def __init__(self, rendezvousAddr=None):
self.lastNetworkId = None
Cmd.__init__(self)
Cmd.identchars = string.ascii_letters + string.digits + "-"
if sys.stdin.isatty():
self.prompt = "chip-device-ctrl > "
else:
self.use_rawinput = 0
self.prompt = ""
DeviceMgrCmd.command_names.sort()
self.bleMgr = None
self.devCtrl = ChipDeviceCtrl.ChipDeviceController()
self.historyFileName = os.path.expanduser(
"~/.chip-device-ctrl-history")
try:
import readline
if "libedit" in readline.__doc__:
readline.parse_and_bind("bind ^I rl_complete")
readline.set_completer_delims(" ")
try:
readline.read_history_file(self.historyFileName)
except IOError:
pass
except ImportError:
pass
def __init__(self,
rendezvousAddr=None,
controllerNodeId=0,
bluetoothAdapter=None):
self.lastNetworkId = None
Cmd.__init__(self)
Cmd.identchars = string.ascii_letters + string.digits + "-"
if sys.stdin.isatty():
self.prompt = "chip-device-ctrl > "
else:
self.use_rawinput = 0
self.prompt = ""
DeviceMgrCmd.command_names.sort()
self.bleMgr = None
self.devCtrl = ChipDeviceCtrl.ChipDeviceController(
controllerNodeId=controllerNodeId,
bluetoothAdapter=bluetoothAdapter)
self.commissionableNodeCtrl = ChipCommissionableNodeCtrl.ChipCommissionableNodeController(
)
# If we are on Linux and user selects non-default bluetooth adapter.
if sys.platform.startswith("linux") and (bluetoothAdapter is not None):
try:
self.bleMgr = BleManager(self.devCtrl)
self.bleMgr.ble_adapter_select(
"hci{}".format(bluetoothAdapter))
except Exception as ex:
traceback.print_exc()
print(
"Failed to initialize BLE, if you don't have BLE, run chip-device-ctrl with --no-ble"
)
raise ex
self.historyFileName = os.path.expanduser(
"~/.chip-device-ctrl-history")
try:
import readline
if "libedit" in readline.__doc__:
readline.parse_and_bind("bind ^I rl_complete")
readline.set_completer_delims(" ")
try:
readline.read_history_file(self.historyFileName)
except IOError:
pass
except ImportError:
pass
def NewController(self,
nodeId: int = None,
paaTrustStorePath: str = "",
useTestCommissioner: bool = False,
catTags: List[int] = []):
''' Create a new chip.ChipDeviceCtrl.ChipDeviceController instance on this fabric.
When vending ChipDeviceController instances on a given fabric, each controller instance
is associated with a unique fabric index local to the running process. In the underlying FabricTable, each FabricInfo
instance can be treated as unique identities that can collide on the same logical fabric.
nodeId: NodeID to be assigned to the controller. Automatically allocates one starting from 112233 if one
is not provided.
paaTrustStorePath: Path to the PAA trust store. If one isn't provided, a suitable default is selected.
useTestCommissioner: If a test commmisioner is to be created.
catTags: A list of 32-bit CAT tags that will added to the NOC generated for this controller.
'''
if (not (self._isActive)):
raise RuntimeError(
f"FabricAdmin object was previously shutdown and is no longer valid!"
)
nodeIdList = [
controller.nodeId for controller in self._activeControllers
if controller.isActive
]
if (nodeId is None):
if (len(nodeIdList) != 0):
nodeId = max(nodeIdList) + 1
else:
nodeId = 112233
else:
if (nodeId in nodeIdList):
raise RuntimeError(
f"Provided NodeId {nodeId} collides with an existing controller instance!"
)
self.logger().warning(
f"Allocating new controller with CaIndex: {self._certificateAuthority.caIndex}, FabricId: 0x{self._fabricId:016X}, NodeId: 0x{nodeId:016X}, CatTags: {catTags}"
)
controller = ChipDeviceCtrl.ChipDeviceController(
opCredsContext=self._certificateAuthority.GetOpCredsContext(),
fabricId=self._fabricId,
nodeId=nodeId,
adminVendorId=self._vendorId,
paaTrustStorePath=paaTrustStorePath,
useTestCommissioner=useTestCommissioner,
fabricAdmin=self,
catTags=catTags)
self._activeControllers.append(controller)
return controller
def test_lock_ctrl(device, network):
network_ssid = network[0]
network_pass = network[1]
devCtrl = ChipDeviceCtrl.ChipDeviceController()
device_details = get_device_details(device)
assert device_details != None and len(device_details) != 0
assert check_chip_ble_devices_advertising(devCtrl, BLE_DEVICE_NAME,
device_details)
ret = connect_device_over_ble(devCtrl,
int(device_details["Discriminator"]),
int(device_details["SetUpPINCode"]),
DEVICE_NODE_ID)
assert ret != None and ret == DEVICE_NODE_ID
ret = device.wait_for_output("Device completed Rendezvous process")
assert ret != None and len(ret) > 0
ret = commissioning_wifi(devCtrl, network_ssid, network_pass,
DEVICE_NODE_ID)
assert ret == 0
ret = resolve_device(devCtrl, DEVICE_NODE_ID)
assert ret != None and len(ret) == 2
err, res = send_zcl_command(devCtrl,
"OnOff Off {} 1 0".format(DEVICE_NODE_ID))
assert err == 0
ret = device.wait_for_output("Unlock Action has been completed", 20)
assert ret != None and len(ret) > 0
err, res = send_zcl_command(devCtrl,
"OnOff On {} 1 0".format(DEVICE_NODE_ID))
assert err == 0
ret = device.wait_for_output("Lock Action has been completed", 20)
assert ret != None and len(ret) > 0
err, res = send_zcl_command(devCtrl,
"OnOff Toggle {} 1 0".format(DEVICE_NODE_ID))
assert err == 0
ret = device.wait_for_output("Unlock Action has been completed", 20)
assert ret != None and len(ret) > 0
assert close_connection(devCtrl, DEVICE_NODE_ID)
assert close_ble(devCtrl)
def test_wifi_provisioning(device, network):
network_ssid = network[0]
network_pass = network[1]
devCtrl = ChipDeviceCtrl.ChipDeviceController()
device_details = get_device_details(device)
assert device_details != None and len(device_details) != 0
assert check_chip_ble_devices_advertising(devCtrl, BLE_DEVICE_NAME,
device_details)
ret = connect_device_over_ble(devCtrl,
int(device_details["Discriminator"]),
int(device_details["SetUpPINCode"]),
DEVICE_NODE_ID)
assert ret != None and ret == DEVICE_NODE_ID
ret = device.wait_for_output("Device completed Rendezvous process")
assert ret != None and len(ret) > 0
ret = commissioning_wifi(devCtrl, network_ssid, network_pass,
DEVICE_NODE_ID)
assert ret == 0
ret = device.wait_for_output("StationConnected")
assert ret != None and len(ret) > 0
ret = device.wait_for_output("address set")
assert ret != None and len(ret) > 0
device_ip_address = ret[-1].partition("address set:")[2].strip()
ret = resolve_device(devCtrl, DEVICE_NODE_ID)
assert ret != None and len(ret) == 2
ip_address = ret[0]
port = ret[1]
assert device_ip_address == ip_address
assert close_connection(devCtrl, DEVICE_NODE_ID)
assert close_ble(devCtrl)
def NewController(self,
nodeId: int = None,
useTestCommissioner: bool = False):
''' Vend a new controller on this fabric seeded with the right fabric details.
'''
if (not (self._isActive)):
raise RuntimeError(
f"FabricAdmin object was previously shutdown and is no longer valid!"
)
if (nodeId is None):
nodeId = self.nextControllerId
self.nextControllerId = self.nextControllerId + 1
print(
f"Allocating new controller with FabricId: {self._fabricId}({self._fabricIndex}), NodeId: {nodeId}"
)
controller = ChipDeviceCtrl.ChipDeviceController(
self.closure, self._fabricId, self._fabricIndex, nodeId,
useTestCommissioner)
return controller
def test_ble_adv_check(device):
devCtrl = ChipDeviceCtrl.ChipDeviceController()
ret = device.send(command="ble adv start", expected_output="Done")
assert ret != None and len(ret) > 0
ret = device.send(command="ble adv state", expected_output="Done")
assert ret != None and len(ret) > 1
assert "enabled" in ret[-2].split()[-1]
sleep(1)
assert check_chip_ble_devices_advertising(devCtrl, BLE_DEVICE_NAME)
ret = device.send(command="ble adv stop", expected_output="Done")
assert ret != None and len(ret) > 0
ret = device.send(command="ble adv state", expected_output="Done")
assert ret != None and len(ret) > 1
assert "disabled" in ret[-2].split()[-1]
sleep(1)
assert not check_chip_ble_devices_advertising(devCtrl, BLE_DEVICE_NAME)
def __init__(self, nodeid: int):
self.devCtrl = ChipDeviceCtrl.ChipDeviceController(
controllerNodeId=nodeid)
self.logger = logger
self.commissionableNodeCtrl = ChipCommissionableNodeCtrl.ChipCommissionableNodeController(
)
def test_light_ctrl(device, network):
network_ssid = network[0]
network_pass = network[1]
devCtrl = ChipDeviceCtrl.ChipDeviceController()
device_details = get_device_details(device)
assert device_details != None and len(device_details) != 0
assert check_chip_ble_devices_advertising(devCtrl, BLE_DEVICE_NAME,
device_details)
ret = connect_device_over_ble(devCtrl,
int(device_details["Discriminator"]),
int(device_details["SetUpPINCode"]),
DEVICE_NODE_ID)
assert ret != None and ret == DEVICE_NODE_ID
ret = device.wait_for_output("Device completed Rendezvous process")
assert ret != None and len(ret) > 0
ret = commissioning_wifi(devCtrl, network_ssid, network_pass,
DEVICE_NODE_ID)
assert ret == 0
ret = resolve_device(devCtrl, DEVICE_NODE_ID)
assert ret != None and len(ret) == 2
err, res = send_zcl_command(devCtrl,
"OnOff On {} 1 0".format(DEVICE_NODE_ID))
assert err == 0
ret = device.wait_for_output("Turn On Action has been completed", 20)
assert ret != None and len(ret) > 0
err, res = send_zcl_command(devCtrl,
"OnOff Off {} 1 0".format(DEVICE_NODE_ID))
assert err == 0
ret = device.wait_for_output("Turn Off Action has been completed", 20)
assert ret != None and len(ret) > 0
err, res = send_zcl_command(devCtrl,
"OnOff Toggle {} 1 0".format(DEVICE_NODE_ID))
assert err == 0
ret = device.wait_for_output("Turn On Action has been completed", 20)
assert ret != None and len(ret) > 0
err, res = send_zcl_command(
devCtrl,
"LevelControl MoveToLevel {} 1 0 level={} transitionTime=1 optionMask=0 optionOverride=0"
.format(DEVICE_NODE_ID, TEST_BRIGHTNESS_LEVEL))
assert err == 0
ret = device.wait_for_output(
"Setting brightness level to {}".format(TEST_BRIGHTNESS_LEVEL), 20)
assert ret != None and len(ret) > 0
assert close_connection(devCtrl, DEVICE_NODE_ID)
assert close_ble(devCtrl)
def __init__(self, nodeid: int):
self.devCtrl = ChipDeviceCtrl.ChipDeviceController(
controllerNodeId=nodeid)
self.logger = logger
def deviceController(self):
if self._deviceController is None:
self._deviceController = ChipDeviceCtrl.ChipDeviceController()
return self._deviceController