignore for now.")
def testCDAManagementStatusPublish(self):
"""
Uncomment this test when integration between the GDA and CDA using MQTT.
"""
qos = 1
delay = self.cfg.getInteger(ConfigConst.MQTT_GATEWAY_SERVICE,
ConfigConst.KEEP_ALIVE_KEY,
ConfigConst.DEFAULT_KEEP_ALIVE)
self.mcc.connectClient()
self.mcc.publishMessage(
resource=ResourceNameEnum.CDA_MGMT_STATUS_MSG_RESOURCE,
msg="TEST: This is the CDA message payload.",
qos=qos)
sleep(delay)
self.mcc.disconnectClient()
class MqttClientConnectorTest(unittest.TestCase):
"""
This test case class contains very basic unit tests for
MqttClientConnector. It should not be considered complete,
but serve as a starting point for the student implementing
additional functionality within their Programming the IoT
environment.
"""
NS_IN_MILLIS = 1000000
MAX_TEST_RUNS = 100000
@classmethod
def setUpClass(self):
logging.basicConfig(
format='%(asctime)s:%(module)s:%(levelname)s:%(message)s',
level=logging.DEBUG)
def setUp(self):
self.mqttClient = MqttClientConnector(
clientID='CDAMqttClientPerformanceTest001')
pass
def tearDown(self):
pass
#@unittest.skip("Ignore for now.")
def testConnectAndDisconnect(self):
startTime = time.time_ns()
self.assertTrue(self.mqttClient.connectClient())
self.assertTrue(self.mqttClient.disconnectClient())
endTime = time.time_ns()
elapsedMillis = (endTime - startTime) / self.NS_IN_MILLIS
logging.info("Connect and Disconnect: " + str(elapsedMillis) + " ms")
#@unittest.skip("Ignore for now.")
def testPublishQoS0(self):
self._execTestPublish(self.MAX_TEST_RUNS, 0)
#@unittest.skip("Ignore for now.")
def testPublishQoS1(self):
self._execTestPublish(self.MAX_TEST_RUNS, 1)
#@unittest.skip("Ignore for now.")
def testPublishQoS2(self):
self._execTestPublish(self.MAX_TEST_RUNS, 2)
def _execTestPublish(self, maxTestRuns: int, qos: int):
self.assertTrue(self.mqttClient.connectClient())
sensorData = SensorData()
payload = DataUtil().sensorDataToJson(sensorData)
startTime = time.time_ns()
for seqNo in range(0, maxTestRuns):
self.mqttClient.publishMessage(
resource=ResourceNameEnum.CDA_SENSOR_MSG_RESOURCE,
msg=payload,
qos=qos)
endTime = time.time_ns()
elapsedMillis = (endTime - startTime) / self.NS_IN_MILLIS
self.assertTrue(self.mqttClient.disconnectClient())
logging.info("Publish message - QoS " + str(qos) + " [" +
str(maxTestRuns) + "]: " + str(elapsedMillis) + " ms")
class MqttClientConnectorTest(unittest.TestCase):
"""
This test case class contains very basic unit tests for
MqttClientConnector. It should not be considered complete,
but serve as a starting point for the student implementing
additional functionality within their Programming the IoT
environment.
"""
@classmethod
def setUpClass(self):
logging.basicConfig(
format='%(asctime)s:%(module)s:%(levelname)s:%(message)s',
level=logging.DEBUG)
logging.info("Testing MqttClientConnector class...")
self.cfg = ConfigUtil()
self.mcc = MqttClientConnector(
clientID='CDAMqttClientConnectorTest001')
def setUp(self):
pass
def tearDown(self):
pass
@unittest.skip("Ignore for now.")
def testConnectAndDisconnect(self):
delay = self.cfg.getInteger(ConfigConst.MQTT_GATEWAY_SERVICE,
ConfigConst.KEEP_ALIVE_KEY,
ConfigConst.DEFAULT_KEEP_ALIVE)
self.mcc.connect()
sleep(delay + 5)
self.mcc.disconnect()
@unittest.skip("Ignore for now.")
def testConnectAndPublish(self):
qos = 1
delay = self.cfg.getInteger(ConfigConst.MQTT_GATEWAY_SERVICE,
ConfigConst.KEEP_ALIVE_KEY,
ConfigConst.DEFAULT_KEEP_ALIVE)
listener = DefaultDataMessageListener()
self.mcc.connect()
self.mcc.subscribeToTopic(
ResourceNameEnum.CDA_MGMT_STATUS_MSG_RESOURCE, qos)
sleep(5)
self.mcc.publishMessage(ResourceNameEnum.CDA_MGMT_STATUS_MSG_RESOURCE,
"TEST: This is the CDA message payload.", qos)
sleep(5)
self.mcc.unsubscribeFromTopic(
ResourceNameEnum.CDA_MGMT_STATUS_MSG_RESOURCE)
sleep(5)
sleep(delay)
self.mcc.disconnect()
@unittest.skip("Ignore for now.")
def testIntegrateWithGdaSubscribeCdaCmdTopic(self):
qos = 1
delay = self.cfg.getInteger(ConfigConst.MQTT_GATEWAY_SERVICE,
ConfigConst.KEEP_ALIVE_KEY,
ConfigConst.DEFAULT_KEEP_ALIVE)
listener = DefaultDataMessageListener()
self.mcc.connect()
self.mcc.subscribeToTopic(
ResourceNameEnum.CDA_MGMT_STATUS_CMD_RESOURCE, qos)
sleep(delay)
self.mcc.disconnect()
@unittest.skip("Ignore for now.")
def testIntegrateWithGdaPublishCdaMgmtTopic(self):
qos = 1
delay = self.cfg.getInteger(ConfigConst.MQTT_GATEWAY_SERVICE,
ConfigConst.KEEP_ALIVE_KEY,
ConfigConst.DEFAULT_KEEP_ALIVE)
listener = DefaultDataMessageListener()
self.mcc.connect()
self.mcc.publishMessage(ResourceNameEnum.CDA_MGMT_STATUS_MSG_RESOURCE,
"TEST: This is the CDA message payload.", qos)
sleep(5)
self.mcc.disconnect()
def testActuatorCmdPubSub(self):
qos = 1
# NOTE: delay can be anything you'd like - the sleep() calls are simply to slow things down a bit for observation
delay = self.cfg.getInteger(ConfigConst.MQTT_GATEWAY_SERVICE,
ConfigConst.KEEP_ALIVE_KEY,
ConfigConst.DEFAULT_KEEP_ALIVE)
actuatorData = ActuatorData()
payload = DataUtil().actuatorDataToJson(actuatorData)
self.mcc.connectClient()
sleep(3)
self.mcc.publishMessage(
resource=ResourceNameEnum.CDA_ACTUATOR_CMD_RESOURCE,
msg=payload,
qos=qos)
sleep(3)
self.mcc.disconnectClient()
class MqttClientPerformanceTest(unittest.TestCase):
"""
This test case class contains very basic unit tests for
Mqtt Client Perfomance.
"""
NS_IN_MILLIS = 1000000
# NOTE: We'll use only 10,000 requests for MQTT
MAX_TEST_RUNS = 20
@classmethod
def setUpClass(self):
logging.basicConfig(
format='%(asctime)s:%(module)s:%(levelname)s:%(message)s',
level=logging.DEBUG)
def setUp(self):
self.mqttClient = MqttClientConnector(
clientID='CDAMqttClientPerformanceTest001')
pass
def tearDown(self):
pass
# @unittest.skip("Ignore for now.")
def testConnectAndDisconnect(self):
startTime = time.time_ns()
self.assertTrue(self.mqttClient.connectClient())
self.assertTrue(self.mqttClient.disconnectClient())
endTime = time.time_ns()
elapsedMillis = (endTime - startTime) / self.NS_IN_MILLIS
logging.info("Connect and Disconnect: " + str(elapsedMillis) + " ms")
# @unittest.skip("Ignore for now.")
def testPublishQoS0(self):
self._execTestPublish(self.MAX_TEST_RUNS, 0)
# @unittest.skip("Ignore for now.")
def testPublishQoS1(self):
self._execTestPublish(self.MAX_TEST_RUNS, 1)
# @unittest.skip("Ignore for now.")
def testPublishQoS2(self):
self._execTestPublish(self.MAX_TEST_RUNS, 2)
def _execTestPublish(self, maxTestRuns: int, qos: int):
self.assertTrue(self.mqttClient.connectClient())
sensorData = SensorData()
payload = DataUtil().sensorDataToJson(sensorData)
startTime = time.time_ns()
for seqNo in range(0, maxTestRuns):
self.mqttClient.publishMessage(
resource=ResourceNameEnum.CDA_SENSOR_MSG_RESOURCE,
msg=payload,
qos=qos)
endTime = time.time_ns()
elapsedMillis = (endTime - startTime) / self.NS_IN_MILLIS
self.assertTrue(self.mqttClient.disconnectClient())
logging.info("Publish message - QoS " + str(qos) + " [" +
str(maxTestRuns) + "]: " + str(elapsedMillis) + " ms")
class DeviceDataManager(IDataMessageListener):
"""
Shell representation of class for student implementation.
"""
def __init__(self, enableMqtt: bool = True, enableCoap: bool = False):
# set enable connection
self.enableMqtt = enableMqtt
self.enableCoap = enableCoap
# load config
self.configUtil = ConfigUtil()
self.enableEmulator = self.configUtil.getBoolean(ConfigConst.CONSTRAINED_DEVICE,
ConfigConst.ENABLE_EMULATOR_KEY)
self.stepmotor = StepMotorAdapterTask()
# create system Perf manager
self.sysPerfManager = SystemPerformanceManager()
# set sensor config
self.sam = SensorAdapterManager(useEmulator=self.enableEmulator)
#set actuator config
self.aam = ActuatorAdapterManager(useEmulator=self.enableEmulator)
#set data generation config
self.enableHandleTempChangeOnDevice = self.configUtil.getBoolean(ConfigConst.CONSTRAINED_DEVICE,
ConfigConst.ENABLE_HANDLE_TEMP_CHANGE_ON_DEVICE_KEY)
self.triggerHvacTempFloor = self.configUtil.getFloat(ConfigConst.CONSTRAINED_DEVICE,
ConfigConst.TRIGGER_HVAC_TEMP_FLOOR_KEY);
self.triggerHvacTempCeiling = self.configUtil.getFloat(ConfigConst.CONSTRAINED_DEVICE,
ConfigConst.TRIGGER_HVAC_TEMP_CEILING_KEY);
#self.stepmotor.moveTo(-40,-40,True)
# set Mqtt client
if enableMqtt is True:
self.mqttClient = MqttClientConnector()
#self.mqttClient.subscribeToTopic(ResourceNameEnum.CDA_ACTUATOR_RESPONSE_RESOURCE.value)
#self.mqttClient.subscribeToTopic(ResourceNameEnum.CDA_ACTUATOR_CMD_RESOURCE.value)
self.mqttClient.subscribeToTopic("ProgrammingIoT/StepMotor/Instruction")
#self.mqttClient.mc.message_callback_add(callback=self.actuatorCallBack, sub=ResourceNameEnum.CDA_ACTUATOR_CMD_RESOURCE.value)
self.mqttClient.mc.message_callback_add(callback=self.stepMotorCallBack, sub="ProgrammingIoT/StepMotor/Instruction")
def actuatorCallBack(self,client, userdata, message):
logging.info("MQTT CallBack:%s,%s" % (message.topic, message.payload))
self._handleIncomingDataAnalysis(message)
def stepMotorCallBack(self,client, userdata, message):
logging.info("MQTT CallBack:%s,%s" % (message.topic, message.payload))
point = str(message.payload.decode()).split(",")
if len(point) == 2:
self.stepmotor.moveTo(int(point[0]),int(point[1]),True)
def handleActuatorCommandResponse(self, data: ActuatorData) -> bool:
logging.info("handleActuatorCommandResponse called")
#pass data to handler
super().handleActuatorCommandResponse(data)
#translate data to json and set updstream
du = DataUtil()
self._handleUpstreamTransmission(ResourceNameEnum.CDA_ACTUATOR_RESPONSE_RESOURCE.value, du.actuatorDataToJson(data))
def handleIncomingMessage(self, resourceEnum: ResourceNameEnum, msg: str) -> bool:
logging.info("handleIncommingMessage called")
#translate json to object and pass it to analysis
du = DataUtil()
du.jsonToActuatorData(msg)
self._handleIncomingDataAnalysis(msg)
def handleSensorMessage(self, data: SensorData) -> bool:
logging.info("handleSensorMessage called")
super().handleSensorMessage(data)
# translate sensor data to json and handle it
du = DataUtil()
self._handleUpstreamTransmission(ResourceNameEnum.CDA_SENSOR_MSG_RESOURCE.value, du.sensorDataToJson(data))
self._handleSensorDataAnalysis(data)
def handleSystemPerformanceMessage(self, data: SystemPerformanceData) -> bool:
logging.info("handleSystemPerformanceMessage called")
#translate sys perf data to json and set upstream
du = DataUtil()
self._handleUpstreamTransmission(ResourceNameEnum.CDA_SYSTEM_PERF_MSG_RESOURC.value, du.systemPerformanceDataToJson(data))
def startManager(self):
#start manager
self.sysPerfManager.startManager()
self.sam.startManager()
self.sam.setDataMessageListener(self)
self.mqttClient.connectClient()
def stopManager(self):
#stop manager
self.sysPerfManager.stopManager()
self.sam.stopManager()
self.mqttClient.disconnectClient()
def _handleIncomingDataAnalysis(self, msg: str):
"""
Call this from handleIncomeMessage() to determine if there's
any action to take on the message. Steps to take:
1) Validate msg: Most will be ActuatorData, but you may pass other info as well.
2) Convert msg: Use DataUtil to convert if appropriate.
3) Act on msg: Determine what - if any - action is required, and execute.
"""
logging.info("_handleIncomingDataAnalysis called，msg:"+str(msg))
#du = DataUtil()
#self.aam.sendActuatorCommand(du.jsonToActuatorData(msg))
def _handleSensorDataAnalysis(self, data: SensorData):
"""
Call this from handleSensorMessage() to determine if there's
any action to take on the message. Steps to take:
1) Check config: Is there a rule or flag that requires immediate processing of data?
2) Act on data: If # 1 is true, determine what - if any - action is required, and execute.
"""
logging.info("_handleSensorDataAnalysis called，msg:"+str(data))
if self.enableHandleTempChangeOnDevice is True:
hvac = ActuatorData(ActuatorData.HVAC_ACTUATOR_TYPE)
if data.getValue() < self.triggerHvacTempCeiling and data.getValue() > self.triggerHvacTempFloor:
# start hvac when in trigger range
hvac.setCommand(ActuatorData.COMMAND_ON)
else:
# stop hvac when not in range
hvac.setCommand(ActuatorData.COMMAND_OFF)
# send command
self.aam.sendActuatorCommand(hvac)
def handleActuatorCommandMessage(self, data: ActuatorData) -> bool:
if data:
logging.info("Processing actuator command message.")
# TODO: add further validation before sending the command
self.aam.sendActuatorCommand(data)
return True
else:
logging.warning("Received invalid ActuatorData command message. Ignoring.")
return False
def _handleUpstreamTransmission(self, resourceName: ResourceNameEnum, msg: str):
"""
Call this from handleActuatorCommandResponse(), handlesensorMessage(), and handleSystemPerformanceMessage()
to determine if the message should be sent upstream. Steps to take:
1) Check connection: Is there a client connection configured (and valid) to a remote MQTT or CoAP server?
2) Act on msg: If # 1 is true, send message upstream using one (or both) client connections.
"""
logging.info("_handleUpstreamTransmission called")
# send message to mqtt broker
if self.enableMqtt is True:
self.mqttClient.publishMessage(resourceName, msg)
class DeviceDataManager(IDataMessageListener):
"""
Shell representation of class for student implementation.
"""
def __init__(self, enableMqtt: bool = True, enableCoap: bool = False):
"""
Initialization of class.
Create an instance of DeviceDataManager
"""
self.configUtil = ConfigUtil()
self.enableEmulator = self.configUtil.getBoolean(
ConfigConst.CONSTRAINED_DEVICE, ConfigConst.ENABLE_EMULATOR_KEY)
self.enableRedis = False
self.sysPerfManager = SystemPerformanceManager()
self.sysPerfManager.setDataMessageListener(self)
self.sensorAdapterManager = SensorAdapterManager(
useEmulator=self.enableEmulator)
self.sensorAdapterManager.setDataMessageListener(self)
self.actuatorAdapterManager = ActuatorAdapterManager(
useEmulator=self.enableEmulator)
self.actuatorAdapterManager.setDataMessageListener(self)
##add by miaoyao @10/30/2020
if self.enableRedis:
self.redisClient = RedisPersistenceAdapter()
self.enableHandleTempChangeOnDevice = self.configUtil.getBoolean(
ConfigConst.CONSTRAINED_DEVICE,
ConfigConst.ENABLE_HANDLE_TEMP_CHANGE_ON_DEVICE_KEY)
self.triggerHvacTempFloor = self.configUtil.getFloat(
ConfigConst.CONSTRAINED_DEVICE,
ConfigConst.TRIGGER_HVAC_TEMP_FLOOR_KEY)
self.triggerHvacTempCeiling = self.configUtil.getFloat(
ConfigConst.CONSTRAINED_DEVICE,
ConfigConst.TRIGGER_HVAC_TEMP_CEILING_KEY)
##add by miaoyao for final project
self.enableHandleSoilHumidityChangeOnDevice = self.configUtil.getBoolean(
ConfigConst.CONSTRAINED_DEVICE,
ConfigConst.ENABLE_HANDLE_SOIL_HUMIDITY_CHANGE_ON_DEVICE_KEY)
self.triggerWaterDeviceHumiFloor = self.configUtil.getFloat(
ConfigConst.CONSTRAINED_DEVICE,
ConfigConst.TRIGGER_WATER_SOIL_HUMI_FLOOR_KEY)
self.triggerWaterDeviceHumiCeiling = self.configUtil.getFloat(
ConfigConst.CONSTRAINED_DEVICE,
ConfigConst.TRIGGER_WATER_SOIL_HUMI_CEILING_KEY)
##add by miaoyao @11/02/2020
##self.enableMqtt = self.configUtil.getBoolean(ConfigConst.CONSTRAINED_DEVICE, ConfigConst.ENABLE_MQTT_KEY)
self.enableMqtt = enableMqtt
self.enableCoap = enableCoap
if self.enableMqtt:
self.mqttClient = MqttClientConnector()
self.mqttClient.setDataMessageListener(self)
if self.enableCoap:
self.coapClient = CoapClientConnector()
self.coapClient.setDataMessageListener(self)
def handleActuatorCommandResponse(self, data: ActuatorData) -> bool:
"""
handle the ActuatorCommandResponse
@return bool
"""
# Use the DataUtil class to convert the ActuatorData to JSON.
logging.info(
"[CDA_CALLBACK]----->>>The handleActuatorCommandResponse method is being called"
)
adJson = DataUtil.actuatorDataToJson(self, data)
self._handleUpstreamTransmission(
ResourceNameEnum.CDA_ACTUATOR_RESPONSE_RESOURCE, adJson)
def handleActuatorCommandMessage(self, data: ActuatorData) -> bool:
"""
handle the handleActuatorCommandMessage
@return bool
"""
logging.info(
"[CDA_CALLBACK]----->>>The handleActuatorCommandMessage method is being called"
)
if data:
logging.info("Processing actuator command message.")
# TODO: add further validation before sending the command
self.actuatorAdapterManager.sendActuatorCommand(data)
return True
else:
logging.warning(
"Received invalid ActuatorData command message. Ignoring.")
return False
def handleIncomingMessage(self, resourceEnum: ResourceNameEnum,
msg: str) -> bool:
"""
handle the IncomingMessage
@return bool
"""
logging.info(
"[CDA_CALLBACK]----->>>The handleIncomingMessage method is being called"
)
# Use the DataUtil class to convert the msg content (which should be JSON) to an ActuatorData instance
ad = DataUtil.jsonToActuatorData(self, msg)
self._handleIncomingDataAnalysis(msg)
def handleSensorMessage(self, data: SensorData) -> bool:
"""
handle the SensorMessage
@return bool
"""
logging.info(
"[CDA_CALLBACK]----->>>The handleSensorMessage method is being called"
)
# Use the DataUtil class to convert the SensorData to JSON
sdJosn = DataUtil.sensorDataToJson(self, data)
self._handleUpstreamTransmission(
ResourceNameEnum.CDA_SENSOR_MSG_RESOURCE, sdJosn)
self._handleSensorDataAnalysis(data)
if self.enableRedis:
self.redisClient.storeData(
ResourceNameEnum.CDA_SENSOR_MSG_RESOURCE, data)
def handleSystemPerformanceMessage(self,
data: SystemPerformanceData) -> bool:
"""
handle the SystemPerformanceMessage
@return bool
"""
logging.info(
"[CDA_CALLBACK]----->>>The handleSystemPerformanceMessage method is being called"
)
spmJson = DataUtil.systemPerformanceDataToJson(self, data)
self._handleUpstreamTransmission(
ResourceNameEnum.CDA_SYSTEM_PERF_MSG_RESOURCE, spmJson)
def startManager(self):
"""
Start the DeviceDataManager.
Calls startManager() on the sysPerfManager instance.
Calls startManager() on the sensorAdapterManager instance.
"""
logging.info("----->>>The DeviceDataManager will be started")
self.sysPerfManager.startManager()
self.sensorAdapterManager.startManager()
if self.enableRedis:
self.redisClient.connectClient()
if self.enableMqtt:
self.mqttClient.connectClient()
def stopManager(self):
"""
Stop the DeviceDataManager.
Calls stopManager() on the sysPerfManager instance.
Calls stopManager() on the sensorAdapterManager instance.
"""
self.sysPerfManager.stopManager()
self.sensorAdapterManager.stopManager()
if self.enableRedis:
self.redisClient.disconnectClient()
if self.enableMqtt:
self.mqttClient.disconnectClient()
logging.info("----->>>The DeviceDataManager stopped")
def _handleIncomingDataAnalysis(self, msg: str):
"""
Call this from handleIncomeMessage() to determine if there's
any action to take on the message. Steps to take:
1) Validate msg: Most will be ActuatorData, but you may pass other info as well.
2) Convert msg: Use DataUtil to convert if appropriate.
3) Act on msg: Determine what - if any - action is required, and execute.
"""
logging.info(
"[CDA_CALLBACK]----->>>The _handleIncomingDataAnalysis method is being called"
)
ad = DataUtil.jsonToActuatorData(self, msg)
self.actuatorAdapterManager.sendActuatorCommand(ad)
def _handleSensorDataAnalysis(self, data: SensorData):
"""
Call this from handleSensorMessage() to determine if there's
any action to take on the message. Steps to take:
1) Check config: Is there a rule or flag that requires immediate processing of data?
2) Act on data: If # 1 is true, determine what - if any - action is required, and execute.
"""
logging.info(
"[CDA_CALLBACK]----->>>The _handleSensorDataAnalysis method is being called"
)
"""
"""
if self.enableHandleTempChangeOnDevice and data.getSensorType(
) == SensorData.TEMP_SENSOR_TYPE:
ad = ActuatorData(actuatorType=ActuatorData.HVAC_ACTUATOR_TYPE)
value = data.getValue()
if value >= self.triggerHvacTempFloor and value <= self.triggerHvacTempCeiling:
ad.setCommand(ActuatorData.COMMAND_OFF)
else:
ad.setCommand(ActuatorData.COMMAND_ON)
self.actuatorAdapterManager.sendActuatorCommand(ad)
"""
"""
if self.enableHandleSoilHumidityChangeOnDevice and data.getSensorType(
) == SensorData.SOIL_HUMIDITY_SENSOR_TYPE:
ad = ActuatorData(
actuatorType=ActuatorData.SPRINKLER_ACTUATOR_TYPE)
value = data.getValue()
if value >= self.triggerWaterDeviceHumiCeiling:
ad.setCommand(ActuatorData.COMMAND_OFF)
self.actuatorAdapterManager.sendActuatorCommand(ad)
elif value <= self.triggerWaterDeviceHumiFloor:
ad.setCommand(ActuatorData.COMMAND_ON)
self.actuatorAdapterManager.sendActuatorCommand(ad)
self.coapClient.sendGetRequest(
ResourceNameEnum.CDA_ACTUATOR_CMD_RESOURCE, False, 5)
else:
self.coapClient.sendGetRequest(
ResourceNameEnum.CDA_CLOUD_ACTUATOR_CMD_RESOURCE, False, 5)
def _handleUpstreamTransmission(self, resourceName: ResourceNameEnum,
msg: str):
"""
Call this from handleActuatorCommandResponse(), handlesensorMessage(), and handleSystemPerformanceMessage()
to determine if the message should be sent upstream. Steps to take:
1) Check connection: Is there a client connection configured (and valid) to a remote MQTT or CoAP server?
2) Act on msg: If # 1 is true, send message upstream using one (or both) client connections.
"""
logging.info(
"[callback]----->>>The _handleUpstreamTransmission method is being called"
)
if self.enableMqtt:
self.mqttClient.publishMessage(resourceName, msg)
"""
