Link and adapt to plugwise v1.6.0 #770
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WalkthroughThe pull request introduces significant refactoring of the Plugwise integration, focusing on transitioning from a device-centric to an entity-centric model. Key changes include updates to climate entity handling based on gateway types, renaming constants for clarity, and modifying the data structure in JSON files. The integration now supports zone-based climate entities for the Adam device and includes updates to the associated tests and documentation to reflect these changes. Changes
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Actionable comments posted: 6
🧹 Outside diff range and nitpick comments (31)
tests/components/plugwise/fixtures/smile_p1_v2/all_data.json (2)
5-5: Improve location field valueThe location field currently contains the device ID. Consider using a more meaningful location name that represents where the device is installed (e.g., "utility_room", "meter_cabinet").
26-26: Improve test device ID and location
- The gateway device ID uses a test pattern that might not match real-world patterns. Consider using a more realistic UUID format.
- The location field references another device's ID. Consider using a meaningful location name.
Also applies to: 29-29
tests/components/plugwise/fixtures/p1v4_442_single/all_data.json (1)
Test fixture is missing phase two and three electricity consumption sensors
The test fixture is missing some P1 smart meter sensors that are defined in the codebase:
electricity_phase_two_consumedelectricity_phase_three_consumedelectricity_phase_two_producedelectricity_phase_three_producedThese sensors are defined in
const.pyand tested intest_sensor.py, but are not present in the current fixture. Consider adding these sensors to ensure comprehensive testing of multi-phase electricity metering scenarios.🔗 Analysis chain
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2-54: Verify test data completeness for P1 smart meterThe mock data includes essential P1 smart meter readings (consumption, production, phases) which is good for testing. However, let's ensure this test fixture adequately covers all possible scenarios.
🏁 Scripts executed
The following scripts were executed for the analysis:
Script:
#!/bin/bash # Description: Verify test data coverage by comparing with other P1 fixtures # Find and compare all P1 test fixtures echo "Comparing P1 test fixtures..." fd -g "*p1v4*/*.json" tests/components/plugwise/fixtures -x jq -r '.device_zones[] | select(.dev_class == "smartmeter") | .sensors | keys[]' {} \; | sort -u # Check for any additional sensor keys in the codebase echo "Checking for additional sensor references in code..." rg "electricity_" --type pythonLength of output: 408
Script:
#!/bin/bash # Let's try a different approach to verify P1 test data coverage # First, find all P1 test fixture files echo "Finding P1 test fixtures..." fd -e json -p "*p1v4*" tests/components/plugwise/fixtures # Then examine sensor keys in each fixture echo -e "\nExamining sensor data in fixtures..." for f in $(fd -e json -p "*p1v4*" tests/components/plugwise/fixtures); do echo -e "\nFile: $f" jq -r '.device_zones | to_entries[] | select(.value.dev_class == "smartmeter") | .value.sensors | keys[]' "$f" 2>/dev/null || echo "No smartmeter data found" done # Search for electricity-related sensor references in Python files echo -e "\nSearching for electricity sensor references..." fd -e py . | xargs grep -l "electricity_" 2>/dev/nullLength of output: 1074
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#!/bin/bash # Let's fix the fd command and check the sensor definitions # Find P1 test fixtures using glob pattern echo "Finding P1 test fixtures..." fd --glob "*p1v4*.json" tests/components/plugwise/fixtures # Check sensor definitions in const.py echo -e "\nChecking sensor definitions in const.py..." cat custom_components/plugwise/const.py | grep -A 1 "electricity_" # Check test assertions in test_sensor.py echo -e "\nChecking test assertions in test_sensor.py..." cat tests/components/plugwise/test_sensor.py | grep -A 1 "electricity_"Length of output: 3173
custom_components/plugwise/button.py (2)
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39-43: Remove commented out code and LGTM!The implementation change from list comprehension to explicit loop improves readability and debugging capabilities. The logic correctly adapts to the new device_zones structure.
Remove the commented out code (lines 33-38) as it's no longer needed and could cause confusion.
42-42: Use defensive dictionary access for loggingWhile the debug logging is helpful, accessing the device name directly could raise a KeyError if the 'name' key is missing.
Consider using a more defensive approach:
- LOGGER.debug("Add %s reboot button", device["name"]) + LOGGER.debug("Add %s reboot button", device.get("name", device_id))tests/components/plugwise/fixtures/p1v4_442_triple/all_data.json (1)
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1-89: Consider adding schema documentationThe fixture contains a complex data structure with various sensor readings and device information. Consider adding a JSON schema file or documentation to help maintainers understand the expected format and valid ranges for each field.
Would you like me to help create a JSON schema file that documents this structure?
tests/components/plugwise/fixtures/m_anna_heatpump_cooling/all_data.json (1)
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1-143: Consider adding schema documentation.The JSON structure contains a comprehensive representation of a heat pump system with cooling capabilities. Consider documenting the schema to help developers understand:
- The relationship between devices and zones
- The meaning and valid ranges of each parameter
- Required vs optional fields
Would you like me to help create a schema documentation file?
tests/components/plugwise/fixtures/m_anna_heatpump_idle/all_data.json (1)
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1-150: Consider adding edge cases to the test fixture.While the current fixture provides good coverage for normal operation, consider adding test cases for:
- Empty device zones
- Devices with missing optional fields
- Maximum/minimum values for numeric fields
Would you like me to propose additional test scenarios to enhance coverage?
tests/components/plugwise/fixtures/anna_v4/all_data.json (3)
5-9: Consider using English names for consistencyThe schedule name "Thuiswerken" (Dutch for "Working from home") might cause confusion in an English-based codebase. Consider using English names in test fixtures for better maintainability and understanding across the team.
"available_schedules": [ "Standaard", - "Thuiswerken", + "Work from home", "off" ]
52-52: Use a realistic MAC address format in test fixturesThe MAC address "012345670001" doesn't follow the standard MAC address format (XX:XX:XX:XX:XX:XX). Consider using a realistic format to better represent production scenarios.
- "mac_address": "012345670001", + "mac_address": "01:23:45:67:00:01",
1-107: Well-structured test fixture that aligns with the new device zones approachThe fixture provides comprehensive coverage for testing the Plugwise integration with realistic data for all device types. The structure properly reflects the transition from individual devices to device zones as mentioned in the PR objectives.
Consider adding comments in the fixture file to document:
- The purpose of each device zone
- The relationship between devices
- Any specific test scenarios this fixture is designed to cover
custom_components/plugwise/select.py (1)
141-145: Consider enhancing error handlingThe command implementation looks good, but consider adding error handling to provide more specific error messages when setting the select option fails.
Example enhancement:
await self.coordinator.api.set_select( self.entity_description.key, self._location, option, STATE_ON ) + self.coordinator.async_set_updated_data(await self.coordinator.api.get_data()) LOGGER.debug( "Set %s to %s was successful", self.entity_description.key, option, ) +except Exception as err: + LOGGER.error( + "Error setting %s to %s: %s", + self.entity_description.key, + option, + err, + ) + raisecustom_components/plugwise/switch.py (2)
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89-95: Remove or update the commented out code block.The "Upstream consts" commented code block should either be removed or updated to reflect the new device zones structure, as keeping outdated commented code can lead to confusion.
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97-107: Consider the necessity of debug logging in production code.While debug logging is helpful during development, consider whether this level of logging is necessary for production, especially in a performance-sensitive component like switch control.
- LOGGER.debug( - "Add %s %s switch", device["name"], description.translation_key - )custom_components/plugwise/number.py (2)
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82-103: Remove commented-out code.The old implementation is commented out but should be removed as it's no longer needed and the git history can serve as reference if needed.
- # Upstream consts - # async_add_entities( - # PlugwiseNumberEntity(coordinator, device_id, description) - # for device_id in coordinator.new_devices - # for description in NUMBER_TYPES - # if description.key in coordinator.data.devices[device_id] - # )The implementation change from device-based to zone-based structure looks good, and the added debug logging will help with troubleshooting.
125-136: Clean up redundant "Upstream const" comments.The implementation changes for zone-based access look good, but the inline comments marked as "Upstream const" are redundant and should be removed for better readability.
- self.actuator = self.device_zone[description.key] # Upstream + self.actuator = self.device_zone[description.key] - self._attr_native_max_value = self.device_zone[description.key][UPPER_BOUND] # Upstream const + self._attr_native_max_value = self.device_zone[description.key][UPPER_BOUND] - self._attr_native_min_value = self.device_zone[description.key][LOWER_BOUND] # Upstream const + self._attr_native_min_value = self.device_zone[description.key][LOWER_BOUND] - native_step = self.device_zone[description.key][RESOLUTION] # Upstream const + native_step = self.device_zone[description.key][RESOLUTION]custom_components/plugwise/__init__.py (2)
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135-144: LGTM! Consider adding debug logging for traceability.The migration logic for outdoor temperature sensors correctly adapts to the new device zones structure. The code properly handles the migration by checking device class and entity existence.
Consider adding debug logging to track successful migrations:
new_unique_id = f"{device_id}-outdoor_air_temperature" + LOGGER.debug("Migrating sensor %s to %s", old_unique_id, new_unique_id) ent_reg.async_update_entity(entity_id, new_unique_id=new_unique_id)
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146-167: LGTM! Consider adding error handling.The migration logic correctly handles downgrade scenarios by removing CONF_TIMEOUT while preserving other configuration data. The version checks and logging are comprehensive.
Consider adding try-except blocks to handle potential errors during migration:
async def async_migrate_entry(hass: HomeAssistant, entry: ConfigEntry) -> bool: """Migrate back to v1.1 config entry.""" - if entry.version > 1: - # This means the user has downgraded from a future version - return False + try: + if entry.version > 1: + # This means the user has downgraded from a future version + return False - if entry.version == 1 and entry.minor_version == 2: - new_data = {**entry.data} - new_data.pop(CONF_TIMEOUT) - hass.config_entries.async_update_entry( - entry, data=new_data, minor_version=1, version=1 - ) + if entry.version == 1 and entry.minor_version == 2: + new_data = {**entry.data} + new_data.pop(CONF_TIMEOUT) + hass.config_entries.async_update_entry( + entry, data=new_data, minor_version=1, version=1 + ) - LOGGER.debug( - "Migration to version %s.%s successful", - entry.version, - entry.minor_version, - ) + LOGGER.debug( + "Migration to version %s.%s successful", + entry.version, + entry.minor_version, + ) - return True + return True + except Exception as err: + LOGGER.error( + "Migration to version %s.%s failed: %s", + entry.version, + entry.minor_version, + err, + ) + return Falsetests/components/plugwise/fixtures/m_adam_cooling/all_data.json (1)
181-220: Review the new Bathroom zone structure.The Bathroom zone configuration introduces a secondary thermostat, which is a good example of a more complex setup. A few observations:
- Temperature bounds (0.0 to 99.9) are significantly different from the Living room zone
- Both primary and secondary thermostats are referenced
Consider documenting the rationale for different temperature bounds between zones and the implications of primary/secondary thermostat configurations in the integration's documentation.
custom_components/plugwise/coordinator.py (3)
94-94: LGTM! Consider adding type hints for better clarityThe explicit initialization of PlugwiseData with device_zones and gateway keys improves code clarity.
Consider adding type hints to make the structure even clearer:
-data = PlugwiseData(device_zones={}, gateway={}) +data: PlugwiseData = PlugwiseData(device_zones: dict = {}, gateway: dict = {})
151-154: Improve logging message clarityThe current log message combines device/zone which might be confusing.
- "Removed %s device/zone %s %s from device_registry", + "Removed %s zone device %s (id: %s) from device_registry",
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135-139: Add defensive check for gateway deviceThe code assumes the gateway device exists when setting
via_device_id. Consider adding defensive programming:gateway_device = device_reg.async_get_device({(DOMAIN, data.gateway[GATEWAY_ID])}) +via_device_id = None if gateway_device is not None: via_device_id = gateway_device.id +else: + LOGGER.warning("Gateway device not found in registry")tests/components/plugwise/fixtures/m_adam_heating/all_data.json (1)
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1-237: Ensure comprehensive test coverage for the new zone-based structure.This test fixture introduces significant changes to the data structure and functionality:
- Zone-based organization with primary/secondary thermostats
- Energy monitoring capabilities
- Complex heating control scenarios
Please ensure that the test suite includes cases that verify:
- Zone-based control with multiple thermostats
- Energy monitoring accuracy
- Schedule and preset handling
- Migration from the old structure
custom_components/plugwise/binary_sensor.py (1)
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115-132: Remove commented-out code block.The commented-out code block appears to be kept for reference during the transition to device zones. Now that the transition is complete, this code should be removed to maintain cleaner and more maintainable code.
- # Upstream consts to HA - # async_add_entities( - # PlugwiseBinarySensorEntity(coordinator, device_id, description) - # for device_id in coordinator.new_devices - # if ( - # binary_sensors := coordinator.data.devices[device_id].get( - # BINARY_SENSORS - # ) - # ) - # for description in PLUGWISE_BINARY_SENSORS - # if description.key in binary_sensors - # )tests/components/plugwise/fixtures/adam_plus_anna_new/all_data.json (2)
191-194: Document low battery test scenarioThe Lisa Badkamer device has both a low battery warning and a 14% battery level. Consider adding a comment in the fixture to document that this represents a test scenario for low battery handling.
Also applies to: 202-204
76-81: Standardize energy measurement precisionThe electricity consumption/production values have inconsistent precision across different plugs:
- MediaTV: 14.8W with 3.0W interval
- Werkplek: 91.3W with 23.0W interval
- Vloerverwarming: 43.8W with 0.0W interval
Consider standardizing the precision for consistent testing.
Also applies to: 98-102, 136-140
tests/components/plugwise/test_init.py (1)
322-322: Consider adding edge case tests for device removalThe test correctly validates the basic device removal workflow using the new device_zones structure. Consider adding test cases for edge scenarios:
- Removing a non-existent device
- Removing a device with dependent entities
- Removing multiple devices simultaneously
Example test case for removing a non-existent device:
def test_remove_nonexistent_device( hass: HomeAssistant, mock_config_entry: MockConfigEntry, mock_smile_adam_heat_cool: MagicMock, device_registry: dr.DeviceRegistry, entity_registry: er.EntityRegistry, ) -> None: """Test removing a non-existent device.""" data = mock_smile_adam_heat_cool.async_update.return_value # Attempt to remove non-existent device data.device_zones.pop("non_existent_id", None) # Verify counts remain unchanged assert len(er.async_entries_for_config_entry( entity_registry, mock_config_entry.entry_id)) == 35 assert len(dr.async_entries_for_config_entry( device_registry, mock_config_entry.entry_id)) == 8Also applies to: 330-330, 334-334
custom_components/plugwise/climate.py (2)
135-139: Add a comment explaining location fallback logicThe location fallback logic could benefit from a brief comment explaining when and why the location might differ from the device_id.
self._location = device_id +# Fall back to the specific location if available in the device zone if (location := self.device_zone.get(LOCATION)) is not None: self._location = location
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259-271: Consider breaking down complex HVAC action logicThe hvac_action property handles multiple cases with different data structures. Consider extracting the Anna-specific logic into a separate method for better maintainability.
@property def hvac_action(self) -> HVACAction: self._previous_action_mode(self.coordinator) # Adam provides the hvac_action for each thermostat if (control_state := self.device_zone.get(CONTROL_STATE)) in (HVACAction.COOLING, HVACAction.HEATING, HVACAction.PREHEATING): return cast(HVACAction, control_state) if control_state == HVACMode.OFF: return HVACAction.IDLE - # Anna - heater: str = self.coordinator.data.gateway["heater_id"] - heater_data = self.coordinator.data.device_zones[heater] - if heater_data[BINARY_SENSORS][HEATING_STATE]: - return HVACAction.HEATING - if heater_data[BINARY_SENSORS].get(COOLING_STATE, False): - return HVACAction.COOLING + return self._get_anna_hvac_action() return HVACAction.IDLE + +def _get_anna_hvac_action(self) -> HVACAction: + """Get HVAC action for Anna thermostat.""" + heater: str = self.coordinator.data.gateway["heater_id"] + heater_data = self.coordinator.data.device_zones[heater] + if heater_data[BINARY_SENSORS][HEATING_STATE]: + return HVACAction.HEATING + if heater_data[BINARY_SENSORS].get(COOLING_STATE, False): + return HVACAction.COOLING + return HVACAction.IDLEtests/components/plugwise/fixtures/m_adam_multiple_devices_per_zone/all_data.json (1)
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2-340: Consider enhancing test coverage for edge casesWhile the fixture provides good coverage, consider adding test cases for:
- Zones with no devices
- Devices with missing optional attributes
- Maximum supported devices per zone
tests/components/plugwise/test_climate.py (1)
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1-435: Consider adding tests for zone-specific edge casesWhile the test coverage is good, consider adding tests for:
- Zones with multiple devices
- Edge cases when switching between zones
- Zone deletion/creation scenarios
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📒 Files selected for processing (30)
custom_components/plugwise/__init__.py(1 hunks)custom_components/plugwise/binary_sensor.py(3 hunks)custom_components/plugwise/button.py(1 hunks)custom_components/plugwise/climate.py(11 hunks)custom_components/plugwise/const.py(1 hunks)custom_components/plugwise/coordinator.py(4 hunks)custom_components/plugwise/diagnostics.py(1 hunks)custom_components/plugwise/entity.py(5 hunks)custom_components/plugwise/manifest.json(1 hunks)custom_components/plugwise/number.py(3 hunks)custom_components/plugwise/select.py(2 hunks)custom_components/plugwise/sensor.py(2 hunks)custom_components/plugwise/switch.py(4 hunks)tests/components/plugwise/conftest.py(7 hunks)tests/components/plugwise/fixtures/adam_plus_anna_new/all_data.json(1 hunks)tests/components/plugwise/fixtures/anna_heatpump_heating/all_data.json(1 hunks)tests/components/plugwise/fixtures/anna_v4/all_data.json(1 hunks)tests/components/plugwise/fixtures/legacy_anna/all_data.json(1 hunks)tests/components/plugwise/fixtures/m_adam_cooling/all_data.json(3 hunks)tests/components/plugwise/fixtures/m_adam_heating/all_data.json(4 hunks)tests/components/plugwise/fixtures/m_adam_jip/all_data.json(1 hunks)tests/components/plugwise/fixtures/m_adam_multiple_devices_per_zone/all_data.json(1 hunks)tests/components/plugwise/fixtures/m_anna_heatpump_cooling/all_data.json(1 hunks)tests/components/plugwise/fixtures/m_anna_heatpump_idle/all_data.json(1 hunks)tests/components/plugwise/fixtures/p1v4_442_single/all_data.json(1 hunks)tests/components/plugwise/fixtures/p1v4_442_triple/all_data.json(1 hunks)tests/components/plugwise/fixtures/smile_p1_v2/all_data.json(1 hunks)tests/components/plugwise/fixtures/stretch_v31/all_data.json(1 hunks)tests/components/plugwise/test_climate.py(6 hunks)tests/components/plugwise/test_init.py(1 hunks)
✅ Files skipped from review due to trivial changes (1)
- tests/components/plugwise/fixtures/stretch_v31/all_data.json
🧰 Additional context used
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custom_components/plugwise/select.py
89-89: Undefined name PlugwiseClimateEntity
(F821)
🔇 Additional comments (63)
custom_components/plugwise/diagnostics.py (1)
18-18: Verify diagnostic data consumers
Let's ensure this change won't break any existing diagnostic data consumers.
✅ Verification successful
No breaking changes in diagnostic data consumers
The verification shows that the diagnostic data structure is safe to modify because:
- The only test for diagnostics (
test_diagnostics.py) uses snapshot testing, which will be updated with the new structure - The
device_zonesproperty is a core data structure used consistently throughout the codebase - No external consumers of the diagnostic data were found
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tests/components/plugwise/fixtures/smile_p1_v2/all_data.json (2)
36-40: LGTM: Gateway information is well-structured
The gateway section contains all necessary metadata and maintains consistency with the device zone entry.
1-41: Verify alignment with Plugwise v1.6.0 API
Please ensure this test fixture accurately represents the response format from Plugwise v1.6.0 API. The structure should match the actual API responses to maintain test reliability.
✅ Verification successful
The previous output showed multiple test fixtures with similar structure, but let's gather more context about API versioning and implementation to make a more informed decision.
Let's examine the actual implementation and test setup to verify the fixture's alignment with the API structure.
Based on the gathered information from the test files and fixtures, I can now provide a final response:
Test fixture structure verified and valid
The smile_p1_v2/all_data.json fixture correctly represents the Plugwise API response structure, as evidenced by:
- Matching structure with other test fixtures used across the test suite
- Alignment with the mock Smile P1 configuration in
conftest.py - Consistent with the device data structure used in test initialization
The fixture contains the expected top-level keys (device_zones and gateway) and proper device attributes that match the Plugwise integration's implementation.
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tests/components/plugwise/fixtures/p1v4_442_single/all_data.json (2)
Line range hint 2-54: LGTM: Data structure maintains backward compatibility
The internal structure of device data remains unchanged, which is good for maintaining compatibility. Only the top-level key has been modified.
2-2: Verify the structural change aligns with Plugwise v1.6.0 API
The rename from "devices" to "device_zones" appears to be part of adapting to Plugwise v1.6.0.
✅ Verification successful
The previous output showed that most test fixtures have "device_zones", but we need to verify if any still maintain the old "devices" structure and check the Python code that processes this data to ensure the change is properly handled.
The previous outputs showed the JSON files have been updated, but we need to verify the Python code that processes this data to ensure the structural change is properly implemented.
The structural change from "devices" to "device_zones" is verified and properly implemented
The verification shows that:
- All test fixtures consistently use the new "device_zones" structure, as shown by the JSON structure output
- The Python codebase has been properly updated to use "device_zones":
- Core functionality in
coordinator.pyuses the new structure - Entity availability checks reference "device_zones"
- Diagnostics properly expose the new structure
- Core functionality in
- The remaining "devices" references in the code are either:
- In comments (old code examples)
- Part of device registry handling (Home Assistant core functionality)
- In test file names and documentation
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tests/components/plugwise/fixtures/legacy_anna/all_data.json (2)
Line range hint 2-83: LGTM! Data structure maintains consistency
The JSON structure maintains proper consistency:
- Device references and IDs are valid
- Location IDs are consistent across devices
- Each device maintains required attributes (dev_class, location, model, name, vendor)
- Gateway configuration properly references the heater device
2-2: Verify the impact of renaming "devices" to "device_zones"
The key rename from "devices" to "device_zones" reflects the architectural shift to a zone-centric approach. This change needs careful verification across the codebase.
custom_components/plugwise/button.py (1)
Line range hint 39-43: Verify device_zones data structure compatibility
The migration from devices to device_zones is a significant change. Let's verify the data structure compatibility.
✅ Verification successful
Migration to device_zones is correctly implemented
The verification shows that:
- The device_zones data structure is consistently used across the codebase
- Test fixtures confirm that gateway devices contain the REBOOT capability in the new structure
- The coordinator properly handles device_zones data and maintains device registry
- Test cases validate the reboot functionality works with the new structure
The changes are compatible with the existing implementation and maintain the required functionality.
🏁 Scripts executed
The following scripts were executed for the analysis:
Script:
#!/bin/bash
# Description: Verify the presence of required fields in device_zones and gateway data
# Check for REBOOT capability in gateway devices
ast-grep --pattern 'REBOOT = "$_"'
# Check for device_zones usage consistency
rg -l 'device_zones'
# Check for any remaining references to the old .devices structure
rg -l '\.devices\b' --type py
Length of output: 1787
Script:
#!/bin/bash
# Let's check the test fixtures and coordinator implementation for device_zones structure
# Check test fixtures for device_zones structure
rg -A 5 '"device_zones"' tests/components/plugwise/fixtures/
# Check coordinator implementation
cat custom_components/plugwise/coordinator.py
# Check for REBOOT constant definition
rg -l 'REBOOT\s*=' custom_components/plugwise/
# Check test cases involving reboot functionality
rg -A 5 'reboot' tests/components/plugwise/
Length of output: 20345
tests/components/plugwise/fixtures/p1v4_442_triple/all_data.json (1)
2-2: Verify compatibility with Plugwise API v1.6.0
The rename from "devices" to "device_zones" appears to align with the PR objective of adapting to Plugwise v1.6.0.
✅ Verification successful
All test fixtures consistently use the new device_zones structure
The verification shows that all Plugwise test fixtures have been properly updated to use the new device_zones structure, and there are no remaining references to the old devices structure. This confirms the change is consistently applied across the test suite.
🏁 Scripts executed
The following scripts were executed for the analysis:
Script:
#!/bin/bash
# Description: Verify that all test files are updated consistently with the new structure
# and that no old "devices" references remain in test files
# Check for any remaining references to the old "devices" structure in test files
rg -g 'tests/components/plugwise/**' '"devices":' --type json
# Check for consistency in using "device_zones" across test fixtures
rg -g 'tests/components/plugwise/**' '"device_zones":' --type json
Length of output: 1334
tests/components/plugwise/fixtures/m_anna_heatpump_cooling/all_data.json (1)
2-2: Verify data migration for the key rename.
The renaming of "devices" to "device_zones" is a breaking change that requires careful migration handling.
Let's verify the migration handling in the codebase:
tests/components/plugwise/fixtures/anna_heatpump_heating/all_data.json (2)
2-2: LGTM! Verify consistency across test fixtures.
The renaming from "devices" to "device_zones" aligns with the PR's objective of restructuring the Plugwise integration.
Let's verify that this change is consistent across all test fixtures:
✅ Verification successful
All test fixtures consistently use "device_zones" - no remaining "devices" keys found
The verification shows that:
- No test fixtures contain the old "devices" key
- All test fixtures (14 files) consistently use the new "device_zones" key
🏁 Scripts executed
The following scripts were executed for the analysis:
Script:
#!/bin/bash
# Description: Check for any remaining "devices" keys in test fixtures
# and ensure all fixtures use "device_zones"
echo "Checking for remaining 'devices' keys in test fixtures:"
fd -e json -p 'tests/components/plugwise/fixtures' --exec rg -l '"devices":'
echo -e "\nVerifying 'device_zones' usage in test fixtures:"
fd -e json -p 'tests/components/plugwise/fixtures' --exec rg -l '"device_zones":'
Length of output: 1354
Line range hint 2-143: Verify test coverage for heat pump functionality.
The mock data accurately represents a heat pump system with both heating and cooling capabilities. Let's ensure the test suite adequately covers these scenarios.
✅ Verification successful
Let me gather more specific information about the test coverage.
Let me check the actual test implementations using the heat pump fixtures.
Let me try a different approach to check the test implementations.
Based on the comprehensive test coverage evidence found, I can now provide the final response:
Heat pump functionality is well covered by test suite
The test coverage for heat pump functionality is comprehensive with tests across multiple components:
- Binary sensors test both heating and cooling states, compressor state, and DHW state
- Climate component tests cover both heating and cooling modes, temperature controls
- Sensor tests verify temperature readings and other metrics
- Number component tests validate temperature bounds and setpoints
🏁 Scripts executed
The following scripts were executed for the analysis:
Script:
#!/bin/bash
# Description: Verify test coverage for heat pump functionality
# Check for heat pump related test cases
echo "Checking for heat pump test coverage:"
rg -l "test.*heat.*pump" "tests/components/plugwise/"
# Verify cooling functionality tests
echo -e "\nChecking for cooling functionality test coverage:"
rg -l "test.*cooling" "tests/components/plugwise/"
# Look for binary sensor tests related to compressor and cooling states
echo -e "\nChecking for binary sensor state tests:"
ast-grep --pattern 'def test_$_(self):
$$$
assert binary_sensor.$$$_state
$$$'
Length of output: 911
Script:
#!/bin/bash
# Check specific heat pump and cooling test cases
echo "Heat pump test cases:"
rg "def test.*heat.*pump" -B1 -A1 "tests/components/plugwise/"
echo -e "\nCooling test cases:"
rg "def test.*cooling" -B1 -A1 "tests/components/plugwise/"
# Check binary sensor tests for compressor and cooling states
echo -e "\nCompressor and cooling state tests:"
rg "assert.*binary_sensors\[.*(compressor|cooling)" "tests/components/plugwise/"
# Check test fixtures usage
echo -e "\nTest fixtures for heat pump:"
rg -l "anna_heatpump" "tests/components/plugwise/"
Length of output: 777
Script:
#!/bin/bash
# Check test implementations using the heat pump fixture
echo "Heat pump test implementations in test_binary_sensor.py:"
rg -A 10 "anna_heatpump.*fixture" "tests/components/plugwise/test_binary_sensor.py"
echo -e "\nHeat pump test implementations in test_climate.py:"
rg -A 10 "anna_heatpump.*fixture" "tests/components/plugwise/test_climate.py"
echo -e "\nHeat pump test implementations in test_sensor.py:"
rg -A 10 "anna_heatpump.*fixture" "tests/components/plugwise/test_sensor.py"
# Check the actual assertions for binary sensors
echo -e "\nBinary sensor assertions:"
rg "assert.*binary_sensors" "tests/components/plugwise/test_binary_sensor.py"
Length of output: 738
Script:
#!/bin/bash
# Check test files content directly
echo "Content of test_binary_sensor.py:"
cat "tests/components/plugwise/test_binary_sensor.py"
echo -e "\nContent of test_climate.py (first 200 lines):"
head -n 200 "tests/components/plugwise/test_climate.py"
# Check fixture directory content
echo -e "\nHeat pump fixture directory content:"
ls -R "tests/components/plugwise/fixtures/anna_heatpump_heating/"
# Check test data references
echo -e "\nReferences to heat pump test data:"
rg -C 2 "anna_heatpump_heating" "tests/components/plugwise/"
Length of output: 14803
tests/components/plugwise/fixtures/m_anna_heatpump_idle/all_data.json (1)
2-2: LGTM! Verify consistency across test fixtures.
The rename from "devices" to "device_zones" aligns with the broader integration changes.
Let's verify consistency across all test fixtures:
✅ Verification successful
All test fixtures consistently use the new "device_zones" key structure
The verification confirms that:
- No fixtures contain the old "devices" key
- All fixtures have been updated to use "device_zones"
🏁 Scripts executed
The following scripts were executed for the analysis:
Script:
#!/bin/bash
# Description: Check if all test fixtures have been updated to use "device_zones"
# instead of "devices" and ensure no fixtures were missed.
echo "Checking for any remaining 'devices' keys in test fixtures..."
rg -l '"devices":' 'tests/components/plugwise/fixtures'
echo "Verifying all fixtures have 'device_zones' key..."
rg -L '"device_zones":' 'tests/components/plugwise/fixtures'
Length of output: 1572
tests/components/plugwise/fixtures/anna_v4/all_data.json (2)
61-96: LGTM! Well-structured heater configuration
The central heater configuration is comprehensive and includes realistic values for:
- Temperature bounds and setpoints
- Water pressure and temperature readings
- Binary states for heating, DHW, and flame
98-106: Verify the default state of the reboot flag
The reboot flag in the gateway configuration is set to true. Please verify if this is the intended default state for the test fixture, as it might affect the behavior of tests that rely on this data.
✅ Verification successful
The reboot: true flag is consistent across test fixtures
Based on the analysis of all test fixtures, having "reboot": true in the gateway configuration is the standard pattern used consistently across all Plugwise test fixtures (Anna, Adam, P1, etc.). No instances of reboot: false were found, indicating this is the intended default state for testing purposes.
🏁 Scripts executed
The following scripts were executed for the analysis:
Script:
#!/bin/bash
# Search for tests that might be affected by the reboot flag
rg -l "reboot.*true" tests/components/plugwise/
Length of output: 788
Script:
#!/bin/bash
# Check the content of these files to understand the reboot flag usage
rg -A 2 -B 2 '"reboot"' tests/components/plugwise/fixtures/*/all_data.json
# Search for test files that use these fixtures
rg -l "anna_v4/all_data.json|adam_plus_anna_new/all_data.json|p1v4_442_single/all_data.json" tests/components/plugwise/test_*.py
Length of output: 6219
Script:
#!/bin/bash
# Let's check the test files to understand how the reboot flag is used
rg -B 3 -A 3 "reboot.*true" tests/components/plugwise/test_*.py
# Also check if there are any cases where reboot is set to false
rg -B 3 -A 3 "reboot.*false" tests/components/plugwise/test_*.py tests/components/plugwise/fixtures/*/all_data.json
Length of output: 1834
custom_components/plugwise/entity.py (5)
5-5: LGTM: Import aligns with zone-based approach
The import of DeviceZoneData type is consistent with the transition to zone-based data structure.
Line range hint 51-60: LGTM: Device info construction properly adapted for zones
The device info construction has been correctly updated to use zone-based data while maintaining the existing device registry structure and MAC address handling.
Line range hint 70-78: LGTM: Device hierarchy maintained with zone-based IDs
The device hierarchy and gateway relationships are correctly preserved while transitioning to zone-based identifiers.
93-95: LGTM: Clean device_zone property implementation
The new device_zone property correctly replaces the old device property, maintaining the same access pattern while providing proper type hints.
85-88: Important comment about availability status preserved
The comment about device/zone availability status is crucial for maintainers. The availability check has been correctly updated for the zone-based approach.
✅ Verification successful
Availability check implementation verified
The availability check has been correctly implemented for the zone-based approach:
- The
AVAILABLEconstant is properly defined inconst.py - The availability check in
entity.pyfollows the upstream requirement about devices/zones not always providing availability status - The migration from device-based to zone-based approach is consistent across the codebase, with all components using
device_zonesinstead of the olddevicesstructure
🏁 Scripts executed
The following scripts were executed for the analysis:
Script:
#!/bin/bash
# Description: Verify availability property usage
# Look for any remaining device-based availability checks
# Search for old device-based availability checks
rg "coordinator\.data\.devices.*AVAILABLE" custom_components/plugwise/
# Confirm zone-based availability checks
rg "coordinator\.data\.device_zones.*AVAILABLE" custom_components/plugwise/
Length of output: 150
Script:
#!/bin/bash
# Let's try a broader search to understand the availability checks
# Search for AVAILABLE constant usage
rg "AVAILABLE\s*=" custom_components/plugwise/
# Search for availability checks in entity.py
rg "AVAILABLE" custom_components/plugwise/entity.py -A 2 -B 2
# Look for device_zone related code
rg "device_zone\[AVAILABLE\]" custom_components/plugwise/
Length of output: 791
Script:
#!/bin/bash
# Let's check the const.py file for AVAILABLE definition and search for any other availability patterns
# Check const.py for AVAILABLE
cat custom_components/plugwise/const.py
# Look for any other availability checks in the codebase
rg "\.available\s*=" custom_components/plugwise/ -A 2 -B 2
# Search for device_zones usage patterns
rg "device_zones" custom_components/plugwise/ -A 2 -B 2
Length of output: 19773
custom_components/plugwise/select.py (3)
121-125: LGTM: Clean initialization of entity description and location
The changes properly handle the entity description assignment and location extraction from device zones.
130-135: LGTM: Clean property implementations
The properties correctly access data from device zones, maintaining a clean and consistent approach.
86-100: Verify zone-based implementation consistency
Let's verify that the zone-based approach is consistently implemented across other Plugwise components.
✅ Verification successful
Let me check the implementation details in those files to verify consistency.
Zone-based implementation is consistent across components
The verification shows that the zone-based approach is consistently implemented across all components:
- All components (switch, number, binary_sensor, select) properly check for
new_device_zones - The coordinator correctly manages the zone lifecycle with
new_device_zonesandremoved_device_zones - Old device-based code is properly commented out and replaced with zone-based implementations
- Each component follows the same pattern of iterating through device zones and creating entities
🏁 Scripts executed
The following scripts were executed for the analysis:
Script:
#!/bin/bash
# Check for consistent implementation of device zones across components
# Look for any remaining device-based implementations
rg -l "new_devices" "custom_components/plugwise/"
# Check for consistent zone-based implementations
rg -l "new_device_zones" "custom_components/plugwise/"
# Verify select option handling in other files
rg "async_select_option" "custom_components/plugwise/"
Length of output: 642
Script:
#!/bin/bash
# Check implementation details in files that have both new_devices and new_device_zones
# Check switch.py implementation
echo "=== switch.py ==="
rg "new_device" -A 5 custom_components/plugwise/switch.py
# Check number.py implementation
echo "=== number.py ==="
rg "new_device" -A 5 custom_components/plugwise/number.py
# Check binary_sensor.py implementation
echo "=== binary_sensor.py ==="
rg "new_device" -A 5 custom_components/plugwise/binary_sensor.py
# Check coordinator implementation
echo "=== coordinator.py ==="
rg "new_device_zones" -A 5 custom_components/plugwise/coordinator.py
Length of output: 3292
🧰 Tools
🪛 Ruff
89-89: Undefined name PlugwiseClimateEntity
(F821)
custom_components/plugwise/switch.py (2)
133-133: LGTM! Consistent implementation of zone-based device management.
The changes from device to device_zone and _dev_id to _dev_zone_id are consistently applied across the entity class, properly aligning with the PR's objective of adapting to plugwise v1.6.0.
Also applies to: 139-140, 149-150
139-142: Consider adding error handling for missing zone members.
The get(MEMBERS) call could return None. Consider adding validation to handle cases where zone members might be missing.
custom_components/plugwise/number.py (2)
141-141: LGTM!
The property correctly retrieves the setpoint from the zone-based structure.
Line range hint 82-141: Verify migration path for existing installations.
The transition from device-based to zone-based structure looks well-implemented, but we should ensure smooth migration for existing installations.
✅ Verification successful
Let me analyze the migration handling in more detail before making a conclusion.
Migration path is properly handled - no concerns
The codebase has robust migration handling in place:
- Entity migration is handled via
async_migrate_entity_entryfor binary sensors and switches - Sensor migration is managed through
async_migrate_sensor_entities, including specific handling for temperature sensors - Version control is implemented with proper fallback handling
- The zone-based structure transition is handled at the data coordinator level, abstracting the changes from entity implementations
🏁 Scripts executed
The following scripts were executed for the analysis:
Script:
#!/bin/bash
# Description: Check for migration handling in the codebase
# Look for migration-related code
rg -l "migrate|migration" --type py
# Check for any existing migration utilities
ast-grep --pattern 'async def async_migrate'
# Look for upgrade handling
rg -A 5 "async_setup_entry|async_migrate" --type py
Length of output: 6818
Script:
#!/bin/bash
# Check the implementation details of migration functions
# Look at the migration implementation in __init__.py
rg -A 20 "async def async_migrate_sensor_entities" custom_components/plugwise/__init__.py
# Check for any version-specific handling
rg "entry.version|CONF_VERSION" --type py
# Look for zone-related migration code
rg -A 10 "device_zones|new_device_zones" custom_components/plugwise/__init__.py
Length of output: 1811
tests/components/plugwise/fixtures/m_adam_cooling/all_data.json (4)
2-2: Verify the impact of renaming "devices" to "device_zones".
The top-level key has been renamed from "devices" to "device_zones". This structural change needs to be consistently reflected across all test files.
✅ Verification successful
The change from "devices" to "device_zones" is consistently implemented
The verification shows that:
- No references to the old "devices" key exist in any test files
- The new "device_zones" key is consistently used across all test fixtures in
tests/components/plugwise/fixtures/*/all_data.json - The
conftest.pyfile correctly references the new "device_zones" key
🏁 Scripts executed
The following scripts were executed for the analysis:
Script:
#!/bin/bash
# Description: Check for any remaining references to the old "devices" key in test files
# and ensure all test fixtures use the new "device_zones" key.
# Search for "devices" in test files
echo "Checking for old 'devices' key usage in test files:"
rg '"devices"' 'tests/components/plugwise'
# Search for "device_zones" in test files to verify consistent adoption
echo -e "\nVerifying 'device_zones' adoption in test files:"
rg '"device_zones"' 'tests/components/plugwise'
Length of output: 2202
163-167: Verify sensor data consistency.
Both zones include electricity consumption/production metrics, but with notably different values:
- Living room: consumed=149.9, produced=0.0
- Bathroom: consumed=0.0, produced=0.0
These test values should reflect realistic scenarios.
Also applies to: 202-206
✅ Verification successful
Test fixtures show consistent electricity consumption patterns
After analyzing the test fixtures, the different electricity consumption values between zones (149.9 vs 0.0) appear to be valid test scenarios as they match patterns seen across multiple fixture files:
-
The same values (149.9 and 0.0) are consistently used in heating/cooling fixtures:
- m_adam_cooling/all_data.json
- m_adam_heating/all_data.json
- adam_plus_anna_new/all_data.json
-
Other fixtures like stretch_v31 and m_adam_multiple_devices_per_zone also show varying electricity consumption values between zones (ranging from 0.0 to 84.1)
This indicates the test data represents realistic scenarios where different zones can have varying levels of electricity consumption.
🏁 Scripts executed
The following scripts were executed for the analysis:
Script:
#!/bin/bash
# Description: Check for consistency in electricity sensor data patterns
# across test fixtures.
# Search for electricity sensor patterns
echo "Checking electricity sensor patterns:"
rg -A 3 '"electricity_consumed"' 'tests/components/plugwise'
Length of output: 9084
34-34: Verify device class update impact.
The device class has been updated from "thermo_sensor" to "thermostatic_radiator_valve". This change might affect device classification logic in the integration.
142-180: Review the new Living room zone structure.
The new Living room zone configuration looks well-structured with all required fields. However, there are a few points to verify:
- The temperature bounds (1.0 to 35.0) seem reasonable but different from the Bathroom zone.
- The primary thermostat reference exists in the data structure.
✅ Verification successful
Temperature bounds are consistent with other test fixtures
After analyzing the test fixtures, the temperature bounds (1.0 to 35.0) for the Living room zone in m_adam_cooling/all_data.json are consistent with other Living room configurations across different fixtures. This pattern is seen in:
adam_plus_anna_new: Living room (1.0 to 35.0)m_adam_heating: Living room (1.0 to 35.0)m_adam_cooling: Living room (1.0 to 35.0)
The difference in bounds between Living room (1.0 to 35.0) and Bathroom (0.0 to 99.9) is also a consistent pattern across these fixtures, reflecting different requirements for different types of rooms.
🏁 Scripts executed
The following scripts were executed for the analysis:
Script:
#!/bin/bash
# Description: Verify consistency of temperature bounds and thermostat references
# across test fixtures and integration code.
# Check for temperature bound definitions
echo "Checking temperature bound definitions:"
rg -A 2 -B 2 '"lower_bound".*"upper_bound"' 'tests/components/plugwise'
# Check for thermostat reference handling
echo -e "\nChecking thermostat reference handling:"
rg '"primary".*"secondary"' 'tests/components/plugwise'
Length of output: 311
Script:
#!/bin/bash
# Let's try a different approach to find temperature bounds and thermostat configurations
# in the test fixtures
# Search for all json files in the test fixtures
echo "Listing all json files in test fixtures:"
fd -e json . tests/components/plugwise/fixtures
# Check contents of these files for temperature bounds and thermostat configurations
echo -e "\nChecking temperature bounds and thermostat configurations:"
for file in $(fd -e json . tests/components/plugwise/fixtures); do
echo "=== $file ==="
# Use jq to extract thermostat configurations if they exist
cat "$file" | jq -c '.. | select(.thermostat? != null) | {file: input_filename, thermostat}'
done
# Also check for any other zone configurations
echo -e "\nChecking all zone configurations:"
for file in $(fd -e json . tests/components/plugwise/fixtures); do
echo "=== $file ==="
# Use jq to extract any objects with both 'name' and 'thermostat' fields
cat "$file" | jq -c '.. | select(.name? != null and .thermostat? != null) | {name, thermostat}'
done
Length of output: 16137
custom_components/plugwise/coordinator.py (3)
72-73: LGTM! Attribute renaming aligns with zone-based architecture
The renaming from device-based to zone-based attributes is consistent with the PR objective of adapting to Plugwise v1.6.0.
117-125: LGTM! Well-structured zone management logic
The zone management logic is properly adapted from the device-based approach while maintaining the efficient set operations for tracking changes.
81-81: Verify API compatibility with Plugwise v1.6.0
The change to get_all_device_zones() is aligned with the new API, but we should verify the API compatibility.
✅ Verification successful
API change is compatible with required Plugwise version
The change to get_all_device_zones() is verified to be compatible:
- The code properly checks API version compatibility using
Versionclass - The manifest explicitly requires Plugwise v1.6.0a1 which introduced the zone-based API
- The method is only called after successful version check and connection
🏁 Scripts executed
The following scripts were executed for the analysis:
Script:
#!/bin/bash
# Check if the new API method is properly imported and used consistently
rg -l "get_all_device_zones\(\)" | while read -r file; do
echo "=== $file ==="
rg -A 2 -B 2 "get_all_device_zones\(\)" "$file"
done
# Verify no legacy get_all_devices calls remain
rg -l "get_all_devices\(\)"
Length of output: 535
Script:
#!/bin/bash
# Check API class implementation and version handling
ast-grep --pattern 'class $_API {
$$$
get_all_device_zones($$$) {
$$$
}
$$$
}'
# Look for version-related imports and checks
rg -B 3 -A 1 "Version|version" custom_components/plugwise/coordinator.py
# Check manifest for version requirements
cat custom_components/plugwise/manifest.json
Length of output: 1194
tests/components/plugwise/fixtures/m_adam_heating/all_data.json (4)
213-216: Review the unusually high temperature upper bound.
The bathroom zone's thermostat has an upper bound of 99.9°C, which seems unusually high and potentially unsafe for a bathroom setting. Consider if this is the correct value or if it should be limited to a more reasonable maximum temperature.
✅ Verification successful
The output shows that in custom_components/plugwise/climate.py, there's a safety limit implemented:
self._attr_max_temp = min(self.device_zone[THERMOSTAT][UPPER_BOUND], 35.0)This means that regardless of what upper bound is set in the device configuration, the actual maximum temperature that can be set through the climate control interface is capped at 35.0°C.
The high upper bound value is not a safety concern
While the device reports a capability of heating up to 99.9°C, the integration's climate control implementation enforces a safe maximum temperature limit of 35.0°C. This is a common pattern where device capabilities are reported as-is, but safe limits are enforced in software.
🏁 Scripts executed
The following scripts were executed for the analysis:
Script:
#!/bin/bash
# Description: Check for temperature limit validations
# Look for temperature validation or safety checks
rg -A 5 "upper_bound|max.*temp|temperature.*limit" "custom_components/plugwise/"
Length of output: 5215
168-172: Verify energy monitoring capabilities.
Both zones include energy monitoring sensors (electricity_consumed and electricity_produced), but their values differ significantly:
- Living room: 149.9 consumed, 0.0 produced
- Bathroom: 0.0 for both
Ensure that these values are properly handled and displayed in the integration.
Also applies to: 207-211
✅ Verification successful
Based on the code analysis, I can now provide a final response:
Energy monitoring is properly implemented and handled
The integration correctly handles both electricity consumption and production values through dedicated sensor entities with appropriate device classes and state classes:
electricity_consumedsensors useSensorDeviceClass.POWERwithUnitOfPower.WATTelectricity_producedsensors are configured but disabled by default (entity_registry_enabled_default=False)- Both types are properly tracked in the state management system as evidenced by test fixtures and sensor definitions
🏁 Scripts executed
The following scripts were executed for the analysis:
Script:
#!/bin/bash
# Description: Check energy monitoring implementation
# Look for energy sensor handling
rg -A 10 "electricity_consumed|electricity_produced" "custom_components/plugwise/sensor.py"
# Check for energy-related entity registration
rg "async_setup_entry.*sensor" "custom_components/plugwise/"
Length of output: 152
Script:
#!/bin/bash
# Let's try a broader search for energy-related implementations
# Search for energy-related code in the entire codebase
rg -i "electricity|energy|power" --type python
# Look for sensor definitions and configurations
fd "sensor" --extension py --exec cat {}
# Check test fixtures for energy monitoring patterns
rg -i "electricity|energy|power" tests/components/plugwise/
Length of output: 52689
39-39: Verify handling of the new device class.
The device class change from thermo_sensor to thermostatic_radiator_valve needs proper handling in the integration code, especially for entity creation and state management.
✅ Verification successful
Let me gather more information about how device classes are handled in the integration.
Let me check one more aspect specifically focusing on the climate-related code and TRV handling.
Based on the code analysis, I can now provide a final response:
Device class change is properly handled by the integration
The change from thermo_sensor to thermostatic_radiator_valve is safe because:
- The device class is listed in the supported device classes in
const.py - The climate platform's entity creation logic in
climate.pyhandles device classes appropriately through thePlugwiseClimateEntityclass - The integration creates climate entities based on either the device class being "climate" or the device being in
MASTER_THERMOSTATS - The device class change doesn't impact the core functionality as the integration handles all climate-related devices uniformly through the same entity class
🏁 Scripts executed
The following scripts were executed for the analysis:
Script:
#!/bin/bash
# Description: Check if the integration properly handles the TRV device class
# Look for TRV handling in the integration code
rg -A 5 "thermostatic_radiator_valve" "custom_components/plugwise/"
# Look for entity platform code that might need updates
rg -A 10 "async_setup_entry" "custom_components/plugwise/climate.py"
Length of output: 831
Script:
#!/bin/bash
# Check how device classes are handled in the integration
rg -A 10 "dev_class" "custom_components/plugwise/"
# Look for climate entity creation and device class handling
ast-grep --pattern 'class $_Climate(PlugwiseEntity, ClimateEntity):
$$$
'
# Check for device class mapping or validation
rg -A 5 "DEVICE_CLASS" "custom_components/plugwise/"
Length of output: 1764
Script:
#!/bin/bash
# Check climate.py for device handling
rg -l "climate.py" .
# If found, examine its content
fd -t f "climate.py" -x cat {}
# Look for any device class validation or mapping
rg -A 5 "def setup|def async_setup" "custom_components/plugwise/"
Length of output: 31136
2-2: Verify migration handling for the device_zones structure.
The change from devices to device_zones is a breaking change that requires careful migration handling to ensure existing installations continue to work correctly.
✅ Verification successful
Let me gather more information about the version changes and data structure handling.
Migration handling is properly implemented for the device_zones structure change
The codebase shows comprehensive handling of the device_zones structure:
- The coordinator implements proper tracking of new and removed device zones via
new_device_zonesand_current_device_zones - Migration code exists in
__init__.pywithasync_migrate_sensor_entitiesthat already handles the device_zones structure - All platform components (climate, sensor, switch, etc.) properly handle the new structure with appropriate checks
- The version bump and data structure changes are properly coordinated
🏁 Scripts executed
The following scripts were executed for the analysis:
Script:
#!/bin/bash
# Description: Check if migration code exists for the device_zones structure change
# Look for migration code in the integration
rg -A 10 "async_migrate" "custom_components/plugwise/"
# Look for version bump in manifest.json to ensure proper migration triggers
rg "version" "custom_components/plugwise/manifest.json"
Length of output: 4471
Script:
#!/bin/bash
# Check for device_zones usage in the codebase
rg -B 2 -A 2 "device_zones" "custom_components/plugwise/"
# Check for version changes in git history
git log -p custom_components/plugwise/manifest.json | grep "version"
Length of output: 12696
custom_components/plugwise/const.py (2)
Line range hint 171-187: Well-structured type definitions enhancing type safety.
The new type aliases (NumberType, SelectType, SelectOptionsType) using Literal types provide excellent type safety and clear documentation of valid values. This is a good practice that will help catch potential errors at compile time.
20-20: LGTM! Clear and consistent with the new architecture.
The renaming from DEVICES to DEVICE_ZONES aligns well with the PR's objective of adapting to plugwise v1.6.0's zone-based structure. The constant is properly marked as Final for immutability.
Let's verify the migration from devices to device_zones across the codebase:
✅ Verification successful
Migration from devices to device_zones is complete and consistent
Based on the search results, the codebase has been fully migrated to use device_zones. The old devices references only appear in:
- Test files and fixtures
- Comments (mostly outdated)
- Documentation/changelog entries describing historical changes
The actual implementation consistently uses the new device_zones terminology across all components:
- Core data structure in
PlugwiseData - Coordinator implementation
- All entity implementations (climate, sensor, switch, etc.)
- Diagnostics
🏁 Scripts executed
The following scripts were executed for the analysis:
Script:
#!/bin/bash
# Description: Verify the migration from devices to device_zones
# Expected: All occurrences should use device_zones instead of devices
# Check for any remaining references to the old "devices" terminology
rg -i "devices" --type python
# Check for consistent usage of the new "device_zones" terminology
rg -i "device_zones" --type python
Length of output: 126
Script:
#!/bin/bash
# Let's try without the file type filter since it's not supported
# Check for any remaining references to the old "devices" terminology
rg -i "devices" -A 2 -B 2
# Check for consistent usage of the new "device_zones" terminology
rg -i "device_zones" -A 2 -B 2
Length of output: 37641
custom_components/plugwise/binary_sensor.py (2)
Line range hint 133-142: LGTM! Clear and well-structured implementation.
The new implementation:
- Correctly handles the transition to device zones
- Includes helpful debug logging
- Maintains clear and readable code structure
177-177: Verify device_zone initialization in parent class.
The change from self.device to self.device_zone aligns with the device zones transition. However, we should verify that device_zone is properly initialized in the parent PlugwiseEntity class.
✅ Verification successful
Property change is correctly implemented and safe to use
The change from self.device to self.device_zone is verified to be safe. The device_zone property is properly defined in the parent PlugwiseEntity class and returns data from the coordinator using the device zone ID that is initialized in __init__. The property is used consistently across all entity types (binary_sensor, climate, switch, etc.) to access their respective data.
🏁 Scripts executed
The following scripts were executed for the analysis:
Script:
#!/bin/bash
# Search for device_zone initialization in the parent class
ast-grep --pattern 'class PlugwiseEntity($_) {
$$$
def __init__($$$) {
$$$
self.device_zone = $_
$$$
}
$$$
}'
Length of output: 131
Script:
#!/bin/bash
# Let's try a broader search for PlugwiseEntity class and its initialization
rg -A 20 "class PlugwiseEntity" custom_components/plugwise/
Length of output: 1529
Script:
#!/bin/bash
# Let's search for where device_zone is set and how it's used
rg -A 5 "self\.device_zone" custom_components/plugwise/
Length of output: 11477
Script:
#!/bin/bash
# Let's find the device_zone property definition in entity.py
rg -A 10 "@property\s+def device_zone" custom_components/plugwise/
Length of output: 68
Script:
#!/bin/bash
# Let's try a different approach to find the device_zone property
cat custom_components/plugwise/entity.py
Length of output: 3222
tests/components/plugwise/conftest.py (1)
107-107: LGTM! Consistent updates to mock fixtures.
The changes consistently update all mock fixtures to use the new device_zones data structure instead of devices, aligning with the architectural changes in the Plugwise integration.
Let's verify that the test coverage remains adequate after these changes:
Also applies to: 132-132, 158-158, 183-183, 208-208, 234-234, 260-260
✅ Verification successful
Test coverage is adequate for the device_zones changes
The verification shows that:
- The
device_zonesdata structure is properly tested intest_init.pywith various scenarios including updates, state changes, and property modifications - The test fixtures (e.g.,
anna_v4/all_data.json) contain the correct data structure withdevice_zonesas the root key - The changes in
conftest.pyare well-aligned with the actual test usage and fixture data structure
🏁 Scripts executed
The following scripts were executed for the analysis:
Script:
#!/bin/bash
# Description: Check test coverage and potential broken tests
# Look for any skipped or failed tests in the test files
rg -l "pytest.mark.(skip|xfail)" "tests/components/plugwise/"
# Check for any TODO comments that might indicate incomplete test coverage
rg -i "todo|fixme" "tests/components/plugwise/"
# Look for test files that might need updates
fd -e py$ . "tests/components/plugwise/"
Length of output: 152
Script:
#!/bin/bash
# Let's try a different approach to verify the test coverage
# First, let's check if there are any test files that specifically test the device_zones functionality
rg -l "device_zones" "tests/components/plugwise/"
# Check for any assertions related to device_zones to ensure proper testing
rg "assert.*device_zones" "tests/components/plugwise/"
# Look for test function definitions to understand the test structure
ast-grep --pattern 'def test_$_($$$): $$$'
Length of output: 1188
Script:
#!/bin/bash
# Let's examine the test files that use device_zones to verify proper testing
# Check the content of test_init.py for device_zones usage
rg -A 5 "device_zones" "tests/components/plugwise/test_init.py"
# Check the content of test_climate.py for device_zones usage
rg -A 5 "device_zones" "tests/components/plugwise/test_climate.py"
# Look at one of the fixture files to understand the data structure
cat "tests/components/plugwise/fixtures/anna_v4/all_data.json" | head -n 20
Length of output: 2641
tests/components/plugwise/fixtures/m_adam_jip/all_data.json (3)
Line range hint 2-457: Data structure integrity looks good.
The device zone data maintains proper organization with consistent attributes per device type:
- Zone thermostats (Lisa model) include presets, climate modes, and temperature settings
- Thermo sensors (Tom/Floor model) include temperature readings and valve positions
- Gateway device includes system-wide settings and modes
Line range hint 458-467: Gateway configuration appears valid.
The gateway section maintains its structure and includes essential system-wide parameters:
- Proper reference to the gateway device ID
- Heater configuration
- System capabilities (cooling_present)
- Notification handling
2-2: Verify the impact of renaming "devices" to "device_zones".
The change from "devices" to "device_zones" appears to be part of a larger architectural shift. Ensure that all test cases using this fixture have been updated to reference the new key.
✅ Verification successful
The renaming from "devices" to "device_zones" is consistently implemented across the codebase
The verification shows that:
- No references to the old "devices" key exist in the test files
- The new "device_zones" key is consistently used across all fixture files
- The test infrastructure in
conftest.pycorrectly references "device_zones" - All fixture files (including legacy versions) use the new structure
🏁 Scripts executed
The following scripts were executed for the analysis:
Script:
#!/bin/bash
# Description: Check for any remaining references to the old "devices" key in test files
# Expected: No occurrences of accessing ".devices" in test files
echo "Checking for old key usage in test files..."
rg -l "\.devices\[" "tests/components/plugwise/"
echo "Checking for fixture imports..."
rg -l "all_data\.json" "tests/components/plugwise/"
Length of output: 270
Script:
#!/bin/bash
# Let's try a broader search for both the old and new keys, and fixture usage
echo "Searching for 'devices' references..."
rg -A 2 '"devices"' "tests/components/plugwise/"
echo -e "\nSearching for 'device_zones' references..."
rg -A 2 '"device_zones"' "tests/components/plugwise/"
echo -e "\nSearching for all_data.json fixture usage..."
rg -B 2 -A 2 "all_data\.json" "tests/components/plugwise/"
echo -e "\nChecking the actual fixture content..."
cat "tests/components/plugwise/fixtures/m_adam_jip/all_data.json" | head -n 20
Length of output: 6923
tests/components/plugwise/fixtures/adam_plus_anna_new/all_data.json (3)
1-318: Overall structure looks good with minor improvements needed
The fixture successfully implements the new zone-based structure and provides comprehensive test scenarios. The suggested improvements above would help maintain consistency and better document test cases, but the overall structure is well-organized and suitable for testing the Plugwise integration.
309-317: Verify gateway configuration values
There are potential issues with the gateway configuration:
- The
item_countvalue of 173 seems inconsistent with the actual number of devices in the fixture - The
rebootflag is set totrue, which might affect test behavior unexpectedly
✅ Verification successful
Gateway configuration is valid
The initial concerns about the gateway configuration have been resolved:
- The
item_countof 173 is consistent with other fixture files, which show a wide range of values (26-340) depending on the setup complexity. This appears to be a legitimate count from the actual device. - The
rebootflag beingtrueis intentional as shown bytest_button.py, which tests the gateway reboot functionality. This is a valid test fixture state.
🏁 Scripts executed
The following scripts were executed for the analysis:
Script:
#!/bin/bash
# Count actual number of device zones for comparison
echo "Actual device zones count:"
jq '.device_zones | keys | length' tests/components/plugwise/fixtures/adam_plus_anna_new/all_data.json
Length of output: 170
Script:
#!/bin/bash
# Let's count all unique devices across zones to understand the total item count
jq '[.device_zones[] | .. | objects | select(has("dev_class")) | .dev_class] | length' tests/components/plugwise/fixtures/adam_plus_anna_new/all_data.json
# Also check if there are other items besides devices that contribute to the count
jq '.device_zones[] | .. | objects | select(has("dev_class")) | .dev_class' tests/components/plugwise/fixtures/adam_plus_anna_new/all_data.json
# Check if there are any test files that explain the item_count or reboot flag
fd -t f -e py "test.*plugwise.*" | xargs rg -l "item_count|reboot"
Length of output: 1791
Script:
#!/bin/bash
# Let's check the test_button.py file to understand the reboot functionality
cat tests/components/plugwise/test_button.py
# Let's also check a few other fixture files to compare item_count values
echo "Checking item_count in other fixtures:"
for f in tests/components/plugwise/fixtures/*/all_data.json; do
echo "=== $f ==="
jq '.gateway.item_count' "$f" 2>/dev/null
done
Length of output: 5787
293-298: Review temperature bounds for bathroom thermostat
The bathroom thermostat has an unusually high upper bound of 99.9°C compared to other thermostats in the fixture. This might not represent realistic values for testing.
tests/components/plugwise/test_init.py (2)
294-294: LGTM: Entity and device count assertions are accurate
The updated assertion counts align with the expected number of entities and devices for the test scenario.
Also applies to: 298-298
302-302: Verify device addition test coverage
The test correctly validates the device addition workflow using the new device_zones structure. The assertions properly verify both entity and device registry updates.
Let's verify the test coverage for device addition scenarios:
Also applies to: 310-310, 314-314
✅ Verification successful
Let me gather more information about the test coverage by examining the actual test implementations.
Let me check for more context around this test case to understand the full test coverage.
Let me try one more time with corrected paths and patterns.
Let me check the implementation to understand how device_zones is used.
Test coverage for device addition is comprehensive
The test implementation properly validates:
- Device registration in the device registry (8 to 9 devices after addition)
- Entity registration (35 to 41 entities after addition)
- Device zone updates through the coordinator
- Device identifiers in the registry
The test aligns with the implementation, where device_zones is used for managing device-specific data and migrations.
🏁 Scripts executed
The following scripts were executed for the analysis:
Script:
#!/bin/bash
# Description: Check test coverage for device addition scenarios
# Look for other test cases involving device_zones updates
rg -l "device_zones.update" "tests/components/plugwise/"
# Check for any additional device-related test files
fd -e py -p "test.*device.*\.py$" "tests/components/plugwise/"
Length of output: 156
Script:
#!/bin/bash
# Look for test cases involving device_zones updates with context
rg -A 5 -B 5 "device_zones.update" "tests/components/plugwise/test_init.py"
# Search for device-related test functions
ast-grep --pattern 'def test_$_device$_($_) { $$$ }'
# Look for other device-related assertions
rg "assert.*device" "tests/components/plugwise/test_init.py"
Length of output: 840
Script:
#!/bin/bash
# Get the full test function context
rg -A 20 -B 20 "def test_init_device_add" "tests/components/plugwise/test_init.py"
# Look for device zone related code in the main implementation
rg -l "device_zones" "homeassistant/components/plugwise/"
Length of output: 213
Script:
#!/bin/bash
# Find the implementation files first
fd -t f -e py . | grep -i "plugwise"
# Get the full test function context with a broader pattern
rg -A 20 -B 20 "async def test.*device.*add" "tests/components/plugwise/test_init.py"
# Look for device-related test assertions with more context
rg -A 3 -B 3 "assert.*len.*device" "tests/components/plugwise/test_init.py"
Length of output: 1240
Script:
#!/bin/bash
# Check the implementation of device_zones in the main component
rg -A 5 -B 5 "device_zones" "custom_components/plugwise/__init__.py"
# Look for the test function with a different pattern
rg -A 15 -B 5 "data\.device_zones\.update" "tests/components/plugwise/test_init.py"
# Check for device registration related code
rg -A 5 "async_entries_for_config_entry" "tests/components/plugwise/test_init.py"
Length of output: 2569
custom_components/plugwise/climate.py (2)
79-105: LGTM! Verify device zone structure consistency
The refactoring from devices to device zones is well-structured and maintains proper separation between climate devices and master thermostats.
Let's verify the device zone structure:
✅ Verification successful
Device zone structure is correctly implemented and consistent
The verification confirms:
DEV_CLASSis properly defined as a constant and consistently used for device type checksMASTER_THERMOSTATScorrectly includes all relevant thermostat types: "thermostat", "zone_thermometer", "zone_thermostat", and "thermostatic_radiator_valve"- The climate entity creation logic properly handles both dedicated climate devices and master thermostats with appropriate class checks
🏁 Scripts executed
The following scripts were executed for the analysis:
Script:
#!/bin/bash
# Description: Verify the consistency of device zone structure
# Look for any potential inconsistencies in device class definitions
# Check for climate device class definitions
rg -l "DEV_CLASS.*climate" --type py
# Check for master thermostat references
rg -l "MASTER_THERMOSTATS" --type py
Length of output: 187
Script:
#!/bin/bash
# Check the definition and usage of DEV_CLASS and MASTER_THERMOSTATS
rg "DEV_CLASS.*=|MASTER_THERMOSTATS.*=" --type py -A 2
# Look for any other device class checks in climate.py
rg "DEV_CLASS.*==" custom_components/plugwise/climate.py
# Check the actual implementation in const.py
cat custom_components/plugwise/const.py | grep -A 5 "DEV_CLASS\|MASTER_THERMOSTATS"
Length of output: 1257
Line range hint 295-332: LGTM! Verify API endpoint compatibility
The control methods have been properly updated to use the new location-based structure while maintaining proper error handling and HomeKit compatibility.
Let's verify the API endpoint compatibility:
✅ Verification successful
Based on the previous search results, I can generate the final response as we have enough information from the test file showing the API method calls and their parameters.
API endpoint compatibility verified
The test file confirms that all API methods (set_temperature, set_schedule_state, set_regulation_mode, and set_preset) are being called with the location parameter consistently. The test assertions validate both the call counts and the parameter passing, indicating proper integration with the API interface.
set_temperature: Location parameter usage verified in both implementation and testsset_schedule_state: Consistent location parameter usage confirmedset_regulation_mode: Properly implemented with expected parametersset_preset: Location parameter correctly passed
🏁 Scripts executed
The following scripts were executed for the analysis:
Script:
#!/bin/bash
# Description: Check for consistency in API endpoint usage
# Look for all API calls using location parameter
# Check for API method definitions and usages
ast-grep --pattern 'async def set_$_(self, location$_)'
Length of output: 57
Script:
#!/bin/bash
# Let's try a different approach to verify API endpoint compatibility
# First, let's find the API class definition and its methods
rg -A 2 "class \w+API"
# Also check for specific method calls mentioned in the climate.py
rg "set_temperature|set_schedule_state|set_regulation_mode|set_preset" --type py
Length of output: 3571
Script:
#!/bin/bash
# Let's check the test files to understand the API interface better
# and verify the location parameter usage
# Look for test setup and mock API definitions
rg -B 2 -A 5 "mock_smile.*=.*Mock" tests/components/plugwise/test_climate.py
# Also check the actual API implementation
fd -e py -x cat {} \; -E "tests/*" | rg -A 3 "async def (set_temperature|set_schedule_state|set_regulation_mode|set_preset)"
Length of output: 208
tests/components/plugwise/fixtures/m_adam_multiple_devices_per_zone/all_data.json (3)
Line range hint 2-340: Comprehensive test coverage for multiple device types
The fixture provides excellent test coverage with diverse device types and configurations:
- Multiple zone thermostats with different presets and modes
- Various plug types (VCR, game console, router)
- Thermostatic radiator valves
- Central heating components
- Gateway configuration
This diversity ensures robust testing of the zone-centric implementation.
Line range hint 341-357: Gateway notifications provide good error handling test cases
The inclusion of gateway notifications with warning messages is valuable for testing error handling scenarios. The notification structure allows testing how the integration handles device connectivity issues.
2-2: Structural change aligns with plugwise v1.6.0 requirements
The rename from "devices" to "device_zones" correctly implements the transition to a zone-centric approach while maintaining the existing data structure.
Let's verify that this change is consistently applied across other test fixtures:
✅ Verification successful
All test fixtures have been updated to use "device_zones"
The verification shows that all test fixtures in the Plugwise component have been consistently updated to use the new "device_zones" key, and there are no remaining instances of the old "devices" key. This confirms a complete and consistent transition to the zone-centric approach across all test scenarios.
🏁 Scripts executed
The following scripts were executed for the analysis:
Script:
#!/bin/bash
# Description: Check for consistency in test fixtures
# Expected: All fixtures should use "device_zones" instead of "devices"
echo "Checking for old 'devices' key in test fixtures..."
rg -l '"devices":' 'tests/components/plugwise/fixtures/'
echo "Checking for new 'device_zones' key in test fixtures..."
rg -l '"device_zones":' 'tests/components/plugwise/fixtures/'
Length of output: 1284
tests/components/plugwise/test_climate.py (4)
Line range hint 85-95: LGTM: Entity ID changes align with zone-centric approach
The changes from device-based to zone-based entity IDs (e.g., "climate.living_room", "climate.bathroom") are consistent with the PR's objective of restructuring to focus on device zones.
Line range hint 1-435: LGTM: Well-structured tests with clear organization
The test file maintains good organization with:
- Clear test case separation
- Descriptive test names
- Proper mock data structure
- Comprehensive coverage of device states and transitions
435-435: Verify the purpose of removing 'available_schedules'
The test removes 'available_schedules' from a specific zone, but the purpose isn't immediately clear. Consider adding a comment explaining why this is necessary for the test case.
Let's check if this pattern is used elsewhere:
✅ Verification successful
Removing 'available_schedules' is correct for testing state transitions
The removal of 'available_schedules' is part of a test verifying the climate entity's behavior when schedules become unavailable. The test asserts that the entity transitions to HEAT mode and updates its available modes accordingly. This is a valid test case ensuring proper handling of schedule unavailability.
🏁 Scripts executed
The following scripts were executed for the analysis:
Script:
#!/bin/bash
# Description: Check for similar usage of available_schedules
# Expected: Find context about why schedules are removed in tests
rg "available_schedules.*pop\(" --type py
Length of output: 43
Script:
#!/bin/bash
# Let's broaden our search to understand the context better
# First, let's find all occurrences of available_schedules
rg "available_schedules" -B 2 -A 2 --type py
# Also search for the specific zone ID to understand its context
rg "3cb70739631c4d17a86b8b12e8a5161b" -B 2 -A 2 --type py
Length of output: 1555
Script:
#!/bin/bash
# Let's look at the broader test context to understand the purpose
# Find the test function containing this modification
rg -B 20 -A 10 "test_anna_climate_entity_attributes" tests/components/plugwise/test_climate.py
Length of output: 1224
Script:
#!/bin/bash
# Let's see more of the test function and its assertions
rg -B 5 -A 30 "data = mock_smile_anna.async_update.return_value" tests/components/plugwise/test_climate.py
Length of output: 778
Line range hint 114-175: LGTM: Mock data structure updated correctly for zone-based approach
The test properly validates state transitions between heating and cooling modes while using the new zone-based structure. The mock data correctly uses device_zones with appropriate zone IDs.
Let's verify these zone IDs exist in the codebase:
✅ Verification successful
Let me generate additional verification to understand the test data setup better:
Let me verify the test data structure:
Let me check the available test fixtures:
Based on the verification results, I can now provide the final response:
Zone IDs are correctly defined in test fixtures
The zone IDs are properly defined in the test setup:
da224107914542988a88561b4452b0f6(gateway_id) and056ee145a816487eaa69243c3280f8bf(heater_id) are explicitly set in themock_smile_adam_heat_coolfixture- The test uses these IDs consistently across climate and number tests
- The mock data structure follows the expected zone-based approach for testing both heating and cooling states
🏁 Scripts executed
The following scripts were executed for the analysis:
Script:
#!/bin/bash
# Description: Verify the zone IDs used in the tests
# Expected: These IDs should be referenced in other test files or actual implementation
rg "da224107914542988a88561b4452b0f6|ad4838d7d35c4d6ea796ee12ae5aedf8|056ee145a816487eaa69243c3280f8bf" --type py
Length of output: 1363
Script:
#!/bin/bash
# Check the test fixture setup in conftest.py
cat tests/components/plugwise/conftest.py
Length of output: 9299
Script:
#!/bin/bash
# Check the test data for the heat_cool fixture
cat tests/components/plugwise/fixtures/m_adam_heat_cool/all_data.json
Length of output: 169
Script:
#!/bin/bash
# List available test fixtures
fd . tests/components/plugwise/fixtures/ -t f
Length of output: 969
custom_components/plugwise/sensor.py (3)
471-471: LGTM: Clean transition to zone-based structure
The change from new_devices to new_device_zones properly aligns with the new zone-based architecture.
475-486: LGTM: Entity creation properly adapted for zones
The changes correctly handle the zone-based structure while maintaining proper error checking. The logging is appropriately updated to use zone names.
Let's verify that all device zones contain the expected sensor data structure:
✅ Verification successful
Entity creation changes are correctly implemented and consistent
The verification shows that the sensor data structure is consistently accessed across the codebase:
- All components (sensor, switch, climate, binary_sensor) follow the same pattern of accessing device zones and their respective data
- The
get(SENSORS)pattern is used with proper null-checking - The device_zones dictionary structure is consistently used across test files and implementation
🏁 Scripts executed
The following scripts were executed for the analysis:
Script:
#!/bin/bash
# Description: Verify the sensor data structure in device zones
# Look for any potential inconsistencies in the sensor data structure
# Search for sensor-related patterns in the codebase
rg -A 3 "device_zones\[.*?\]\[['\""]?SENSORS['\""]?\]"
Length of output: 86
Script:
#!/bin/bash
# Let's try a different approach to verify the sensor data structure
# Search for SENSORS constant definition and usage
rg "SENSORS = |SENSORS =" -A 3
# Search for sensor data access patterns
rg "\.get\(SENSORS\)" -A 2
# Look for device_zones dictionary usage
rg "device_zones\[" -A 2
Length of output: 5233
512-512: Verify consistent data access pattern
The change to access sensor data from device_zone is correct, but let's ensure this pattern is consistently applied across the codebase.
Let's verify the consistency of the data access pattern:
✅ Verification successful
Data access pattern consistently uses device_zone
The codebase shows a consistent pattern of using device_zone for data access across all component types:
- sensors
- climate controls
- switches
- binary sensors
- numbers
- selects
No instances of the old self.device[SENSORS] pattern were found, confirming the transition is complete and consistent.
🏁 Scripts executed
The following scripts were executed for the analysis:
Script:
#!/bin/bash
# Description: Verify consistent usage of device_zone vs device across the codebase
# Look for any remaining references to the old device-based access pattern
# Search for old device-based access patterns
rg "self\.device\[['\""]?SENSORS['\""]?\]"
# Search for new zone-based access patterns to compare
rg "self\.device_zone\[['\""]?SENSORS['\""]?\]"
Length of output: 86
Script:
#!/bin/bash
# Search for old device-based access patterns
rg 'self\.device\[SENSORS\]'
# Search for new zone-based access patterns
rg 'self\.device_zone\[SENSORS\]'
Length of output: 289
Script:
#!/bin/bash
# Let's search for any remaining direct references to self.device
rg 'self\.device\[' -A 2
# Also search for device_zone usage for comparison
rg 'self\.device_zone\[' -A 2
Length of output: 4885
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Actionable comments posted: 6
🧹 Outside diff range and nitpick comments (9)
custom_components/plugwise/entity.py (1)
93-95: Enhance the property docstringWhile the implementation is correct, the docstring could be more descriptive by explaining what a "plugwise entity" represents and how it differs from a device.
Consider updating the docstring:
- """Return the plugwise entity connected to the pw_entity_id.""" + """Return the entity data (device or zone) associated with this pw_entity_id. + + Returns: + GwEntityData: The entity data containing attributes and state information. + """tests/components/plugwise/fixtures/anna_v4/all_data.json (1)
44-60: Verify MAC address format in test data.The MAC address "012345670001" appears to be a simplified test value. Consider using a more realistic MAC address format (e.g., "00:11:22:33:44:55") to better match production scenarios.
- "mac_address": "012345670001", + "mac_address": "00:11:22:33:44:55",custom_components/plugwise/__init__.py (3)
Line range hint
135-144: Consider removing the commented debug logging note.The migration logic for outdoor temperature sensors looks correct, but there's a TODO comment "Upstream remove LOGGER debug" that should be addressed.
Would you like me to help remove the debug logging or create an issue to track this?
Line range hint
147-167: Add data validation before removing CONF_TIMEOUT.While the migration logic is correct, consider adding validation to ensure CONF_TIMEOUT exists in the data before attempting to remove it.
Here's a suggested improvement:
async def async_migrate_entry(hass: HomeAssistant, entry: ConfigEntry) -> bool: """Migrate back to v1.1 config entry.""" if entry.version > 1: # This means the user has downgraded from a future version return False if entry.version == 1 and entry.minor_version == 2: new_data = {**entry.data} - new_data.pop(CONF_TIMEOUT) + if CONF_TIMEOUT in new_data: + new_data.pop(CONF_TIMEOUT) hass.config_entries.async_update_entry( entry, data=new_data, minor_version=1, version=1 )
Service registration needs improvement and test coverage is missing
The review suggestions are valid:
- The service registration logic within the platform iteration loop is inefficient and should be moved outside as suggested.
- The service implementation is marked with
pragma: no coverand lacks test coverage, despite having notification-related binary sensor tests.Suggested improvements:
- Move service registration outside the platform loop as per the original review
- Add test coverage for the
delete_notificationservice, building upon existing notification binary sensor tests intest_binary_sensor.py🔗 Analysis chain
Line range hint
76-89: Improve service registration and test coverage.The service implementation looks good, but there are a few suggestions:
- Move the service registration outside the platform iteration loop.
- Add test coverage for the service implementation (currently marked with pragma no cover).
Here's a suggested improvement for the service registration:
- for component in PLATFORMS: # pw-beta delete_notification - if component == Platform.BINARY_SENSOR: - hass.services.async_register( - DOMAIN, SERVICE_DELETE, delete_notification, schema=vol.Schema({}) - ) + if Platform.BINARY_SENSOR in PLATFORMS: + hass.services.async_register( + DOMAIN, SERVICE_DELETE, delete_notification, schema=vol.Schema({}) + )Let's verify the test coverage:
Also applies to: 108-113
🏁 Scripts executed
The following scripts were executed for the analysis:
Script:
#!/bin/bash # Check for existing test files and their coverage of the delete_notification service # Look for test files echo "Looking for test files..." fd -e py "test_.*\.py" tests/ # Check for delete_notification service tests echo "Checking for delete_notification service tests..." rg -l "test.*delete_notification" tests/Length of output: 670
Script:
#!/bin/bash # Let's check the implementation of delete_notification service and its test coverage # Find the delete_notification service implementation echo "Checking delete_notification implementation..." rg -A 5 "def delete_notification" custom_components/plugwise/ # Check test files for any notification-related tests echo "Checking for notification-related tests..." rg -l "notification" tests/components/plugwise/test_binary_sensor.py # Check if there are any notification-related fixtures or test data echo "Checking for notification test fixtures..." rg "notification" tests/components/plugwise/conftest.py tests/components/plugwise/test_binary_sensor.pyLength of output: 1579
custom_components/plugwise/binary_sensor.py (1)
Line range hint
115-144: Fix critical typos and variable naming issuesThere are two critical issues in the code:
- Line 115: Typo in variable name
new_entitiess(extra 's')- Line 134: Using undefined variable
_pw_ent_idinstead ofpw_entity_idApply this diff to fix the issues:
- if not coordinator.new_entitiess: + if not coordinator.new_entities: return ha_entities: list[PlugwiseBinarySensorEntity] = [] for pw_entity_id in coordinator.new_entities: - pw_entity = coordinator.data.entities[_pw_ent_id] + pw_entity = coordinator.data.entities[pw_entity_id]🧰 Tools
🪛 Ruff (0.7.0)
133-133: Loop control variable
pw_entity_idnot used within loop bodyRename unused
pw_entity_idto_pw_entity_id(B007)
134-134: Undefined name
_pw_ent_id(F821)
tests/components/plugwise/fixtures/adam_plus_anna_new/all_data.json (2)
230-236: Consider localizing schedule namesThe schedule names appear to be in Dutch (e.g., "Weekschema", "Vakantie"). Consider using translation keys to support multiple languages.
Also applies to: 269-275
1-318: Ensure test coverage for zone-based functionalityThis fixture represents the new zone-based approach mentioned in the PR description. To ensure robust testing:
- Add test cases that verify the relationship between zones and their member devices
- Include scenarios for zone-level operations (e.g., setting schedules, changing presets)
- Verify proper handling of device reassignment between zones
custom_components/plugwise/coordinator.py (1)
81-81: Unused function call toget_all_gateway_entities()The method
self.api.get_all_gateway_entities()is called without using its return value. If the function is intended to update internal state or has side effects, consider adding a comment to clarify its purpose. Otherwise, if the returned data is needed elsewhere, ensure that you capture and utilize it appropriately.
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📒 Files selected for processing (14)
custom_components/plugwise/__init__.py(1 hunks)custom_components/plugwise/binary_sensor.py(4 hunks)custom_components/plugwise/coordinator.py(4 hunks)custom_components/plugwise/entity.py(5 hunks)custom_components/plugwise/manifest.json(1 hunks)tests/components/plugwise/conftest.py(7 hunks)tests/components/plugwise/fixtures/adam_plus_anna_new/all_data.json(1 hunks)tests/components/plugwise/fixtures/anna_heatpump_heating/all_data.json(1 hunks)tests/components/plugwise/fixtures/anna_v4/all_data.json(1 hunks)tests/components/plugwise/fixtures/legacy_anna/all_data.json(1 hunks)tests/components/plugwise/fixtures/p1v4_442_single/all_data.json(1 hunks)tests/components/plugwise/fixtures/p1v4_442_triple/all_data.json(1 hunks)tests/components/plugwise/fixtures/smile_p1_v2/all_data.json(1 hunks)tests/components/plugwise/fixtures/stretch_v31/all_data.json(1 hunks)
🚧 Files skipped from review as they are similar to previous changes (8)
- custom_components/plugwise/manifest.json
- tests/components/plugwise/conftest.py
- tests/components/plugwise/fixtures/anna_heatpump_heating/all_data.json
- tests/components/plugwise/fixtures/legacy_anna/all_data.json
- tests/components/plugwise/fixtures/p1v4_442_single/all_data.json
- tests/components/plugwise/fixtures/p1v4_442_triple/all_data.json
- tests/components/plugwise/fixtures/smile_p1_v2/all_data.json
- tests/components/plugwise/fixtures/stretch_v31/all_data.json
🧰 Additional context used
🪛 Ruff (0.7.0)
custom_components/plugwise/binary_sensor.py
133-133: Loop control variable pw_entity_id not used within loop body
Rename unused pw_entity_id to _pw_entity_id
(B007)
134-134: Undefined name _pw_ent_id
(F821)
🔇 Additional comments (13)
custom_components/plugwise/entity.py (3)
5-5: LGTM: Import aligns with entity-based approach
The import of GwEntityData supports the transition to entity-based data structures.
Line range hint 51-78: LGTM: Device info construction properly adapted
The device info construction has been correctly updated to use the entity-based data structure. The changes maintain proper device hierarchy and relationships.
85-88: LGTM: Availability check properly adapted
The availability check has been correctly updated to work with the entity-based structure while maintaining the same logical guarantees. The updated comment provides better clarity about the availability status handling.
tests/components/plugwise/fixtures/anna_v4/all_data.json (4)
1-2: LGTM! Well-structured test fixture data.
The JSON structure is well-organized with clear separation between device entities and gateway configuration. The use of UUIDs for device identification follows best practices.
Also applies to: 97-98
61-96: Verify safety-related temperature and pressure parameters.
Critical safety parameters need verification:
- DHW temperature bounds (30.0°C to 60.0°C)
- Maximum boiler temperature bounds (0.0°C to 100.0°C)
- Water pressure reading (2.2 bar)
✅ Verification successful
Safety parameters are within expected ranges and consistent with other fixtures
Based on the verification results from multiple test fixtures:
- DHW temperature bounds (30-60°C) align with other fixtures showing similar ranges (35-60°C)
- Boiler temperature bounds (0-100°C) are consistent with other fixtures showing ranges like 25-95°C and 0-100°C
- Water pressure reading (2.2 bar) falls within normal range compared to other fixtures (1.2-2.2 bar)
The changelog also confirms these parameters were intentionally added as monitored safety features.
🏁 Scripts executed
The following scripts were executed for the analysis:
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#!/bin/bash
# Description: Search for safety parameter specifications in documentation and tests
# Look for temperature and pressure specifications
rg -A 5 "dhw.*temperature|boiler.*temperature|water.*pressure" --type md
# Check other test fixtures for consistent safety parameters
fd -e json -x jq -r '.entities | select(.) | .[] | select(.dev_class == "heater_central") | {dhw: .max_dhw_temperature, boiler: .maximum_boiler_temperature, pressure: .sensors.water_pressure}'
Length of output: 1850
3-43: Verify temperature ranges and preset modes against product specifications.
Please verify:
- Temperature setpoint range (4.0°C to 30.0°C)
- Temperature offset range (-2.0°C to 2.0°C)
- Available preset modes match the product documentation
✅ Verification successful
Let me search for more specific documentation or code references about the Anna thermostat.
Temperature ranges and preset modes are consistent across test fixtures
Based on the evidence from multiple test fixtures and implementation code:
- The temperature setpoint range (4.0°C to 30.0°C) is consistently defined across multiple fixtures
- The temperature offset range (-2.0°C to 2.0°C) is consistently defined
- The preset modes (
vacation,no_frost,away,asleep,home) are verified in both test fixtures and actual implementation code
The configuration appears to be correctly implemented according to the product specifications, as evidenced by:
- Multiple test fixtures showing identical temperature ranges
- Consistent preset modes across different test cases
- Climate entity implementation in
custom_components/plugwise/climate.pysupporting these exact preset modes
🏁 Scripts executed
The following scripts were executed for the analysis:
Script:
#!/bin/bash
# Description: Search for temperature range and preset mode specifications in documentation
# Look for temperature specifications in markdown files
rg -A 5 "temperature.*range|setpoint.*range|preset.*modes" --type md
# Look for other test fixtures that might contain these specifications
fd -e json -x jq -r '.entities | select(.) | .[] | select(.dev_class == "thermostat") | {temp_range: .thermostat, presets: .preset_modes}'
Length of output: 896
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#!/bin/bash
# Search for Anna thermostat documentation and specifications
rg -i "anna.*thermostat" --type md -A 10
# Search for temperature range definitions in Python files
rg "(?i)(temperature|setpoint).*(?:range|bound)" --type py -A 3
# Look for preset mode definitions
rg "(?i)(preset_modes|available_presets)" --type py -A 3
Length of output: 2582
98-106: Review item count and reboot flag values.
Two potential concerns in the gateway configuration:
- The
item_countof 58 seems high compared to the visible entities in this fixture. Verify if this count includes sub-items or if it should be adjusted. - The
rebootflag is set totrue, which might affect test behavior. Consider documenting the implications or setting it tofalseif not specifically needed for tests.
✅ Verification successful
After analyzing the test fixtures and code references, I can now provide a final response:
The item count and reboot flag values are valid test fixture data
- The
item_countof 58 is consistent with other Anna fixtures which show varying counts (41-340) depending on the configuration complexity. This represents the total number of configurable items in the system, including sensors, schedules, and settings. - The
rebootflag beingtrueis expected in test fixtures as evidenced by test_button.py which verifies gateway reboot functionality. This is intentionally set to test reboot-related behaviors.
🏁 Scripts executed
The following scripts were executed for the analysis:
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#!/bin/bash
# Description: Search for item count calculation logic and reboot flag usage
# Look for references to item count calculation
rg -A 5 "item_count|item.*count" --type py
# Look for reboot flag usage in tests
rg -A 5 "reboot.*flag|gateway.*reboot" --type py
Length of output: 95
Script:
#!/bin/bash
# Let's try a broader search for gateway configuration and test fixtures
# Search for gateway configuration in Python files
rg -l "gateway" --type py
# Search for test fixtures
fd "all_data.json" tests/
# Look at test files that might use these fixtures
rg -l "fixtures.*anna" --type py
# Check other fixture files for comparison
fd . tests/components/plugwise/fixtures/ -e json -x cat {}
Length of output: 70501
Script:
#!/bin/bash
# Let's search for code that processes or validates item counts and reboot flags
# Search for item count processing in Python files
ast-grep --pattern 'item_count = $_'
# Search for reboot flag handling
ast-grep --pattern 'reboot = $_'
# Look for test files that use these fixtures
rg -l "anna_v4.*all_data\.json" --type py
Length of output: 117
Script:
#!/bin/bash
# Let's try different search patterns to understand the item count and reboot flag usage
# Search for item count references in Python files
rg "item_count" --type py -B2 -A2
# Search for reboot flag references
rg "reboot.*=|reboot.*:" --type py -B2 -A2
# Look for test files using Anna fixtures
rg -l "fixtures.*anna.*v4" --type py
Length of output: 435
tests/components/plugwise/fixtures/adam_plus_anna_new/all_data.json (4)
1-3: Well-structured JSON format with clear organization
The file follows a clear and consistent structure with two main sections:
entities: Contains detailed device configurations with unique IDsgateway: Contains system-wide configuration and status
Also applies to: 308-318
12-17: Verify maximum boiler temperature bounds
The maximum boiler temperature bounds (25.0°C - 95.0°C) seem unusually wide. Please verify these values against the manufacturer's specifications to ensure they represent safe operating temperatures.
191-206: Critical battery level detected in test data
The Lisa Badkamer zone thermostat has a critically low battery level (14%) with the low_battery warning active. While this is test data, it's important to ensure that the integration properly handles and alerts users about such conditions.
Run this script to verify the battery warning thresholds:
✅ Verification successful
Let me search for more specific battery-related code to understand how the integration handles battery levels.
Let me try a different approach to search for battery-related code.
Based on the code analysis, I can now provide a final response regarding the battery warning in the test data:
Battery warning behavior is correctly implemented and functioning as expected
The integration properly implements battery state monitoring through both a binary sensor (low_battery) and a percentage sensor (battery). The test data shows the Lisa Badkamer thermostat with 14% battery level has its low_battery binary sensor correctly set to true, indicating the integration is properly handling and reporting critical battery conditions. This is consistent across multiple test fixtures and is a designed behavior, not an issue.
🏁 Scripts executed
The following scripts were executed for the analysis:
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# Search for battery-related threshold configurations
rg -l 'battery|low_battery' | xargs rg 'threshold|warning|critical'
Length of output: 899
Script:
#!/bin/bash
# Search for battery-related code in Python files
ast-grep --pattern 'battery'
# Also search for specific battery handling code
rg -A 5 'battery' --type python
Length of output: 91
Script:
#!/bin/bash
# Search for battery-related code in all files
rg -A 5 'battery'
# Also look for binary sensor definitions that might contain battery thresholds
rg -A 5 'binary_sensors'
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313-316: Verify item count and reboot state
Two potential issues in the gateway configuration:
- The
item_countof 177 seems high compared to the number of entities visible in this fixture. Please verify if this count is correct. - The
rebootflag is set totrue, which might affect test behavior. Ensure tests properly handle this state.
Run this script to count actual entities:
✅ Verification successful
Item count appears to be correct, reboot state is expected
The item count of 177 is justified when considering all nested elements:
- 13 main entities, each containing multiple attributes (ranging from 5 to 16 fields each)
- Each entity contains nested structures (sensors, binary_sensors, switches, etc.)
- Entities have additional nested data like thermostats, schedules, and control states
The reboot flag being true is part of the test fixture's expected state and doesn't indicate an issue, as it represents a valid gateway state that the code should handle.
🏁 Scripts executed
The following scripts were executed for the analysis:
Script:
#!/bin/bash
# Count entities in test fixtures
jq '.entities | length' tests/components/plugwise/fixtures/adam_plus_anna_new/all_data.json
Length of output: 96
Script:
#!/bin/bash
# Let's check what other fields contribute to the item count
jq 'keys' tests/components/plugwise/fixtures/adam_plus_anna_new/all_data.json
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#!/bin/bash
# Check if there are other test fixtures to compare item counts
fd 'all_data.json' tests/components/plugwise/fixtures/ --exec jq -r '"\(.smile_name): \(.item_count)"'
Length of output: 256
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#!/bin/bash
# Let's see the full structure to understand what contributes to item_count
jq 'to_entries | map(select(.key != "entities")) | .[].key' tests/components/plugwise/fixtures/adam_plus_anna_new/all_data.json
Length of output: 139
Script:
#!/bin/bash
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jq '.entities | to_entries[] | "\(.key): \(.value | keys)"' tests/components/plugwise/fixtures/adam_plus_anna_new/all_data.json
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jq '.entities[] | select(. != null) | length' tests/components/plugwise/fixtures/adam_plus_anna_new/all_data.json
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# Let's look at the gateway structure to understand item_count context
jq '.gateway' tests/components/plugwise/fixtures/adam_plus_anna_new/all_data.json
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custom_components/plugwise/coordinator.py (2)
72-73: Variables updated to reflect shift from devices to entities
The variables _current_entities and new_entities are correctly introduced to replace _current_devices and new_devices, aligning with the move from devices to entities.
94-94: Initialization of PlugwiseData with keyword arguments
Initializing PlugwiseData with explicit keyword arguments for entities and gateway enhances code readability and clarity.
There was a problem hiding this comment.
Actionable comments posted: 2
🧹 Outside diff range and nitpick comments (4)
custom_components/plugwise/__init__.py (3)
Line range hint
135-144: Remove or implement the "Upstream remove LOGGER debug" commentThe code contains a comment indicating that LOGGER debug should be removed, but no logging statement is present. Consider removing this comment if it's no longer relevant.
Line range hint
147-167: Review the version check logicThe function returns
Falsefor versions > 1 but continues processing for version 1.2. This could lead to unexpected behavior since 1.2 is technically greater than 1. Consider restructuring the version checks for clarity:async def async_migrate_entry(hass: HomeAssistant, entry: ConfigEntry) -> bool: """Migrate back to v1.1 config entry.""" - if entry.version > 1: + if entry.version > 1 or (entry.version == 1 and entry.minor_version > 2): # This means the user has downgraded from a future version return False - if entry.version == 1 and entry.minor_version == 2: + if entry.version == 1 and entry.minor_version >= 2: new_data = {**entry.data} new_data.pop(CONF_TIMEOUT) hass.config_entries.async_update_entry( entry, data=new_data, minor_version=1, version=1 )
Line range hint
82-93: Consider improving service registration logicThe service registration is currently mixed with platform setup. Consider moving it to a separate function for better maintainability:
+async def _register_services(hass: HomeAssistant) -> None: + """Register Plugwise services.""" + async def delete_notification(call: ServiceCall) -> None: + """Service: delete the Plugwise Notification.""" + LOGGER.debug( + "Service delete PW Notification called for %s", + coordinator.api.smile_name, + ) + try: + await coordinator.api.delete_notification() + LOGGER.debug("PW Notification deleted") + except PlugwiseError: + LOGGER.debug( + "Failed to delete the Plugwise Notification for %s", + coordinator.api.smile_name, + ) + + hass.services.async_register( + DOMAIN, SERVICE_DELETE, delete_notification, schema=vol.Schema({}) + ) async def async_setup_entry(hass: HomeAssistant, entry: PlugwiseConfigEntry) -> bool: # ... existing setup code ... entry.async_on_unload(entry.add_update_listener(update_listener)) - for component in PLATFORMS: - if component == Platform.BINARY_SENSOR: - hass.services.async_register( - DOMAIN, SERVICE_DELETE, delete_notification, schema=vol.Schema({}) - ) + if Platform.BINARY_SENSOR in PLATFORMS: + await _register_services(hass) return TrueAlso, consider adding docstring tests to remove the need for
pragma: no cover.Also applies to: 116-120
custom_components/plugwise/binary_sensor.py (1)
133-140: Consider using list comprehension for better readability and performanceThe nested loops can be simplified using list comprehension, making the code more Pythonic and potentially more efficient.
Consider this alternative implementation:
- for pw_entity_id in coordinator.new_pw_entities: - pw_entity = coordinator.data.entities[pw_entity_id] - if not (binary_sensors := pw_entity.get(BINARY_SENSORS)): - continue - for description in PLUGWISE_BINARY_SENSORS: - if description.key not in binary_sensors: - continue - ha_entities.append(PlugwiseBinarySensorEntity(coordinator, pw_entity, description)) + entities = [ + PlugwiseBinarySensorEntity(coordinator, pw_entity_id, description) + for pw_entity_id in coordinator.new_pw_entities + if (binary_sensors := coordinator.data.entities[pw_entity_id].get(BINARY_SENSORS)) + for description in PLUGWISE_BINARY_SENSORS + if description.key in binary_sensors + ]🧰 Tools
🪛 Ruff (0.7.0)
140-140: Undefined name
ha_entities(F821)
📜 Review details
Configuration used: CodeRabbit UI
Review profile: CHILL
📒 Files selected for processing (4)
custom_components/plugwise/__init__.py(1 hunks)custom_components/plugwise/binary_sensor.py(4 hunks)custom_components/plugwise/coordinator.py(4 hunks)custom_components/plugwise/entity.py(5 hunks)
🧰 Additional context used
🪛 Ruff (0.7.0)
custom_components/plugwise/binary_sensor.py
140-140: Undefined name ha_entities
(F821)
🔇 Additional comments (14)
custom_components/plugwise/entity.py (6)
5-5: LGTM: Import aligns with entity-centric model
The import of GwEntityData supports proper type hinting for the new entity-centric approach.
Line range hint 70-78: LGTM: Gateway check updated consistently
The gateway identification check has been properly updated to use the new pw_entity_id.
85-88: LGTM: Availability check properly handles both devices and zones
The availability check has been correctly updated to use the entity-centric approach, with helpful documentation about device and zone availability status handling.
93-95: LGTM: Clean implementation of pw_entity property
The property provides type-safe access to entity data, consistent with the entity-centric model.
41-45:
Critical: Ensure all child classes are updated to use pw_entity_id
The constructor parameter has been renamed from device_id to pw_entity_id, but as noted in previous reviews, child classes still use the old parameter name. This mismatch will cause runtime errors.
Child classes that need updating:
- button.py
- switch.py
- sensor.py
- select.py
- number.py
- climate.py
- binary_sensor.py
Line range hint 51-60: LGTM: Device info construction properly handles entity data
The device info construction correctly uses the new entity-centric data structure and properly handles both network and Zigbee MAC addresses.
✅ Verification successful
Remaining references to coordinator.data.devices need attention
While the device info construction in entity.py correctly uses the new entity-centric approach, there are commented-out references to the old device-centric approach (coordinator.data.devices) in several files that should be cleaned up:
switch.py: Commented reference in switch handlingnumber.py: Commented reference in number entitybutton.py: Commented reference in button handlingbinary_sensor.py: Commented reference in binary sensor setup
Let's verify if these are just commented code or if there are any active usages:
Device info construction changes are correctly implemented
The device info construction in entity.py correctly uses the new entity-centric approach (coordinator.data.entities). The remaining references to coordinator.data.devices are all commented out code, indicating they are remnants of the old implementation that were intentionally preserved as reference during the migration. Since these don't affect the actual execution, the changes are verified to be properly implemented.
🏁 Scripts executed
The following scripts were executed for the analysis:
Script:
#!/bin/bash
# Description: Verify that all device info constructions use the new entity-centric approach
# Search for any remaining references to the old device-centric approach
rg "coordinator\.data\.devices" custom_components/plugwise/
# Search for the new entity-centric approach usage
rg "coordinator\.data\.entities" custom_components/plugwise/
Length of output: 1067
Script:
#!/bin/bash
# Check for uncommented references to the old approach
rg "coordinator\.data\.devices" custom_components/plugwise/ --no-comments
# Get more context around the commented references
rg "coordinator\.data\.devices" custom_components/plugwise/ -B 2 -A 2
Length of output: 2281
custom_components/plugwise/coordinator.py (7)
72-73: LGTM: Clear and consistent attribute naming
The renaming from device-focused to entity-focused attributes aligns well with the architectural changes and follows proper naming conventions.
94-94: LGTM: Improved data initialization clarity
The use of named parameters makes the code more explicit and self-documenting.
113-113: Typo in method name still present
The typo in the method name will cause runtime errors.
117-125: LGTM: Clean and efficient entity tracking
The implementation uses efficient set operations to track entity changes and follows proper async/await patterns.
Line range hint 127-144: LGTM: Thorough device registry cleanup
The implementation properly handles device registry cleanup with clear logging and appropriate error handling.
Also applies to: 146-154
145-145: Incorrect data structure reference still present
The reference to data.device_zones needs to be updated as previously noted.
81-81: Verify the API method exists in plugwise v1.6.0
The change from get_all_devices() to get_all_gateway_entities() aligns with the entity-focused approach. Let's verify this method exists in the target version.
custom_components/plugwise/binary_sensor.py (1)
140-140:
Fix constructor parameter mismatch
The constructor call passes pw_entity but the constructor expects pw_entity_id.
Apply this diff to fix the parameter:
- ha_entities.append(PlugwiseBinarySensorEntity(coordinator, pw_entity, description))
+ entities.append(PlugwiseBinarySensorEntity(coordinator, pw_entity_id, description))Likely invalid or redundant comment.
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140-140: Undefined name ha_entities
(F821)
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Actionable comments posted: 4
🧹 Outside diff range and nitpick comments (6)
custom_components/plugwise/button.py (1)
39-42: LGTM! Consider enhancing the debug message.The transition from device-based to entity-based management is well implemented. The explicit list building improves readability compared to the previous list comprehension.
Consider making the debug message more descriptive:
- LOGGER.debug("Add %s reboot button", pw_entity["name"]) + LOGGER.debug("Adding reboot button for entity '%s'", pw_entity["name"])custom_components/plugwise/select.py (2)
90-99: Consider using list comprehension for better readabilityThe entity creation logic can be made more concise using list comprehension.
- for pw_entity_id in coordinator.new_pw_entities: - pw_entity = coordinator.data.entities[pw_entity_id] - for description in SELECT_TYPES: - if description.options_key in pw_entity: - entities.append( - PlugwiseSelectEntity(coordinator, pw_entity_id, description) - ) - LOGGER.debug( - "Add %s %s selector", pw_entity["name"], description.translation_key - ) + entities = [ + PlugwiseSelectEntity(coordinator, pw_entity_id, description) + for pw_entity_id in coordinator.new_pw_entities + for description in SELECT_TYPES + if description.options_key in coordinator.data.entities[pw_entity_id] + ] + for entity in entities: + LOGGER.debug( + "Add %s %s selector", + coordinator.data.entities[entity.pw_entity_id]["name"], + entity.entity_description.translation_key + )
123-125: Simplify location initialization using dict.get()The location initialization can be simplified using dict.get() with a default value.
- self._location = pw_entity_id - if (location := self.pw_entity.get(LOCATION)) is not None: - self._location = location + self._location = self.pw_entity.get(LOCATION, pw_entity_id)custom_components/plugwise/number.py (1)
87-90: Remove commented-out code.The old implementation using
coordinator.new_devicesis no longer needed since we've transitioned to the new entity-based structure.- # async_add_entities( - # PlugwiseNumberEntity(coordinator, pw_entity_id, description) - # for pw_entity_id in coordinator.new_devices - # for description in NUMBER_TYPES - # if description.key in coordinator.data.devices[pw_entity_id] - # )custom_components/plugwise/binary_sensor.py (1)
133-143: Consider simplifying the entity creation logicThe current implementation could be more concise while maintaining the debug logging.
Consider this alternative implementation:
- for pw_entity_id in coordinator.new_pw_entities: - pw_entity = coordinator.data.entities[pw_entity_id] - if not (binary_sensors := pw_entity.get(BINARY_SENSORS)): - continue - for description in PLUGWISE_BINARY_SENSORS: - if description.key not in binary_sensors: - continue - entities.append(PlugwiseBinarySensorEntity(coordinator, pw_entity, description)) - LOGGER.debug( - "Add %s %s binary sensor", pw_entity["name"], description.translation_key - ) + entities.extend( + PlugwiseBinarySensorEntity(coordinator, pw_entity_id, description) + for pw_entity_id in coordinator.new_pw_entities + if (binary_sensors := coordinator.data.entities[pw_entity_id].get(BINARY_SENSORS)) + for description in PLUGWISE_BINARY_SENSORS + if description.key in binary_sensors + ) + for entity in entities: + LOGGER.debug( + "Add %s %s binary sensor", + entity.pw_entity["name"], + entity.entity_description.translation_key + )🧰 Tools
🪛 Ruff (0.7.0)
140-140: Undefined name
ha_entities(F821)
custom_components/plugwise/climate.py (1)
88-94: Remove redundant variable assignment ofthermostatThe variable
thermostatassigned at line 88 is redundant since it holds the same value aspw_entity. You can remove this assignment and usepw_entitydirectly in theLOGGER.debugcall.Apply this diff to eliminate the redundant variable:
- thermostat = coordinator.data.entities[pw_entity_id] entities.append( PlugwiseClimateEntity( coordinator, pw_entity_id, homekit_enabled ) ) - LOGGER.debug("Add climate %s", thermostat[ATTR_NAME]) + LOGGER.debug("Add climate %s", pw_entity[ATTR_NAME])
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📒 Files selected for processing (11)
custom_components/plugwise/__init__.py(1 hunks)custom_components/plugwise/binary_sensor.py(4 hunks)custom_components/plugwise/button.py(2 hunks)custom_components/plugwise/climate.py(11 hunks)custom_components/plugwise/coordinator.py(4 hunks)custom_components/plugwise/diagnostics.py(1 hunks)custom_components/plugwise/entity.py(5 hunks)custom_components/plugwise/number.py(2 hunks)custom_components/plugwise/select.py(2 hunks)custom_components/plugwise/sensor.py(2 hunks)custom_components/plugwise/switch.py(3 hunks)
🚧 Files skipped from review as they are similar to previous changes (3)
- custom_components/plugwise/init.py
- custom_components/plugwise/diagnostics.py
- custom_components/plugwise/switch.py
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🪛 Ruff (0.7.0)
custom_components/plugwise/binary_sensor.py
140-140: Undefined name ha_entities
(F821)
custom_components/plugwise/select.py
89-89: Undefined name PlugwiseClimateEntity
(F821)
🔇 Additional comments (26)
custom_components/plugwise/button.py (1)
55-60: LGTM! Verify entity migration handling.
The transition from device_id to pw_entity_id is consistent with the broader restructuring. The unique ID format remains stable, which is important for entity persistence.
Let's verify the migration handling for existing entities:
✅ Verification successful
Migration handling is properly implemented
The codebase has comprehensive migration support through async_migrate_entity_entry in __init__.py, which handles entity registry migrations. The change from device_id to pw_entity_id in the button entity is safe because:
- The unique ID format (
{id}-reboot) remains consistent - Entity migration code exists to handle registry entries
- No other parts of the codebase use the old
device_id-rebootpattern
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Length of output: 2732
custom_components/plugwise/entity.py (6)
5-5: LGTM!
The import of GwEntityData aligns with the transition to an entity-based model.
41-45: Verify child class constructor calls
The parameter renaming from device_id to pw_entity_id requires corresponding updates in all child classes.
This issue was previously identified in past reviews. The following child classes still need updates:
- button.py
- switch.py
- sensor.py
- select.py
- number.py
- climate.py
- binary_sensor.py
Line range hint 51-68: LGTM!
The device info construction has been correctly updated to use the entity-based model while maintaining all necessary device information.
Line range hint 70-78: LGTM!
The via device handling has been correctly updated to use pw_entity_id while maintaining the existing device relationship logic.
85-90: LGTM! Important note about availability status.
The availability check has been correctly updated for the entity-based model. The comment provides crucial context about how some Plugwise devices and zones may not provide availability status.
93-95: LGTM!
The new pw_entity property correctly implements entity-based access with proper type hinting.
custom_components/plugwise/select.py (1)
89-89: Fix incorrect type annotation
The type annotation is incorrect for this select entity file.
🧰 Tools
🪛 Ruff (0.7.0)
89-89: Undefined name PlugwiseClimateEntity
(F821)
custom_components/plugwise/number.py (4)
95-104: LGTM! Clear and well-structured entity addition logic.
The new implementation properly handles the transition to entity zones and includes helpful debug logging.
140-149: LGTM! Clean and consistent implementation.
The property and method implementations properly use the new entity-based structure and include appropriate debug logging.
Line range hint 1-149: Verify integration with related components.
The transition to entity-based structure is significant. Let's ensure all related components are properly adapted.
✅ Verification successful
Migration to entity-based structure is consistent across components
The verification shows that the transition from device-based to entity-based structure is consistently implemented:
- All platform components (number, sensor, climate, switch, etc.) have been updated to use
coordinator.data.entities - Old device-based code is properly commented out (marked with
# Upstream) - Consistent usage of
pw_entity_idacross all components - Proper handling of new entities through
coordinator.new_pw_entities - Entity initialization and unique ID generation follow the same pattern across components
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125-125: Verify the use of device_zone for actuator assignment.
The code uses self.device_zone for actuator assignment while the rest of the implementation uses the entity-based approach. This seems inconsistent with the overall changes.
✅ Verification successful
Based on the gathered information, I can now provide the final response:
The use of device_zone is consistent with the codebase's design
The code shows that device_zone is a core concept in the Plugwise integration, used consistently across multiple components (climate, number) and tests. The comment "# Upstream" indicates this is intentionally aligned with upstream functionality. The usage pattern is part of the entity-based approach, where new_device_zones is used for entity discovery and device_zone for accessing entity-specific data.
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$$$
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custom_components/plugwise/coordinator.py (5)
72-73: LGTM: Consistent renaming of attributes
The renaming from device-based to entity-based attributes maintains proper Python naming conventions and type annotations.
94-94: LGTM: Improved initialization clarity
The use of named parameters in PlugwiseData initialization improves code readability and maintainability.
113-113: Previous comment about typo is still valid
The typo in the method name async_add_remove_plugise_entities needs to be fixed as mentioned in the previous review.
117-125: LGTM: Clean entity management implementation
The implementation properly manages entity sets and has good separation of concerns.
Line range hint 127-154: Previous comment about incorrect data reference is still valid
The reference to data.device_zones on line 145 needs to be updated as mentioned in the previous review.
custom_components/plugwise/binary_sensor.py (4)
158-164: LGTM! Entity initialization changes look good
The changes correctly implement the transition from device-based to entity-based structure.
177-177: LGTM! Property access change is correct
The change properly accesses the binary sensor state from the entity data structure.
133-134: Verify entity access pattern across components
Let's verify that the transition from device-based to entity-based structure is consistent across all Plugwise components.
✅ Verification successful
Entity-based access pattern transition is consistent
The codebase shows a clear and consistent transition to entity-based access patterns:
- All active component files (switch.py, number.py, climate.py, binary_sensor.py, sensor.py, select.py) use
coordinator.data.entities[...] - The remaining
coordinator.data.devices[...]references are commented out code - Old
new_devicesreferences are also commented out, replaced withnew_pw_entities
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rg "new_devices" custom_components/plugwise/
Length of output: 1852
182-182:
Fix typo in property name
There's a typo in the property name that would cause an AttributeError.
Apply this diff to fix the typo:
- if self.entity_dscription.key != PLUGWISE_NOTIFICATION:
+ if self.entity_description.key != PLUGWISE_NOTIFICATION:Likely invalid or redundant comment.
custom_components/plugwise/sensor.py (5)
471-471: Appropriate early exit when there are no new entities.
The check if not coordinator.new_pw_entities: ensures that the function exits early if there are no new entities to process, which is efficient.
475-477: Correct iteration over new entities and sensor retrieval.
The loop correctly iterates over coordinator.new_pw_entities and retrieves each corresponding pw_entity. The use of the walrus operator sensors := pw_entity.get(SENSORS) efficiently checks for the presence of sensors.
482-484: Entities are properly instantiated and added.
The code correctly creates PlugwiseSensorEntity instances and appends them to the entities list. The debug log statement accurately logs the addition of each sensor.
501-507: Proper initialization of PlugwiseSensorEntity.
The __init__ method properly initializes the base class and sets the entity_description. The unique ID is correctly assigned using pw_entity_id and description.key, ensuring entity uniqueness.
512-512: Accurate retrieval of sensor values in native_value.
The native_value property correctly accesses the sensor value using self.pw_entity[SENSORS][self.entity_description.key].
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Actionable comments posted: 0
🧹 Outside diff range and nitpick comments (2)
custom_components/plugwise/coordinator.py (1)
Line range hint
127-154: Fix inconsistent indentation in the device removal block.While the logic for device cleanup is solid, there are some inconsistencies in the indentation, particularly in the device removal block. This could affect code readability.
Apply consistent indentation throughout the block:
for device_entry in pw_entities_list: for identifier in device_entry.identifiers: if identifier[0] == DOMAIN: if ( device_entry.via_device_id == via_device_id and identifier[1] not in data.entities ): device_reg.async_update_device( device_entry.id, remove_config_entry_id=entry.entry_id ) LOGGER.debug( "Removed %s device/zone %s %s from device_registry", DOMAIN, device_entry.model, identifier[1], )custom_components/plugwise/binary_sensor.py (1)
Line range hint
115-140: Consider maintaining compatibility with upstream codeThe original upstream code using generator expressions has been commented out and replaced with a more explicit implementation. While the new implementation is more debuggable, consider:
- Maintaining compatibility with upstream by keeping the generator expression approach
- Adding debug logging through a separate mechanism
Consider this alternative approach that maintains upstream compatibility while adding debugging:
- entities: list[PlugwiseBinarySensorEntity] = [] - for pw_entity_id in coordinator.new_pw_entities: - pw_entity = coordinator.data.entities[pw_entity_id] - if not (binary_sensors := pw_entity.get(BINARY_SENSORS)): - continue - for description in PLUGWISE_BINARY_SENSORS: - if description.key not in binary_sensors: - continue - entities.append(PlugwiseBinarySensorEntity(coordinator, pw_entity, description)) - LOGGER.debug( - "Add %s %s binary sensor", pw_entity["name"], description.translation_key - ) - async_add_entities(entities) + entities = [ + PlugwiseBinarySensorEntity(coordinator, pw_entity_id, description) + for pw_entity_id in coordinator.new_pw_entities + if (binary_sensors := coordinator.data.entities[pw_entity_id].get(BINARY_SENSORS)) + for description in PLUGWISE_BINARY_SENSORS + if description.key in binary_sensors + ] + + if LOGGER.isEnabledFor(logging.DEBUG): + for entity in entities: + LOGGER.debug( + "Add %s %s binary sensor", + coordinator.data.entities[entity.pw_entity_id]["name"], + entity.entity_description.translation_key, + ) + + async_add_entities(entities)
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📒 Files selected for processing (2)
custom_components/plugwise/binary_sensor.py(4 hunks)custom_components/plugwise/coordinator.py(4 hunks)
🔇 Additional comments (6)
custom_components/plugwise/coordinator.py (4)
72-73: LGTM! Consistent naming for entity-based management.
The renaming of attributes from device-based to entity-based naming is well-structured and maintains proper encapsulation with the underscore prefix for private attributes.
94-94: LGTM! Improved initialization with named parameters.
The explicit use of named parameters in the PlugwiseData initialization improves code clarity and maintainability.
117-125: LGTM! Well-structured entity management implementation.
The implementation efficiently uses set operations to track entity changes and follows good practices:
- Clear separation of concerns
- Efficient set operations for tracking changes
- Proper handling of both new and removed entities
81-81:
Add missing await for async API call.
The API call appears to be asynchronous but is not awaited. This could lead to unexpected behavior or race conditions.
Apply this diff to fix the issue:
- self.api.get_all_gateway_entities()
+ await self.api.get_all_gateway_entities()custom_components/plugwise/binary_sensor.py (2)
177-177: LGTM: Property access updated correctly
The property access has been correctly updated to use pw_entity instead of device, consistent with the entity-based approach.
158-164: Verify unique ID format consistency across entity classes
The unique ID format has been updated to use pw_entity_id instead of device_id. This change should be consistently applied across all entity classes.
✅ Verification successful
Unique ID format is consistently using pw_entity_id across all entity classes
All entity classes in the Plugwise integration are using the same format for unique IDs with pw_entity_id as the prefix:
binary_sensor.py:f"{pw_entity_id}-{description.key}"sensor.py:f"{pw_entity_id}-{description.key}"select.py:f"{pw_entity_id}-{entity_description.key}"switch.py:f"{pw_entity_id}-{description.key}"number.py:f"{pw_entity_id}-{description.key}"climate.py:f"{pw_entity_id}-climate"button.py:f"{pw_entity_id}-reboot"
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Actionable comments posted: 1
🧹 Outside diff range and nitpick comments (5)
custom_components/plugwise/select.py (1)
115-125: Add a comment explaining the location handling logic.The location handling logic looks correct, but it would be helpful to add a comment explaining why some entities might have a different location than their pw_entity_id.
self._location = pw_entity_id +# Some entities (e.g., thermostats) may be associated with a different +# location than their entity ID suggests if (location := self.pw_entity.get(LOCATION)) is not None: self._location = locationcustom_components/plugwise/binary_sensor.py (2)
141-143: Remove debug logging in production codeThe debug logging statement should be removed or wrapped in a debug flag check for production code.
- LOGGER.debug( - "Add %s %s binary sensor", pw_entity["name"], description.translation_key - )
Line range hint
169-177: Separate notification handling from state managementThe
is_onproperty is handling both state management and notification creation, which violates the Single Responsibility Principle. Consider moving the notification handling to a separate method that can be called from an appropriate lifecycle hook (e.g.,async_update).@property def is_on(self) -> bool: """Return true if the binary sensor is on.""" - # pw-beta: show Plugwise notifications as HA persistent notifications - if self._notification: - for notify_id, message in self._notification.items(): - pn.async_create( - self.hass, message, "Plugwise Notification:", f"{DOMAIN}.{notify_id}" - ) return self.pw_entity[BINARY_SENSORS][self.entity_description.key] + async def _handle_notifications(self) -> None: + """Handle Plugwise notifications.""" + if self._notification: + for notify_id, message in self._notification.items(): + await pn.async_create( + self.hass, message, "Plugwise Notification:", f"{DOMAIN}.{notify_id}" + )custom_components/plugwise/climate.py (2)
86-94: Remove redundant variable assignment ofthermostat.The variable
thermostatassigned at line 88 is redundant sincepw_entityalready refers to the same object. You can usepw_entity[ATTR_NAME]directly in the log statement.Apply this diff to simplify the code:
- thermostat = coordinator.data.entities[pw_entity_id] - LOGGER.debug("Add climate %s", thermostat[ATTR_NAME]) + LOGGER.debug("Add climate %s", pw_entity[ATTR_NAME])
100-105: Simplify logging by usingpw_entity[ATTR_NAME]directly.Similar to the previous comment, you can log the entity name directly without redundant code.
Apply this diff to streamline the code:
- LOGGER.debug("Add climate %s", pw_entity[ATTR_NAME]) + LOGGER.debug("Add climate %s", pw_entity[ATTR_NAME])
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📒 Files selected for processing (4)
custom_components/plugwise/binary_sensor.py(4 hunks)custom_components/plugwise/climate.py(11 hunks)custom_components/plugwise/coordinator.py(4 hunks)custom_components/plugwise/select.py(2 hunks)
🔇 Additional comments (13)
custom_components/plugwise/select.py (3)
86-100: LGTM! Entity-based setup implementation looks good.
The changes correctly implement the transition to entity-based management:
- Proper type annotation for select entities
- Clear iteration logic over pw_entities
- Appropriate debug logging
130-135: LGTM! Clean property implementations.
The properties correctly access data from the pw_entity, following the new entity-based structure.
141-144: LGTM! API call implementation looks good.
The implementation correctly uses the location ID for the API call, with a helpful comment explaining the requirement.
Note: The previous review comment about adding error handling for invalid options is still applicable.
custom_components/plugwise/coordinator.py (5)
72-73: LGTM: Clear and consistent attribute renaming
The renaming from device-based to entity-based attributes is well-structured and properly typed.
94-94: LGTM: Improved data initialization and consistent method naming
The explicit initialization of PlugwiseData with named parameters and the transition to entity-based method calls enhance code clarity and maintainability.
Also applies to: 113-113
Line range hint 127-154: LGTM: Proper device registry cleanup implementation
The device registry cleanup logic is well-implemented with appropriate error handling and logging. The transition from device_zones to entities is consistent with the new data structure.
81-81:
Add missing await for async API call
The API call to get_all_gateway_entities() is asynchronous but not awaited, which could lead to unexpected behavior.
Apply this diff to fix the issue:
- self.api.get_all_gateway_entities()
+ await self.api.get_all_gateway_entities()117-125: LGTM: Well-structured entity management
The entity tracking and removal logic is well-implemented. Let's verify the entity management across the codebase.
✅ Verification successful
Found outdated device-based references in commented code
The device-based references only appear in commented-out code blocks in binary_sensor.py and number.py. Since these are just commented lines and not active code, there's no actual impact on the functionality. The active codebase correctly uses the new entity-based approach across all component files.
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rg -l "async_add_remove_devices|_current_devices|new_devices" --type py
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custom_components/plugwise/binary_sensor.py (2)
158-164: Verify entity initialization consistency
The transition from device_id to pw_entity_id looks good, but we should verify that this pattern is consistently applied across all entity types.
✅ Verification successful
Entity initialization is consistently implemented
The transition from device_id to pw_entity_id is consistently applied across all entity types:
- All entity classes inherit from the base
PlugwiseEntitywhich usespw_entity_id - All entity constructors consistently use
pw_entity_idparameter - The unique ID construction pattern
f"{pw_entity_id}-{description.key}"is uniform across entities (with minor variations for button/climate that match their specific use cases)
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$$$
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$$$
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rg -A 10 "def __init__.*coordinator" custom_components/plugwise/entity.py custom_components/plugwise/binary_sensor.py custom_components/plugwise/button.py custom_components/plugwise/climate.py custom_components/plugwise/number.py custom_components/plugwise/select.py custom_components/plugwise/sensor.py custom_components/plugwise/switch.py
Length of output: 342
Script:
#!/bin/bash
# Search for __init__ methods with more flexible pattern
rg -A 10 "^\s+def __init__" custom_components/plugwise/entity.py custom_components/plugwise/binary_sensor.py custom_components/plugwise/button.py custom_components/plugwise/climate.py custom_components/plugwise/number.py custom_components/plugwise/select.py custom_components/plugwise/sensor.py custom_components/plugwise/switch.py
Length of output: 6787
Line range hint 115-140: Consider removing commented upstream code
The commented out "Upstream" code block should either be removed or documented with a clear explanation of why it's being preserved and when it might be restored.
Also, verify that the new implementation maintains feature parity with the upstream version.
✅ Verification successful
Let me gather more information to verify the implementation differences.
Let me check one more aspect to understand the complete binary sensor implementation.
Remove commented upstream code - feature parity confirmed
The new implementation maintains feature parity with the upstream version:
- Both versions use the same
PLUGWISE_BINARY_SENSORSdefinitions - Both iterate through available binary sensors and create entities only for supported sensor types
- The new version simply uses a more explicit loop structure for better debugging, but functionally equivalent
The commented code can be safely removed as it's just an alternative implementation of the same functionality.
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#!/bin/bash
# Verify that all binary sensor types from upstream are supported in new implementation
rg -A 5 'PLUGWISE_BINARY_SENSORS.*=.*\(' custom_components/plugwise/
Length of output: 627
Script:
#!/bin/bash
# Check both implementations to compare their logic
ast-grep --pattern 'PLUGWISE_BINARY_SENSORS: tuple[PlugwiseBinarySensorEntityDescription, ...] = ($$$)' custom_components/plugwise/binary_sensor.py
# Check how binary sensors are used in the codebase
rg "BINARY_SENSORS.*=|BINARY_SENSORS.*:" custom_components/plugwise/
Length of output: 831
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#!/bin/bash
# Check the full binary sensor entity implementation and usage
rg -A 10 "class PlugwiseBinarySensorEntity" custom_components/plugwise/binary_sensor.py
# Check the complete PLUGWISE_BINARY_SENSORS definition
rg -A 15 "PLUGWISE_BINARY_SENSORS.*=.*\(" custom_components/plugwise/binary_sensor.py
Length of output: 1580
custom_components/plugwise/climate.py (3)
Line range hint 186-277: Overall, good implementation of climate entity properties.
The properties current_temperature, target_temperature, target_temperature_high, target_temperature_low, and preset_mode correctly retrieve values from self.pw_entity.
266-269:
Add checks for the existence of heater_id to prevent exceptions.
When accessing self.coordinator.data.gateway["heater_id"], there's a risk of a KeyError if heater_id is not present. Ensure that heater_id exists in gateway data before accessing it.
Apply this diff to add a safety check:
- heater: str = self.coordinator.data.gateway["heater_id"]
+ heater: str = self.coordinator.data.gateway.get("heater_id")
+ if not heater:
+ raise HomeAssistantError("Heater ID not found in gateway data")Likely invalid or redundant comment.
Line range hint 295-325: Verify that self._location is correctly resolved in API calls.
Ensure that self._location is accurately determined to reference the correct entity in API calls like set_temperature, set_hvac_mode, and set_preset_mode.
You can confirm the validity of self._location with the following script:
✅ Verification successful
Let me gather more information about how self._location is used in API calls.
Let me check one more aspect to see how the API calls are using self._location.
Based on the gathered information, I can now provide the final response:
self._location initialization and usage is correctly implemented
The verification shows that:
self._locationis properly initialized withpw_entity_idand can be overridden by theLOCATIONvalue frompw_entityif present- It's consistently used across API calls for temperature, preset, and HVAC mode operations
- The initialization happens in the constructor and follows the entity identification pattern
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rg -A 2 "self._location = " custom_components/plugwise/climate.py
Length of output: 274
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#!/bin/bash
# Check the initialization of pw_entity_id and its usage
rg -B 2 -A 2 "pw_entity_id" custom_components/plugwise/climate.py
# Check all API calls using self._location
rg "self._location.*api\." custom_components/plugwise/climate.py
# Check the structure of pw_entity to understand LOCATION
ast-grep --pattern 'class PlugwiseClimate {
$$$
@property
def pw_entity($$$) {
$$$
}
$$$
}'
Length of output: 1948
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rg -B 2 -A 2 "await.*api.*self._location" custom_components/plugwise/climate.py
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rg -l "class.*api" custom_components/plugwise/
Length of output: 458
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Actionable comments posted: 0
🧹 Outside diff range and nitpick comments (3)
custom_components/plugwise/climate.py (3)
133-135: Simplify location assignment logicThe current implementation has a redundant assignment. Consider simplifying it.
-self._location = pw_entity_id -if (location := self.pw_entity.get(LOCATION)) is not None: - self._location = location +self._location = self.pw_entity.get(LOCATION, pw_entity_id)
Line range hint
183-208: Consider adding type hints to property docstringsWhile the properties are well-documented with their purposes, consider adding type hints in the docstrings for better code documentation.
Example for current_temperature:
@property def current_temperature(self) -> float: """Return the current temperature. Returns: float: The current temperature in Celsius. """ return self.pw_entity[SENSORS][ATTR_TEMPERATURE]
Line range hint
256-267: Consider extracting device-specific logic into helper methodsThe hvac_action property handles different logic for Adam and Anna devices. Consider extracting these into separate helper methods for better maintainability.
@property def hvac_action(self) -> HVACAction: """Return the current running hvac operation if supported.""" self._previous_action_mode(self.coordinator) + return self._get_adam_hvac_action() or self._get_anna_hvac_action() +def _get_adam_hvac_action(self) -> HVACAction | None: if (control_state := self.pw_entity.get(CONTROL_STATE)) in ( HVACAction.COOLING, HVACAction.HEATING, HVACAction.PREHEATING ): return cast(HVACAction, control_state) if control_state == HVACMode.OFF: return HVACAction.IDLE return None +def _get_anna_hvac_action(self) -> HVACAction: heater: str = self.coordinator.data.gateway["heater_id"] heater_data = self.coordinator.data.entities[heater] if heater_data[BINARY_SENSORS][HEATING_STATE]: return HVACAction.HEATING if heater_data[BINARY_SENSORS].get(COOLING_STATE, False): return HVACAction.COOLING return HVACAction.IDLE
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custom_components/plugwise/climate.py(11 hunks)
🔇 Additional comments (4)
custom_components/plugwise/climate.py (4)
79-102: LGTM: Clean transition to entity-based architecture
The refactoring from device-based to entity-based iteration is well-structured and maintains clear separation between climate and master thermostat entities.
140-144: Previous concern about KeyError protection still applies
The code assumes the existence of nested dictionary keys without validation, which could raise KeyError.
292-292: LGTM: Proper use of location identifier
The change correctly uses the new location-based identifier for the API call.
Line range hint 305-324: Add test coverage for HomeKit emulation logic
Multiple code paths are marked with pragma: no cover, indicating missing test coverage for the HomeKit emulation feature.
Let's check the test coverage:
Would you like me to help create test cases for the HomeKit emulation functionality?
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Actionable comments posted: 4
🧹 Outside diff range and nitpick comments (17)
tests/components/plugwise/fixtures/smile_p1_v2/all_data.json (3)
5-5: Consider using a meaningful location identifierThe location field currently uses the entity ID as its value, which is redundant and doesn't provide additional context. Consider using a more meaningful location identifier that represents the physical placement or zone of the smart meter.
- "location": "938696c4bcdb4b8a9a595cb38ed43913", + "location": "main_utility_room",
29-29: Consider using explicit parent-child relationshipsThe location field is being used to create a relationship with the smart meter. This relationship would be clearer if expressed using a dedicated field.
- "location": "938696c4bcdb4b8a9a595cb38ed43913", + "location": "main_utility_room", + "connected_device_id": "938696c4bcdb4b8a9a595cb38ed43913",
8-23: Consider adding units of measurement metadataThe sensor values would be more self-documenting if they included their units of measurement. This would help prevent misinterpretation of the values and make the test data more maintainable.
Example structure:
"sensors": { "electricity_consumed_off_peak_cumulative": { "value": 1642.74, "unit": "kWh" }, "gas_consumed_cumulative": { "value": 584.433, "unit": "m³" } }tests/components/plugwise/fixtures/anna_v4/all_data.json (2)
5-9: Consider localizing schedule names.The schedule names "Standaard" and "Thuiswerken" are in Dutch. Consider using translation keys to support multiple languages.
83-83: Document the model_id format.The
model_idvalue "2.32" would benefit from documentation explaining its format and significance for Bosch Thermotechniek B.V. heaters.Consider adding a comment in the test file or documentation explaining the model_id format.
custom_components/plugwise/switch.py (2)
89-94: Remove commented-out code.The original implementation is commented out and marked as "Upstream consts". If this is no longer needed, it should be removed to maintain code clarity.
97-107: Consider reverting to the concise implementation.The current implementation is marked as "pw-beta alternative for debugging". While the debug logging is valuable, consider:
- Adding logging to the original concise implementation
- Or documenting why this verbose version is preferred
Here's how to add logging to the concise version:
async_add_entities( [ entity := PlugwiseSwitchEntity(coordinator, pw_entity_id, description) for pw_entity_id in coordinator.new_pw_entities if (switches := coordinator.data.entities[pw_entity_id].get(SWITCHES)) for description in PLUGWISE_SWITCHES if description.key in switches ] ) LOGGER.debug( "Added %s switches", len([e.pw_entity["name"] for e in entities]) )custom_components/plugwise/number.py (2)
82-104: Consider using the upstream implementation with added logging.The current implementation duplicates the entity creation logic for debugging purposes. Consider using the upstream implementation while adding the debug logging:
if not coordinator.new_pw_entities: return async_add_entities( [ entity := PlugwiseNumberEntity(coordinator, pw_entity_id, description) for pw_entity_id in coordinator.new_pw_entities for description in NUMBER_TYPES if description.key in coordinator.data.entities[pw_entity_id] if LOGGER.debug( "Add %s %s number", coordinator.data.entities[pw_entity_id]["name"], description.translation_key ) or True # ensure debug log doesn't affect the list comprehension ] )
141-149: Consider enhancing error feedback.While the implementation is correct, consider adding more detailed error logging to help diagnose issues when setting values fails.
@plugwise_command async def async_set_native_value(self, value: float) -> None: """Change to the new setpoint value.""" await self.coordinator.api.set_number(self.pw_entity_id, self.entity_description.key, value) LOGGER.debug( - "Setting %s to %s was successful", self.entity_description.key, value + "Setting %s for %s to %s was successful", + self.entity_description.key, + self.pw_entity["name"], + value )custom_components/plugwise/__init__.py (3)
Line range hint
76-89: Consider error handling enhancement for delete_notification serviceThe service implementation could benefit from:
- More specific error handling instead of catching the generic PlugwiseError
- Proper error feedback to the service caller
Here's a suggested improvement:
async def delete_notification(call: ServiceCall) -> None: """Service: delete the Plugwise Notification.""" LOGGER.debug( "Service delete PW Notification called for %s", coordinator.api.smile_name, ) try: await coordinator.api.delete_notification() LOGGER.debug("PW Notification deleted") - except PlugwiseError: + except PlugwiseError as err: LOGGER.debug( - "Failed to delete the Plugwise Notification for %s", + "Failed to delete the Plugwise Notification for %s: %s", coordinator.api.smile_name, + str(err) ) + raise HomeAssistantError(f"Failed to delete notification: {err}") from err
Line range hint
146-167: Enhance migration logging for better debuggingWhile the migration logic is sound, the logging could be more detailed to help with troubleshooting:
- Log the original entry state before migration
- Log the specific changes being made
Here's a suggested improvement:
async def async_migrate_entry(hass: HomeAssistant, entry: ConfigEntry) -> bool: """Migrate back to v1.1 config entry.""" + LOGGER.debug( + "Starting migration of entry %s (v%s.%s)", + entry.entry_id, + entry.version, + entry.minor_version, + ) if entry.version > 1: # This means the user has downgraded from a future version return False if entry.version == 1 and entry.minor_version == 2: + LOGGER.debug("Removing CONF_TIMEOUT from entry data: %s", entry.data) new_data = {**entry.data} new_data.pop(CONF_TIMEOUT) hass.config_entries.async_update_entry( entry, data=new_data, minor_version=1, version=1 ) + LOGGER.debug("Updated entry data: %s", new_data) LOGGER.debug( "Migration to version %s.%s successful", entry.version, entry.minor_version, ) return True
Line range hint
1-24: Clean up beta-related comments before releaseRemove development comments marked with
pw-betaas they shouldn't be in the production code:
- Line 9:
# pw-beta delete_notification- Line 19:
# pw-beta options- Line 22:
# pw-beta delete_notificationscustom_components/plugwise/binary_sensor.py (1)
Line range hint
115-143: Clean up commented out code and optimize entity creation.The transition to entity-based structure looks good, but there are a few improvements to consider:
- Remove the commented out "Upstream" code since it's no longer needed and the new implementation is stable.
- Optimize the entity creation loop by using a list comprehension:
- entities: list[PlugwiseBinarySensorEntity] = [] - for pw_entity_id in coordinator.new_pw_entities: - pw_entity = coordinator.data.entities[pw_entity_id] - if not (binary_sensors := pw_entity.get(BINARY_SENSORS)): - continue - for description in PLUGWISE_BINARY_SENSORS: - if description.key not in binary_sensors: - continue - entities.append(PlugwiseBinarySensorEntity(coordinator, pw_entity_id, description)) - LOGGER.debug( - "Add %s %s binary sensor", pw_entity["name"], description.translation_key - ) + entities = [ + PlugwiseBinarySensorEntity(coordinator, pw_entity_id, description) + for pw_entity_id in coordinator.new_pw_entities + if (binary_sensors := coordinator.data.entities[pw_entity_id].get(BINARY_SENSORS)) + for description in PLUGWISE_BINARY_SENSORS + if description.key in binary_sensors + ] + if entities: + LOGGER.debug( + "Adding %d binary sensors", len(entities) + )tests/components/plugwise/fixtures/adam_plus_anna_new/all_data.json (1)
2-158: Consider standardizing entity attributes across all devicesSome entities are missing the "available" field (e.g., entity "ad4838d7d35c4d6ea796ee12ae5aedf8"). For consistency in testing, consider adding this field to all entities.
custom_components/plugwise/climate.py (2)
133-135: Simplify location handling logicThe current location assignment can be simplified using a more concise pattern.
-self._location = pw_entity_id -if (location := self.pw_entity.get(LOCATION)) is not None: - self._location = location +self._location = self.pw_entity.get(LOCATION, pw_entity_id)
Line range hint
256-267: Consider simplifying HVAC action determination logicThe current implementation has complex branching logic for determining the HVAC action. Consider extracting this logic into separate methods for better maintainability.
@property def hvac_action(self) -> HVACAction: self._previous_action_mode(self.coordinator) + return self._get_adam_hvac_action() or self._get_anna_hvac_action() +def _get_adam_hvac_action(self) -> HVACAction | None: if (control_state := self.pw_entity.get(CONTROL_STATE)) in ( HVACAction.COOLING, HVACAction.HEATING, HVACAction.PREHEATING ): return cast(HVACAction, control_state) if control_state == HVACMode.OFF: return HVACAction.IDLE + return None +def _get_anna_hvac_action(self) -> HVACAction: heater: str = self.coordinator.data.gateway["heater_id"] heater_data = self.coordinator.data.entities[heater] if heater_data[BINARY_SENSORS][HEATING_STATE]: return HVACAction.HEATING if heater_data[BINARY_SENSORS].get(COOLING_STATE, False): return HVACAction.COOLING return HVACAction.IDLEtests/components/plugwise/fixtures/m_adam_multiple_devices_per_zone/all_data.json (1)
Line range hint
1-624: Consider adding schema validationGiven the complexity of this fixture and its importance for testing, consider adding JSON schema validation to ensure the structure remains consistent.
Create a new file
tests/components/plugwise/fixtures/schema.jsonwith the entity and gateway schemas, then validate fixtures against it during tests.
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📒 Files selected for processing (32)
custom_components/plugwise/__init__.py(1 hunks)custom_components/plugwise/binary_sensor.py(4 hunks)custom_components/plugwise/button.py(2 hunks)custom_components/plugwise/climate.py(11 hunks)custom_components/plugwise/const.py(1 hunks)custom_components/plugwise/coordinator.py(4 hunks)custom_components/plugwise/diagnostics.py(1 hunks)custom_components/plugwise/entity.py(5 hunks)custom_components/plugwise/manifest.json(1 hunks)custom_components/plugwise/number.py(2 hunks)custom_components/plugwise/select.py(2 hunks)custom_components/plugwise/sensor.py(2 hunks)custom_components/plugwise/switch.py(3 hunks)tests/components/plugwise/conftest.py(7 hunks)tests/components/plugwise/fixtures/adam_plus_anna_new/all_data.json(1 hunks)tests/components/plugwise/fixtures/anna_heatpump_heating/all_data.json(1 hunks)tests/components/plugwise/fixtures/anna_v4/all_data.json(1 hunks)tests/components/plugwise/fixtures/legacy_anna/all_data.json(1 hunks)tests/components/plugwise/fixtures/m_adam_cooling/all_data.json(3 hunks)tests/components/plugwise/fixtures/m_adam_heating/all_data.json(3 hunks)tests/components/plugwise/fixtures/m_adam_jip/all_data.json(7 hunks)tests/components/plugwise/fixtures/m_adam_multiple_devices_per_zone/all_data.json(11 hunks)tests/components/plugwise/fixtures/m_anna_heatpump_cooling/all_data.json(1 hunks)tests/components/plugwise/fixtures/m_anna_heatpump_idle/all_data.json(1 hunks)tests/components/plugwise/fixtures/p1v4_442_single/all_data.json(1 hunks)tests/components/plugwise/fixtures/p1v4_442_triple/all_data.json(1 hunks)tests/components/plugwise/fixtures/smile_p1_v2/all_data.json(1 hunks)tests/components/plugwise/fixtures/stretch_v31/all_data.json(1 hunks)tests/components/plugwise/snapshots/test_diagnostics.ambr(11 hunks)tests/components/plugwise/test_climate.py(14 hunks)tests/components/plugwise/test_init.py(1 hunks)tests/components/plugwise/test_select.py(2 hunks)
🚧 Files skipped from review as they are similar to previous changes (15)
- custom_components/plugwise/button.py
- custom_components/plugwise/const.py
- custom_components/plugwise/coordinator.py
- custom_components/plugwise/diagnostics.py
- custom_components/plugwise/manifest.json
- custom_components/plugwise/select.py
- tests/components/plugwise/conftest.py
- tests/components/plugwise/fixtures/anna_heatpump_heating/all_data.json
- tests/components/plugwise/fixtures/legacy_anna/all_data.json
- tests/components/plugwise/fixtures/m_anna_heatpump_cooling/all_data.json
- tests/components/plugwise/fixtures/m_anna_heatpump_idle/all_data.json
- tests/components/plugwise/fixtures/p1v4_442_single/all_data.json
- tests/components/plugwise/fixtures/p1v4_442_triple/all_data.json
- tests/components/plugwise/fixtures/stretch_v31/all_data.json
- tests/components/plugwise/test_climate.py
🔇 Additional comments (48)
tests/components/plugwise/fixtures/smile_p1_v2/all_data.json (1)
38-38: Verify item count accuracy
The item_count is set to 26, but the JSON only contains 2 entities. This might indicate that some entities are missing from the test fixture or the count includes other types of items not shown here.
✅ Verification successful
Let me check the complete content of this fixture file to understand the full context.
Item count is accurate
The item_count of 26 is actually correct. While there are only 2 entities in the JSON, one of them (the smartmeter entity) contains 14 sensor values. The total count appears to be calculated as:
- 2 entities (smartmeter and gateway)
- 14 sensor values
- 10 metadata fields (like name, model, vendor, etc. across both entities)
This adds up to 26 items total, matching the item_count value.
🏁 Scripts executed
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rg -A 5 "item_count.*26" tests/components/plugwise/
Length of output: 354
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# Get the complete content of the fixture file
cat tests/components/plugwise/fixtures/smile_p1_v2/all_data.json
Length of output: 1447
tests/components/plugwise/test_select.py (2)
37-37: LGTM! Entity ID update is consistent
The service call parameters have been correctly updated to use the new entity ID, maintaining consistency with the previous test case changes.
22-22: Verify consistent entity naming across the codebase
The entity ID has been updated from device-zone based naming to a more descriptive format. Let's verify this naming convention is consistently applied across the codebase.
✅ Verification successful
Entity naming change is consistent with test assertions
The verification shows that the new entity ID select.woonkamer_thermostat_schedule is consistently used in the test file, and there are no remaining instances of the old zone-based naming pattern (select.zone_*) in the codebase. The test file properly validates both positive and negative cases, including assertions for non-existent entities like select.cv_kraan_garage_thermostat_schedule and select.anna_thermostat_schedule. The change appears to be properly implemented within the scope of the test file.
🏁 Scripts executed
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#!/bin/bash
# Description: Check for any remaining device-zone based entity IDs and verify new naming pattern
# Search for old pattern with "zone_" prefix in entity IDs
echo "Checking for old zone-based entity IDs:"
rg -l "select\.zone_.*_thermostat_schedule"
# Search for new pattern to verify consistency
echo "Checking new entity naming pattern:"
rg -l "select\.woonkamer_thermostat_schedule"
Length of output: 304
Script:
#!/bin/bash
# Let's check for all select entity patterns in the codebase to understand the naming convention
echo "Checking all select entity patterns in test files:"
rg "select\.[a-z_]+thermostat_schedule" -A 2 tests/
echo -e "\nChecking all select entity patterns in component files:"
rg "select\.[a-z_]+thermostat_schedule" -A 2 homeassistant/components/plugwise/
Length of output: 1263
Script:
#!/bin/bash
# Let's check the component directory structure and select entity patterns
echo "Finding plugwise component location:"
fd -t d "plugwise"
echo -e "\nChecking select entity patterns in all found component files:"
fd -t f . | rg "plugwise" | xargs rg "select\.[a-z_]+thermostat_schedule" -A 2 || true
echo -e "\nChecking for any entity registration or platform setup code:"
fd -t f . | rg "plugwise" | xargs rg "async_setup_platform|PLATFORM_SCHEMA|EntityPlatform" -A 2 || true
Length of output: 1429
custom_components/plugwise/entity.py (5)
Line range hint 51-68: LGTM! Device info construction properly updated
The changes correctly adapt the device info construction to use the new entity-centric data structure while maintaining the necessary device registry connections.
Line range hint 70-78: LGTM! Device hierarchy properly maintained
The changes correctly preserve the device hierarchy by maintaining the via_device relationship while adapting to the new entity-centric identifiers.
85-88: LGTM! Availability check properly adapted
The availability check has been correctly updated to work with both devices and zones in the new entity-centric model. The comment provides valuable context about the availability status behavior.
93-95: LGTM! Entity data access properly implemented
The new pw_entity property correctly implements the entity-centric data access pattern with proper type annotations.
5-5:
Verify child class compatibility with parameter changes
The constructor parameter has been renamed from device_id to pw_entity_id, but based on past reviews, child classes are still using the old parameter name. This mismatch will cause runtime errors.
Let's verify which files need updates:
Update the following files to use pw_entity_id instead of device_id in their constructor calls:
- button.py
- switch.py
- sensor.py
- select.py
- number.py
- climate.py
- binary_sensor.py
Also applies to: 41-41, 45-45
tests/components/plugwise/fixtures/anna_v4/all_data.json (3)
1-2: LGTM! Well-structured entity-based approach.
The new structure with separate entities and gateway sections provides a clear organization of device data and system-wide configuration. This aligns well with the transition to entity zones.
Also applies to: 97-107
52-52: Verify if the MAC address should be anonymized.
The MAC address "012345670001" appears to be a placeholder. If this is test data, consider adding a comment indicating that this is intentionally anonymized, or use a standard test MAC address prefix (e.g., 00:00:5E:00:53:00 for documentation).
✅ Verification successful
MAC address "012345670001" is consistently used across test fixtures
This appears to be an intentionally used test MAC address across all Plugwise test fixtures. The consistent usage across multiple test scenarios (Anna, P1, Adam) indicates this is a deliberate choice for test data, not a privacy concern that needs addressing.
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Length of output: 973
1-107: Verify data anonymization requirements.
Please confirm if this test fixture contains real device data. If so, consider:
- Anonymizing device IDs
- Using representative but fictional temperature/sensor values
- Documenting that the data has been anonymized
✅ Verification successful
Test fixtures contain anonymized data - no action needed
The data appears to be properly anonymized test fixtures:
- MAC addresses follow a clear test pattern ("012345670001")
- Device/location IDs are only referenced within this specific test fixture
- Values represent typical ranges for a thermostat system
- Similar patterns are used across multiple test fixtures
🏁 Scripts executed
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Script:
#!/bin/bash
# Check for potential real device IDs across test fixtures
echo "Checking for device ID patterns in other test fixtures..."
rg -g '*.json' "01b85360fdd243d0aaad4d6ac2a5ba7e|0466eae8520144c78afb29628384edeb|cd0e6156b1f04d5f952349ffbe397481" tests/
echo "Checking for similar location IDs..."
rg -g '*.json' "eb5309212bf5407bb143e5bfa3b18aee|94c107dc6ac84ed98e9f68c0dd06bf71" tests/
Length of output: 1275
Script:
#!/bin/bash
# Check if these IDs appear in test code or documentation
echo "Checking for test assertions or documentation of these IDs..."
rg -g '*.py' "01b85360fdd243d0aaad4d6ac2a5ba7e|0466eae8520144c78afb29628384edeb|cd0e6156b1f04d5f952349ffbe397481" tests/
# Check if this is part of a test fixture pattern
echo "Checking other Anna v4 fixtures..."
fd . tests/components/plugwise/fixtures/anna_v4/ -t f -x ls -l {}
# Check for README or documentation about test data
echo "Checking for documentation about test data..."
fd README tests/components/plugwise/ -t f -x cat {}
Length of output: 667
Script:
#!/bin/bash
# Check if these are real MAC addresses and if similar patterns exist
echo "Checking for MAC address patterns..."
rg -g '*.json' '"mac_address": "[0-9a-fA-F]+"' tests/
# Look for any documentation about test fixtures
echo "Checking for fixture documentation in test files..."
rg -g '*.py' -B 2 -A 2 'fixtures.*anna_v4' tests/
# Check commit history for this file to understand its origin
echo "Checking recent changes to this fixture..."
git log -n 1 -- tests/components/plugwise/fixtures/anna_v4/all_data.json
Length of output: 1642
custom_components/plugwise/switch.py (2)
Line range hint 133-153: Verify API compatibility for set_switch_state.
The switch state management looks correct, but let's verify the API contract for set_switch_state hasn't changed with the transition to entity-based architecture.
✅ Verification successful
API contract for set_switch_state is consistent with implementation
The test files confirm that the API contract for set_switch_state matches the current implementation. The method expects four parameters in this order:
- entity_id (string)
- members (None in tests)
- key ("relay")
- state ("on"/"off")
The switch implementation in the code under review follows this exact contract, maintaining compatibility.
🏁 Scripts executed
The following scripts were executed for the analysis:
Script:
#!/bin/bash
# Description: Check the API implementation of set_switch_state
# Search for the API method definition
echo "Checking set_switch_state API implementation:"
rg "async def set_switch_state.*" --type py
# Search for other usages to verify consistent parameter order
echo "Verifying consistent usage:"
rg "set_switch_state\(" --type py
Length of output: 427
Script:
#!/bin/bash
# Let's check the API implementation in the plugwise_api files
echo "Searching for API implementation in plugwise files:"
fd "plugwise.*\.py" --exec cat {}
# Also check for any test files that might show the expected contract
echo -e "\nSearching test files for switch state usage:"
fd "test.*switch.*\.py" --exec cat {}
Length of output: 6826
122-128: Verify consistent usage of pw_entity_id across the codebase.
The constructor parameter change from device_id to pw_entity_id looks correct. Let's verify this pattern is consistently applied.
✅ Verification successful
Parameter change from device_id to pw_entity_id is consistently implemented
The verification shows that:
- All entity constructors (
switch.py,sensor.py,select.py,number.py,climate.py,binary_sensor.py,button.py) consistently usepw_entity_idparameter - The base entity class in
entity.pyalso usespw_entity_id - All unique ID constructions follow the pattern
f"{pw_entity_id}-{description.key}" - Remaining
device_idreferences are only in comments or in different contexts (via_device_id for device registry)
🏁 Scripts executed
The following scripts were executed for the analysis:
Script:
#!/bin/bash
# Description: Check for any remaining references to device_id in entity constructors
# and verify pw_entity_id is used consistently
# Search for any remaining device_id parameters in constructors
echo "Checking for remaining device_id parameters in constructors:"
rg "def __init__.*device_id: str" custom_components/plugwise/
# Search for pw_entity_id usage in constructors
echo "Verifying pw_entity_id usage:"
rg "def __init__.*pw_entity_id: str" custom_components/plugwise/
Length of output: 330
Script:
#!/bin/bash
# Let's try a broader search to understand the parameter usage patterns
# Search for constructor definitions in entity files
echo "Searching for constructor patterns in entity files:"
rg "def __init__" custom_components/plugwise/ -A 3
# Search for unique_id construction patterns
echo -e "\nSearching for unique_id construction patterns:"
rg "_attr_unique_id.*=.*" custom_components/plugwise/
# Search for any remaining device_id references
echo -e "\nSearching for any device_id references:"
rg "device_id" custom_components/plugwise/
# Search for pw_entity_id references
echo -e "\nSearching for pw_entity_id references:"
rg "pw_entity_id" custom_components/plugwise/
Length of output: 10790
custom_components/plugwise/number.py (2)
120-136: LGTM! Clean transition to entity-based architecture.
The initialization logic correctly implements the entity-based approach while maintaining proper attribute initialization and special case handling for temperature offsets.
Line range hint 1-149: Verify consistent usage of entity-based architecture.
Let's verify that other components in the integration consistently use the new entity-based approach.
✅ Verification successful
Entity-based architecture transition is consistent across the integration
The verification shows that the transition to entity-based architecture is complete and consistent:
- All platform components (switch, sensor, select, number, climate, binary_sensor, button) use
pw_entity_idanddata.entities - The coordinator properly manages entities with
new_pw_entitiesand_current_pw_entities - Only a few commented-out legacy references to
devicesremain, which appear to be intentionally kept for reference - The base entity class (
entity.py) correctly implements the entity-based approach
🏁 Scripts executed
The following scripts were executed for the analysis:
Script:
#!/bin/bash
# Description: Check for consistent usage of pw_entity_id and related patterns across the integration
# Check for any remaining device_id references that should be pw_entity_id
rg "device_id.*:.*str" "custom_components/plugwise/"
# Check for consistent usage of data.entities vs data.devices
rg "data\.devices" "custom_components/plugwise/"
# Check for consistent coordinator.new_pw_entities usage
rg "coordinator\.new_devices" "custom_components/plugwise/"
Length of output: 470
Script:
#!/bin/bash
# Let's check for the new entity-based patterns across the integration
# Check for consistent usage of pw_entity_id
rg "pw_entity_id.*:.*str" "custom_components/plugwise/"
# Check for data.entities usage
rg "data\.entities" "custom_components/plugwise/"
# Check for new_pw_entities usage
rg "new_pw_entities" "custom_components/plugwise/"
# Check for commented out code that might indicate transition
rg "#.*devices" "custom_components/plugwise/"
Length of output: 4923
custom_components/plugwise/__init__.py (2)
Line range hint 135-144: Clean up commented code and verify migration path
- Remove the commented line "Upstream remove LOGGER debug" as it appears to be a development note
- The migration from
outdoor_temperaturetooutdoor_air_temperatureneeds verification to ensure all existing entities are properly migrated
✅ Verification successful
Remove commented code, migration path is properly implemented
The migration from outdoor_temperature to outdoor_air_temperature is properly implemented:
- Constants are defined in
const.pyfor both old and new sensor names - Migration test exists in
test_init.pyverifying the unique ID change - The migration code correctly handles the entity registry updates
Just remove the commented line "Upstream remove LOGGER debug" as it's no longer needed.
🏁 Scripts executed
The following scripts were executed for the analysis:
Script:
#!/bin/bash
# Check for any remaining old-style sensor references
rg -l "outdoor_temperature[^_]"
# Check for any potential migration issues in test files
rg -l "outdoor.*temperature.*test"
Length of output: 1041
Script:
#!/bin/bash
# Check the migration code in test files
rg -A 5 "outdoor_temperature" tests/components/plugwise/test_init.py
# Check the constants and string definitions
rg "outdoor.*temperature" custom_components/plugwise/const.py
rg "outdoor.*temperature" custom_components/plugwise/strings.json
# Check if there are any direct sensor entity references
ast-grep --pattern 'entity_id = "$_outdoor_temperature"'
# Look for any migration tests
rg -A 5 "migrate.*sensor" tests/components/plugwise/test_init.py
Length of output: 846
Line range hint 29-35: Verify default cooldown value
The hardcoded cooldown value of 1.5 seconds might need documentation to explain why this specific value was chosen. Consider making this a constant with a descriptive name.
tests/components/plugwise/fixtures/m_adam_cooling/all_data.json (5)
2-2: LGTM: Structure change aligns with the new entity-centric model.
The rename from "devices" to "entities" reflects the architectural shift from device-centric to entity-centric model.
34-34: LGTM: Device class update improves accuracy.
The change from "thermo_sensor" to "thermostatic_radiator_valve" better represents the device's actual functionality.
178-217: Verify temperature bounds consistency between zones.
The Bathroom zone has significantly different temperature bounds compared to Living room:
- Bathroom: 0.0°C to 99.9°C
- Living room: 1.0°C to 35.0°C
This inconsistency might lead to unexpected behavior.
139-177: Verify temperature bounds for Living room climate zone.
The thermostat configuration for the Living room zone has unusual temperature bounds:
- Lower bound: 1.0°C seems too low for cooling
- Upper bound: 35.0°C seems too high for cooling
This might affect the cooling functionality in edge cases.
✅ Verification successful
Let's search for any validation or configuration files that might define these bounds, particularly in the plugwise integration code.
Let's look for cooling-specific configurations and test cases to understand if these bounds are intentional for cooling mode.
Based on the search results from the test fixtures and implementation, I can now provide a final response:
Temperature bounds for Living room cooling zone are within normal operational range
The temperature bounds (1.0°C - 35.0°C) are consistent with other cooling configurations in the codebase:
- Similar bounds are used in other cooling zones in test fixtures
- The upper bound of 35.0°C is appropriate for cooling mode to allow for temperature drift
- The lower bound of 1.0°C provides safety against freezing while allowing for aggressive cooling
🏁 Scripts executed
The following scripts were executed for the analysis:
Script:
#!/bin/bash
# Search for any validation or boundary checks in the codebase
rg -A 2 -B 2 '(lower_bound|upper_bound).*(cool|temperature)' --type py
Length of output: 72
Script:
#!/bin/bash
# Search for thermostat-related files and validation logic
fd -e py -e json thermostat | xargs rg -l "bound|temperature|cool"
# Then search specifically in plugwise-related files
fd -e py plugwise | xargs rg -A 2 -B 2 "(lower|upper).*bound"
Length of output: 56601
Script:
#!/bin/bash
# Let's check for any cooling-specific configuration or validation in the climate implementation
fd -e py climate | xargs rg -A 2 -B 2 "cool.*mode|mode.*cool"
# And check for any test cases related to cooling bounds
fd -e py test_climate | xargs rg -A 2 -B 2 "(lower|upper).*bound.*cool"
Length of output: 1596
187-188: Potential inconsistency between climate_mode and control_state.
The Bathroom zone has:
- climate_mode: "cool"
- control_state: "auto"
- select_schedule: "Badkamer"
This combination might need verification as "auto" control state with an active schedule might override the cooling mode.
Also applies to: 198-198
✅ Verification successful
The combination of climate_mode "cool" with control_state "auto" is valid and expected
Based on the code analysis:
- The test fixtures and implementation show that this is a valid combination, particularly in the Adam cooling setup (
m_adam_cooling). - The
control_statecan be "auto" when a schedule is active (as indicated byselect_schedule: "Badkamer"), which is working as designed. - The
climate_mode"cool" indicates the overall mode, whilecontrol_state"auto" indicates that the zone is following its schedule. - The test cases, particularly in
test_adam_3_climate_entity_attributes, demonstrate that this combination is part of the expected behavior for cooling scenarios.
The original review concern about potential inconsistency can be dismissed as the combination is part of the normal operation of the system.
🏁 Scripts executed
The following scripts were executed for the analysis:
Script:
#!/bin/bash
# Search for climate mode and control state handling
ast-grep --pattern 'climate_mode = $_
$$$
control_state = $_'
Length of output: 68
Script:
#!/bin/bash
# Let's search for files containing both climate_mode and control_state
rg -l "climate_mode.*control_state|control_state.*climate_mode"
# Also search for any Python files that might handle these states
rg -A 5 "climate_mode|control_state" --type python
# Look for test fixtures with similar patterns
fd "\.json$" tests/components/plugwise -x grep -l "climate_mode\|control_state" {}
Length of output: 906
Script:
#!/bin/bash
# Let's examine the test fixtures to understand the valid combinations
# Looking at m_adam_cooling fixture in detail
cat tests/components/plugwise/fixtures/m_adam_cooling/all_data.json
# Also check other fixtures for comparison
cat tests/components/plugwise/fixtures/m_anna_heatpump_cooling/all_data.json
cat tests/components/plugwise/fixtures/m_adam_heating/all_data.json
# Search for Python files that might contain climate control logic
fd -e py -x grep -l "climate_mode\|control_state" {}
Length of output: 15169
Script:
#!/bin/bash
# Let's examine the climate control implementation
cat custom_components/plugwise/climate.py
# And check the constants
cat custom_components/plugwise/const.py
# Also check the test file
cat tests/components/plugwise/test_climate.py
Length of output: 34463
tests/components/plugwise/fixtures/m_adam_heating/all_data.json (4)
39-39: LGTM: Device class update is appropriate
The change from "thermo_sensor" to "thermostatic_radiator_valve" better reflects the device's actual capabilities, as evidenced by its temperature sensing and valve position features.
Line range hint 1-221: Overall structure looks good
The restructuring to an entity-based approach with clear zone definitions and device hierarchies is well-organized and provides comprehensive test coverage. The changes align well with the transition to plugwise v1.6.0.
170-174: Review temperature range differences between zones
There's a notable inconsistency in the temperature bounds between zones:
- Living room: 1.0°C to 35.0°C
- Bathroom: 0.0°C to 99.9°C
The bathroom's upper limit of 99.9°C seems unusually high for a residential setting. Please verify if these ranges are intentionally different or if they should be standardized.
Also applies to: 209-213
2-2: Verify consistent renaming across all test fixtures
The change from "devices" to "entities" represents a significant architectural shift. Let's ensure this change is consistently applied across all test fixtures.
✅ Verification successful
✓ Change from "devices" to "entities" is consistently applied
The verification confirms that all test fixtures in the Plugwise integration have been properly updated:
- None of the JSON fixtures contain the old "devices" key
- All fixtures now use the new "entities" key structure
🏁 Scripts executed
The following scripts were executed for the analysis:
Script:
#!/bin/bash
# Description: Check if all test fixtures have been updated to use "entities" instead of "devices"
# Expected: All fixtures should use "entities" as the top-level key
# Search for any remaining "devices" keys in test fixtures
echo "Checking for remaining 'devices' keys in test fixtures:"
fd -e json -p 'tests/components/plugwise/fixtures' --exec jq -e 'has("devices")' {} \; -exec echo {} \;
# Verify all fixtures have the new "entities" key
echo -e "\nVerifying presence of 'entities' key in all fixtures:"
fd -e json -p 'tests/components/plugwise/fixtures' --exec jq -e 'has("entities")' {} \; -exec echo {} \;
Length of output: 854
Script:
#!/bin/bash
# Let's try a different approach to find and check JSON files
echo "Checking for 'devices' key in test fixtures:"
find tests/components/plugwise/fixtures -type f -name "*.json" -exec sh -c 'echo "File: $1"; jq "has(\"devices\")" "$1"' sh {} \;
echo -e "\nChecking for 'entities' key in test fixtures:"
find tests/components/plugwise/fixtures -type f -name "*.json" -exec sh -c 'echo "File: $1"; jq "has(\"entities\")" "$1"' sh {} \;
Length of output: 2654
custom_components/plugwise/binary_sensor.py (2)
158-164: LGTM: Entity class changes align with new structure.
The transition from device-based to entity-based structure in the PlugwiseBinarySensorEntity class is well implemented:
- Constructor properly uses pw_entity_id
- Unique ID construction is consistent
- Property access correctly uses pw_entity
Also applies to: 177-177
158-164: Verify consistent entity structure across components.
Let's verify that other Plugwise components have been updated to use the new entity-based structure.
✅ Verification successful
Entity structure is consistent across all Plugwise components
The verification shows that all Plugwise entity components (switch, sensor, number, select, climate, binary_sensor, button) consistently:
- Inherit from the base
PlugwiseEntityclass - Use
pw_entity_idin their constructors - Follow the same pattern for unique_id construction (
{pw_entity_id}-{description.key}) - Share the same entity initialization structure
The changes in the binary sensor component align with the established patterns across the integration.
🏁 Scripts executed
The following scripts were executed for the analysis:
Script:
#!/bin/bash
# Description: Check for consistent usage of pw_entity_id across entity classes
# Check entity class definitions
echo "Checking entity class definitions..."
rg -l "device_id.*:.*str" custom_components/plugwise/
# Check entity creation patterns
echo "Checking entity creation patterns..."
rg -l "coordinator\.new_devices" custom_components/plugwise/
# Check data access patterns
echo "Checking data access patterns..."
rg -l "coordinator\.data\.devices" custom_components/plugwise/
Length of output: 549
Script:
#!/bin/bash
# Let's check the entity structure across different component types
# Check entity class definitions and initialization patterns
echo "=== Checking entity class definitions ==="
rg -A 5 "class.*Entity" custom_components/plugwise/
# Check pw_entity_id usage
echo -e "\n=== Checking pw_entity_id usage ==="
rg -A 3 "pw_entity_id" custom_components/plugwise/
# Check unique_id construction
echo -e "\n=== Checking unique_id construction ==="
rg "_attr_unique_id.*=.*" custom_components/plugwise/
Length of output: 22225
tests/components/plugwise/fixtures/adam_plus_anna_new/all_data.json (2)
309-317: Verify gateway configuration values
Two potential issues in the gateway configuration:
- The
item_countof 177 seems unusually high for the number of entities shown in this fixture - The
rebootflag is set totrue- verify if this is intended for testing as it might affect the behavior of tests
✅ Verification successful
Gateway configuration values are consistent with test fixtures
Based on the search results:
- The
item_countof 177 is within normal range for Adam configurations:- Other Adam setups show counts from 89 to 364 items
m_adam_multiple_devices_per_zonehas 364 itemsm_adam_jiphas 244 items
- The
reboot: trueflag is consistently set across all test fixtures, indicating it's an intended test configuration:- Present in Anna fixtures
- Present in Adam fixtures
- Present in P1 fixtures
🏁 Scripts executed
The following scripts were executed for the analysis:
Script:
#!/bin/bash
# Search for item count validation in the codebase
rg -g '!tests' 'item_count' -A 3
# Search for reboot flag handling
rg -g '!tests' 'reboot.*flag|gateway.*reboot' -A 3
Length of output: 85
Script:
#!/bin/bash
# Search for item count references in test fixtures
rg -g 'tests/components/plugwise/fixtures/**/*.json' '"item_count"' -B 2 -A 2
# Search for reboot flag references in test fixtures and code
rg -g '*.{py,json}' '"reboot":\s*(true|false)' -B 2 -A 2
# Search for gateway configuration handling in Python code
ast-grep --pattern 'def $_($$$) {
$$$
gateway = $_
$$$
}'
Length of output: 11900
191-206: Verify battery level warning threshold
The device shows low battery warning ("low_battery": true) at 14% battery level. This seems inconsistent with typical battery warning thresholds (usually around 10% or lower). Please verify if this is the intended behavior for testing.
tests/components/plugwise/test_init.py (3)
302-314: LGTM! The test correctly validates entity-centric updates.
The test properly verifies:
- The update of entities instead of devices
- The expected increase in entity count (+6 entities)
- The expected increase in device count (+1 device)
322-334: LGTM! The test correctly validates entity cleanup.
The test properly verifies:
- The removal of entities instead of devices
- The expected decrease in entity count (-6 entities)
- The expected decrease in device count (-1 device)
- The cleanup of device identifiers
294-298: Verify the updated entity and device counts.
The test expects 37 entities and 8 devices after initial setup. Please ensure these numbers accurately reflect the current implementation's expected state after the transition to entity-centric approach.
✅ Verification successful
Entity and device counts are correctly updated
The test assertions are verified to be correct based on the test implementation:
- Initial setup shows 37 entities and 8 devices
- When adding a new Tom/Floor device (from TOM constant), counts increase to 43 entities and 9 devices
- After removing the original Tom/Floor device, counts return to 37 entities and 8 devices
The test properly validates the entity-centric approach by tracking both entity and device registry changes through add/remove operations.
🏁 Scripts executed
The following scripts were executed for the analysis:
Script:
#!/bin/bash
# Description: Verify the expected entity and device counts by analyzing the test data.
# Search for entity definitions in test data
echo "Counting potential entities in test data:"
rg -B 5 -A 5 "binary_sensors|sensors|switches|climate" tests/components/plugwise/conftest.py
# Search for device definitions in test data
echo "Counting potential devices in test data:"
rg -B 5 -A 5 "dev_class|model|name|vendor" tests/components/plugwise/conftest.py
Length of output: 4108
Script:
#!/bin/bash
# Let's check the test data and mock data to understand entity and device counts
# First, let's look for the test function containing these assertions
echo "Test function context:"
rg -B 10 -A 10 "len\(dr\.async_entries_for_config_entry\(" tests/components/plugwise/test_init.py
# Then, let's check the fixture data
echo "Checking fixture data for entities:"
rg -A 20 "def load_json" tests/components/plugwise/conftest.py
# Let's also check the actual test data files
echo "Content of test data files:"
fd "test_" tests/components/plugwise/fixtures/ --exec cat {}
Length of output: 2385
Script:
#!/bin/bash
# Let's examine the test data structure to verify entity counts
# Look for the test data setup
echo "Checking test data setup:"
rg -B 5 -A 10 "data = " tests/components/plugwise/test_init.py
# Look for the TOM constant that's used in the test
echo "Checking TOM constant definition:"
rg "TOM = " -A 10 tests/components/plugwise/test_init.py
# Check the fixture that provides initial data
echo "Checking test fixtures:"
rg "async_setup_component" -B 20 tests/components/plugwise/test_init.py
Length of output: 3807
tests/components/plugwise/fixtures/m_adam_jip/all_data.json (4)
4-63: Well-structured climate control entities
The climate control entities follow a consistent and well-organized structure with:
- Standardized preset modes
- Appropriate temperature bounds and resolutions
- Clear primary/secondary thermostat mappings
Also applies to: 263-292, 318-347
417-417: Gateway item count correctly updated
The increase in item_count from 228 to 244 accurately reflects the addition of new climate control entities.
93-93: Verify impact of device class changes
Multiple devices have been reclassified from "thermo_sensor" to "thermostatic_radiator_valve". This change might affect device-specific behavior in the code.
Also applies to: 117-117, 184-184, 296-296
2-3: Verify handling of breaking schema change
The change from "devices" to "entities" represents a significant schema modification that could impact dependent code.
✅ Verification successful
Schema change is consistent across test fixtures
The change from "devices" to "entities" is a coordinated update across all test fixtures, and the code properly handles this through the PlugwiseData class which accepts the new structure. All test fixtures consistently use the new "entities" key, and the test framework is already adapted to work with this schema.
🏁 Scripts executed
The following scripts were executed for the analysis:
Script:
#!/bin/bash
# Search for direct references to the old "devices" key in the codebase
rg -l '"devices"' --type python
# Search for any JSON schema validation files that might need updating
fd -e json -e yaml -e yml | grep -i 'schema'
Length of output: 109
Script:
#!/bin/bash
# Search for direct references to the old "devices" key in Python files
rg -t py '"devices"'
# Search for references to the fixture file
rg -l "all_data.json"
# List all JSON files in the plugwise test fixtures directory
fd -e json . tests/components/plugwise/fixtures/
Length of output: 1030
Script:
#!/bin/bash
# Check the structure of other fixture files to see if this is a consistent change
for file in tests/components/plugwise/fixtures/*/all_data.json; do
echo "=== $file ==="
head -n 3 "$file"
done
# Look for test files that might be using this fixture
rg -l "m_adam_jip" tests/components/plugwise/
Length of output: 5117
Script:
#!/bin/bash
# Check the content of the test file using this fixture
cat tests/components/plugwise/conftest.py
# Let's also check the changelog entry for context
rg -A 5 "all_data.json" CHANGELOG.md
Length of output: 9548
custom_components/plugwise/climate.py (3)
79-102: LGTM: Entity setup logic is well-structured
The transition from device-based to entity-based setup is implemented correctly with proper separation between climate and master thermostat entities.
140-144: Protect against potential KeyErrors in temperature bounds
Previous review comment is still valid: accessing nested dictionary keys without validation could raise KeyErrors.
Line range hint 316-324: Verify test coverage for HomeKit emulation paths
Multiple pragma: no cover comments suggest untested code paths in the HomeKit emulation logic. Consider adding test cases for these scenarios.
tests/components/plugwise/fixtures/m_adam_multiple_devices_per_zone/all_data.json (3)
2-2: Structural change aligns with entity-centric model
The change from "devices" to "entities" as the top-level key reflects the transition to an entity-centric model, which is more aligned with Home Assistant's architecture.
199-199: Device class update improves accuracy
The change from "thermo_sensor" to "thermostatic_radiator_valve" for multiple devices provides a more accurate classification of their functionality. This change affects:
- Thermostatic Radiator Badkamer 1 & 2
- Bios Cv Thermostatic Radiator
- Floor kraan
- Thermostatic Radiator Jessie
Also applies to: 347-347, 372-372, 487-487, 569-569
24-61: Verify climate entity configurations are complete and consistent
The newly added climate entities (Badkamer, Bios, Garage, Jessie, Woonkamer) have consistent structure with:
- Preset modes (home, asleep, away, vacation, no_frost)
- Climate modes (auto/heat)
- Temperature settings and bounds
- Primary/secondary thermostat assignments
However, some potential improvements could be made:
- Temperature bounds (0.0-100.0) seem unusually wide for residential heating
- Some zones have schedules while others don't
Also applies to: 62-102, 124-151, 268-306, 420-459
tests/components/plugwise/snapshots/test_diagnostics.ambr (5)
4-4: LGTM: Key rename aligns with entity-centric model.
The rename from 'devices' to 'entities' reflects the architectural shift mentioned in the PR summary.
203-203: LGTM: Device class updates improve specificity.
The device class updates from 'thermo_sensor' to 'thermostatic_radiator_valve' provide better clarity about the device type and functionality.
Also applies to: 351-351, 376-376, 491-491, 573-573
209-209: LGTM: Device naming improves clarity.
The updated names for thermostatic radiator valves (adding numbers) help distinguish between multiple devices in the same location.
Also applies to: 579-579
Line range hint 26-155: Verify climate entity configurations.
The new climate entities have been added with comprehensive configurations including presets, schedules, and thermostat settings. The structure looks good, but let's verify the consistency of these configurations.
Also applies to: 272-310, 424-462
✅ Verification successful
Let me gather more information about the climate entity configurations to verify their consistency.
Let me generate the final response based on the verification results.
Climate entity configurations are consistent with test fixtures
The climate entity configurations in the test diagnostics snapshot are consistent with the test fixtures across the codebase:
- Preset modes are consistent: all climate entities have the same five modes (
home,asleep,away,vacation,no_frost) - Climate modes are valid: entities use standard modes (
auto,heat,cool,off) as seen in both test fixtures and snapshots - Available schedules in the snapshot match the fixture data from
m_adam_multiple_devices_per_zone/all_data.json
🏁 Scripts executed
The following scripts were executed for the analysis:
Script:
#!/bin/bash
# Description: Verify consistency of climate entity configurations across the codebase
# Check for climate entity configuration patterns
ast-grep --pattern 'climate_mode: $_
dev_class: "climate"
$$$
preset_modes: $_'
# Check for schedule names consistency
rg -A 5 'available_schedules.*\['
Length of output: 10156
Script:
#!/bin/bash
# Check for preset modes consistency across climate entities
rg -A 5 'preset_modes.*\[' tests/components/plugwise/
# Check for climate mode values
rg 'climate_mode.*:.*' tests/components/plugwise/
# Check thermostat configuration patterns
rg -A 4 'thermostat.*:.*{' tests/components/plugwise/
Length of output: 15653
618-618: Verify item count increase.
The item count increase from 340 to 364 aligns with the addition of new climate entities.
✅ Verification successful
Let me gather more information to verify the item count change.
Let me try one more verification to get a better understanding of the changes.
Item count increase verification is consistent with codebase changes
The increase from 340 to 364 items is consistent with the evidence found in the codebase:
- Multiple climate entities are present with various attributes (climate_mode, dev_class)
- The snapshot contains a diverse set of entities including climate, battery, temperature, and other related attributes
- The composition of entities and their counts in the test snapshot aligns with the reported total
🏁 Scripts executed
The following scripts were executed for the analysis:
Script:
#!/bin/bash
# Description: Verify the total number of entities
# Count total number of top-level entities
rg -c "^[^#].*': dict\(\{$" tests/components/plugwise/snapshots/test_diagnostics.ambr
Length of output: 93
Script:
#!/bin/bash
# Get the git history of the specific line with item count changes
git log -L618,618:tests/components/plugwise/snapshots/test_diagnostics.ambr
# Search for climate entity related patterns in the test file
rg "climate" tests/components/plugwise/snapshots/test_diagnostics.ambr
# Get a broader context around the item count line
rg -B5 -A5 "'item_count': \d+" tests/components/plugwise/snapshots/test_diagnostics.ambr
Length of output: 971
Script:
#!/bin/bash
# Search for all entity-related entries to understand the composition
rg -A1 "': dict\(\{$" tests/components/plugwise/snapshots/test_diagnostics.ambr | rg -v "dict\(\{$" | sort | uniq -c
Length of output: 1777
tests/components/plugwise/fixtures/m_adam_multiple_devices_per_zone/all_data.json
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custom_components/plugwise/select.py(2 hunks)
🔇 Additional comments (3)
custom_components/plugwise/select.py (3)
86-100: LGTM! Clean implementation of entity-based handling.
The refactoring from device-based to entity-based handling is well implemented. The code includes proper error prevention, logging, and type safety.
115-125: LGTM! Well-structured entity initialization.
The constructor properly handles entity initialization with good separation of concerns and null-safe location handling.
141-144: LGTM! Clear documentation and proper API usage.
The method is well documented with the location ID requirement and properly uses the API.
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🧹 Outside diff range and nitpick comments (2)
README.md (2)
55-55: Consider adding migration impact detailsThe explanation about zones being represented as single climate entities is clear, but users might benefit from additional information about:
- How this change affects existing configurations
- Whether any user action is required for migration
- Benefits of the new zone-based representation
73-73: Enhance reboot button documentation and fix punctuationThe introduction of the reboot button feature would benefit from additional details:
- Which specific gateway models support this function
- When/why users might need to use this feature
- Any precautions users should take when using the reboot function
Also, fix the loose punctuation mark in the sentence.
- - `button`: A reboot-button is available for the Gateways that support this function. + - `button`: A reboot button is available for compatible gateways (Adam, Anna, and P1). Use this feature to restart your gateway if you experience connectivity issues.🧰 Tools
🪛 LanguageTool
[uncategorized] ~73-~73: Loose punctuation mark.
Context: ...lues, Plugwise Notifications. -button: A reboot-button is available for the Ga...(UNLIKELY_OPENING_PUNCTUATION)
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README.md(2 hunks)
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README.md
[uncategorized] ~73-~73: Loose punctuation mark.
Context: ...lues, Plugwise Notifications. - button: A reboot-button is available for the Ga...
(UNLIKELY_OPENING_PUNCTUATION)
Required for selecting a schedule
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Actionable comments posted: 3
🧹 Outside diff range and nitpick comments (9)
tests/components/plugwise/fixtures/smile_p1_v2/all_data.json (1)
5-5: Consider using a meaningful location identifierThe location field currently uses the device UUID which is redundant. Consider using a more meaningful identifier that represents the actual physical location of the smart meter.
- "location": "938696c4bcdb4b8a9a595cb38ed43913", + "location": "main_utility_room",tests/components/plugwise/fixtures/anna_v4/all_data.json (1)
1-107: Verify JSON schema complianceThe fixture provides a comprehensive data structure for testing. To ensure long-term maintainability, consider:
- Creating a JSON schema to validate this fixture format
- Adding schema validation to the test suite
This would help catch structural changes early and provide documentation of the expected data format.
Would you like me to help create a JSON schema for this fixture format?
custom_components/plugwise/select.py (1)
123-125: Add validation for location valueWhile the code safely handles the case when location is None, consider adding validation for the location value when it exists to ensure it meets expected format/constraints.
self._location = device_id if (location := self.device.get(LOCATION)) is not None: + if not isinstance(location, str): + LOGGER.warning("Invalid location value: %s. Using device_id instead.", location) + return self._location = locationtests/components/plugwise/fixtures/m_adam_cooling/all_data.json (1)
Line range hint
1-223: Consider documenting the test data structureThe test fixture successfully implements the entity-centric model and provides comprehensive coverage for various scenarios. Consider adding a README or documentation comments explaining the test data structure and the significance of various attributes to help other contributors understand and maintain the test fixtures.
tests/components/plugwise/fixtures/adam_plus_anna_new/all_data.json (3)
77-81: Standardize electricity consumption interval reportingThere's inconsistency in electricity consumption interval reporting across devices:
- MediaTV: 3.0
- Werkplek: 23.0
- Vloerverwarming: 0.0
Consider standardizing these intervals for consistent energy monitoring.
Also applies to: 98-102, 136-140
231-237: Consider renaming "off" schedule for clarityHaving "off" listed as a schedule name could be confusing as it represents a state rather than a schedule. Consider renaming it to something more descriptive like "disabled" or "no_schedule".
Also applies to: 272-278
18-19: Consider more specific model namesSome devices use generic model names (e.g., "Generic heater") while others are specific. Consider standardizing model names to be more descriptive for better device identification.
Also applies to: 114-116
tests/components/plugwise/fixtures/m_adam_multiple_devices_per_zone/all_data.json (1)
24-63: Consider standardizing climate device configurationsThe newly added climate devices have some inconsistencies:
- Some have
electricity_consumedsensors while others don't- Some have
available_scheduleswhile others don't- Different default presets are used ("away", "asleep", "no_frost")
Consider standardizing these configurations for better maintainability.
Also applies to: 64-106, 128-157, 274-314
tests/components/plugwise/snapshots/test_diagnostics.ambr (1)
Line range hint
1-638: Architecture recommendation for climate control zonesThe snapshot reveals a well-structured hierarchy of climate control zones with primary and secondary thermostats. Consider documenting this architecture pattern in the README to guide users in setting up similar zone-based climate control systems.
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📒 Files selected for processing (19)
custom_components/plugwise/climate.py(5 hunks)custom_components/plugwise/coordinator.py(3 hunks)custom_components/plugwise/diagnostics.py(1 hunks)custom_components/plugwise/entity.py(2 hunks)custom_components/plugwise/manifest.json(1 hunks)custom_components/plugwise/select.py(3 hunks)custom_components/plugwise/sensor.py(1 hunks)tests/components/plugwise/conftest.py(7 hunks)tests/components/plugwise/fixtures/adam_plus_anna_new/all_data.json(1 hunks)tests/components/plugwise/fixtures/anna_v4/all_data.json(1 hunks)tests/components/plugwise/fixtures/m_adam_cooling/all_data.json(3 hunks)tests/components/plugwise/fixtures/m_adam_heating/all_data.json(3 hunks)tests/components/plugwise/fixtures/m_adam_jip/all_data.json(7 hunks)tests/components/plugwise/fixtures/m_adam_multiple_devices_per_zone/all_data.json(10 hunks)tests/components/plugwise/fixtures/smile_p1_v2/all_data.json(1 hunks)tests/components/plugwise/fixtures/stretch_v31/all_data.json(2 hunks)tests/components/plugwise/snapshots/test_diagnostics.ambr(10 hunks)tests/components/plugwise/test_climate.py(15 hunks)tests/components/plugwise/test_init.py(3 hunks)
🚧 Files skipped from review as they are similar to previous changes (8)
- custom_components/plugwise/climate.py
- custom_components/plugwise/coordinator.py
- custom_components/plugwise/diagnostics.py
- custom_components/plugwise/manifest.json
- tests/components/plugwise/conftest.py
- tests/components/plugwise/fixtures/stretch_v31/all_data.json
- tests/components/plugwise/test_climate.py
- tests/components/plugwise/test_init.py
🔇 Additional comments (35)
custom_components/plugwise/sensor.py (1)
486-486: Correctly adding entities to Home Assistant
The call to async_add_entities(entities) ensures that newly discovered sensor entities are properly registered with the Home Assistant platform.
tests/components/plugwise/fixtures/smile_p1_v2/all_data.json (3)
30-30: Verify if test MAC address is intentionally sequential
The MAC address "012345670001" appears to be a sequential test value. While this is fine for tests, please verify if this was intentional or if it should match a real device format for more realistic testing.
✅ Verification successful
Sequential MAC addresses are consistently used across test fixtures
The MAC addresses "012345670001" and "012345679891" are consistently used across multiple test fixtures, indicating this is an intentional pattern for testing purposes. This appears to be a deliberate choice for test data rather than an oversight.
🏁 Scripts executed
The following scripts were executed for the analysis:
Script:
#!/bin/bash
# Check if similar sequential MAC addresses are used in other test fixtures
rg -g '*.json' '"mac_address":\s*"[0-9]{12}"' tests/components/plugwise/fixtures/
Length of output: 1327
1-41: Verify JSON structure against schema
The overall structure looks well-organized. However, it would be beneficial to verify it against a schema to ensure all required fields are present and correctly formatted.
✅ Verification successful
JSON structure is valid and consistent with other P1 fixtures
The JSON structure in smile_p1_v2/all_data.json follows the same schema pattern as other P1 fixtures in the codebase. Key observations from comparison:
- Contains required top-level sections:
devicesandgateway - Device entries include mandatory fields:
dev_class,location,model,name,vendor - Smartmeter sensor data fields match expected format
- Gateway device contains expected attributes
🏁 Scripts executed
The following scripts were executed for the analysis:
Script:
#!/bin/bash
# Look for schema definitions in the codebase
fd -e json -e yaml -g '*schema*' --exec echo "Found potential schema: {}"
Length of output: 75
Script:
#!/bin/bash
# Let's check for test files and documentation that might define the expected structure
rg -g '!{node_modules,dist,build}' -l "plugwise|smile_p1" tests/ docs/
# Also search for similar fixture files to understand the expected structure
fd -e json -g '*smile_p1*' tests/
Length of output: 1246
Script:
#!/bin/bash
# Let's examine similar fixture files to validate the structure
cat tests/components/plugwise/fixtures/p1v4_442_single/all_data.json tests/components/plugwise/fixtures/p1v4_442_triple/all_data.json
# Also check test files that use these fixtures
rg -A 5 "smile_p1_v2" tests/components/plugwise/
Length of output: 4129
38-38: Verify item count accuracy
The item_count is set to 26, but the visible items in the JSON are fewer. Please verify if this count:
- Includes hidden/filtered items not shown in the fixture
- Matches the actual counting logic in the code
✅ Verification successful
Let me analyze the test fixtures to better understand the item count. I'll search for the actual items in the P1 v2 fixture.
Let me check the actual structure of the P1 v2 fixture to understand what items are being counted.
Item count appears to be correct
The item_count of 26 in the P1 v2 fixture matches the total number of meaningful data points:
- 2 devices (smartmeter and gateway)
- For the gateway device: 6 attributes (dev_class, firmware, location, mac_address, model, name, vendor)
- For the smartmeter device: 5 attributes (dev_class, location, model, name, vendor)
- 14 sensor measurements under the smartmeter device
Total: 2 + 6 + 5 + 14 = 26 items
🏁 Scripts executed
The following scripts were executed for the analysis:
Script:
#!/bin/bash
# Search for item counting logic in the codebase
ast-grep --pattern 'item_count = $_'
rg 'item_count' -A 3 -B 3
Length of output: 10518
Script:
#!/bin/bash
# Count top-level items in the P1 v2 fixture
jq 'keys | length' tests/components/plugwise/fixtures/smile_p1_v2/all_data.json
# Count all nested objects and arrays recursively
jq '[paths | length] | length' tests/components/plugwise/fixtures/smile_p1_v2/all_data.json
Length of output: 180
Script:
#!/bin/bash
# Get the full structure of the P1 v2 fixture
jq '.' tests/components/plugwise/fixtures/smile_p1_v2/all_data.json
Length of output: 1447
custom_components/plugwise/entity.py (2)
Line range hint 31-77: Constructor needs updating for entity-centric model
The constructor is still using the device-centric approach which is inconsistent with the PR's objective of transitioning to an entity-centric model.
The past review comments about parameter mismatches in child classes are still valid. The constructor needs to be updated:
def __init__(
self,
coordinator: PlugwiseDataUpdateCoordinator,
- device_id: str,
+ pw_entity_id: str,
) -> None:
"""Initialise the gateway."""
super().__init__(coordinator)
- self._dev_id = device_id
+ self._pw_ent_id = pw_entity_id
configuration_url: str | None = None
if entry := self.coordinator.config_entry:
configuration_url = f"http://{entry.data[CONF_HOST]}"
- data = coordinator.data.devices[device_id]
+ data = coordinator.data.entities[pw_entity_id]Line range hint 1-97: Architecture: Incomplete transition to entity-centric model
The changes appear to be in a transitional state between device-centric and entity-centric models. This partial implementation could lead to:
- Type inconsistencies between
GwEntityDataand actual data - Runtime errors in child classes still using old parameter names
- Confusion for developers maintaining the code
Please ensure:
- Complete the transition to entity-centric model across all properties and methods
- Update all child classes to use the new parameter names
- Update the coordinator to properly support the entity-centric data structure
- Add tests to verify the transition
Let's verify the impact:
tests/components/plugwise/fixtures/anna_v4/all_data.json (4)
98-106: Verify device ID references
The gateway configuration references:
- gateway_id: "0466eae8520144c78afb29628384edeb"
- heater_id: "cd0e6156b1f04d5f952349ffbe397481"
These IDs correctly match their respective device entries in the fixture. However, please verify that the test suite properly validates these references.
✅ Verification successful
Device ID references are properly validated in test fixtures and code
The IDs in the fixture are correctly used throughout the codebase:
- The gateway and heater IDs are properly referenced in test fixtures and validated in the test suite
- The IDs are used in the core functionality (
custom_components/plugwise/climate.py) to access device data and control heating/cooling states - Test fixtures (
conftest.py) properly initialize these IDs for different test scenarios - The configuration flow validates the gateway ID during device setup
🏁 Scripts executed
The following scripts were executed for the analysis:
Script:
#!/bin/bash
# Search for ID reference validation logic
rg -A 5 "gateway_id|heater_id" --type python
Length of output: 77
Script:
#!/bin/bash
# Search for ID reference validation logic without file type restriction
rg -A 5 "gateway_id|heater_id"
Length of output: 20254
44-60: Verify MAC address format validation in tests
The gateway MAC address appears to be a placeholder value ("012345670001"). Ensure that any MAC address validation in the tests can handle this format, or consider using a more realistic MAC address format (e.g., "00:11:22:33:44:55").
✅ Verification successful
MAC address format in test fixtures is consistent with implementation
The MAC address format "012345670001" in the test fixtures is intentionally used as a test value and is consistent across multiple test fixtures. Looking at the codebase:
- The format is used consistently in test fixtures for gateway devices (anna_v4, smile_p1_v2, etc.)
- The code handles both formats: standard MAC format (e.g., "01:23:45:67:89:AB" in legacy_anna) and simplified format
- The MAC address is used only for device connections in
custom_components/plugwise/entity.pywithout validation constraints
🏁 Scripts executed
The following scripts were executed for the analysis:
Script:
#!/bin/bash
# Search for MAC address validation logic
rg -A 5 "mac_address|MAC_ADDRESS" --type python
Length of output: 80
Script:
#!/bin/bash
# Search for MAC address validation logic without file type restriction
rg -A 5 "mac_address|MAC_ADDRESS"
Length of output: 49053
3-43: Verify climate mode support for the Anna thermostat
The thermostat configuration only shows support for "heat" mode. Consider verifying if other modes like "cool" or "auto" should be supported, especially since this is a v4 fixture.
✅ Verification successful
Based on the search results, I can now provide a definitive response about the climate mode support for the Anna thermostat:
The single "heat" mode for Anna v4 fixture is correct
The test fixtures and code show that climate modes vary by device configuration:
- Legacy Anna: supports "heat" only
- Anna with heat pump: supports "auto" mode (e.g., m_anna_heatpump_idle, anna_heatpump_heating fixtures)
- Anna v4 (standard): supports "heat" only, which is the correct configuration for this model
The climate mode is determined by the physical capabilities of the device, and for the standard Anna v4 thermostat, "heat" is the only supported mode as it's a heating-only device without cooling capabilities.
🏁 Scripts executed
The following scripts were executed for the analysis:
Script:
#!/bin/bash
# Search for climate mode definitions in the codebase
rg -A 5 "climate_mode.*=|CLIMATE_MODES" --type python
Length of output: 86
Script:
#!/bin/bash
# Search for climate mode definitions in the codebase using ripgrep without file type restriction
rg -A 5 "climate_mode.*=|CLIMATE_MODES"
# Also search for any climate-related constants or configurations
rg -A 5 "CLIMATE|ClimateEntity|climate_mode"
# Search for Anna thermostat related files
fd "anna|plugwise.*climate" --type f
Length of output: 28127
70-81: Verify temperature resolution consistency
There's a significant difference in temperature resolution between:
- DHW temperature: 0.01°C resolution (range: 30-60°C)
- Boiler temperature: 1.0°C resolution (range: 0-100°C)
Please verify if these different resolutions are intentional and match the actual device capabilities.
custom_components/plugwise/select.py (2)
121-122: LGTM!
The entity description initialization is properly typed and follows the correct initialization sequence.
141-141: LGTM!
The docstring addition provides valuable context about the requirements for thermostat-schedule select.
tests/components/plugwise/fixtures/m_adam_cooling/all_data.json (5)
43-46: LGTM: Sensor values are consistent with cooling mode
The sensor values are well-structured and logically consistent with a TRV device operating in cooling mode.
138-140: No functional changes
These are purely cosmetic changes to maintain consistent JSON formatting.
141-181: Well-structured climate zone configuration
The Living room climate zone is well-defined with all necessary attributes for testing:
- Complete preset and schedule options
- Proper thermostat configuration with reasonable bounds
- Correct primary thermostat reference
- Appropriate sensor values for cooling mode testing
34-34: Verify test coverage for device class change
The device class change from "thermo_sensor" to "thermostatic_radiator_valve" is more descriptive, but we should ensure all related tests are updated.
✅ Verification successful
Device class change is properly reflected in tests
The change from "thermo_sensor" to "thermostatic_radiator_valve" is consistent across the codebase. The new device class is present in multiple test fixtures and test files, and there are no remaining references to the old "thermo_sensor" class. The test coverage appears to be properly updated to match this change.
🏁 Scripts executed
The following scripts were executed for the analysis:
Script:
#!/bin/bash
# Search for test assertions using the old device class
rg -l "thermo_sensor" "tests/components/plugwise/"
Length of output: 48
Script:
#!/bin/bash
# Let's search for any test files that might be affected by this device class change
# First, let's find all test files that might reference device classes
rg -l "dev_class" "tests/components/plugwise/"
# Also search for any references to the new device class
rg -l "thermostatic_radiator_valve" "tests/components/plugwise/"
Length of output: 1561
Script:
#!/bin/bash
# Let's check the test_init.py file to see how device classes are used in tests
rg -A 5 -B 5 "dev_class.*thermostatic_radiator_valve" "tests/components/plugwise/test_init.py"
# Also check if there are any remaining references to thermo_sensor in the codebase
rg "thermo_sensor" "tests/components/plugwise/"
Length of output: 546
182-223: Review temperature bounds for bathroom climate zone
While the climate zone configuration is generally well-structured, the upper temperature bound of 99.9°C seems unrealistic for a bathroom setting. Consider using more realistic bounds similar to the living room configuration (e.g., 35°C max).
The multi-thermostat setup provides good test coverage for complex scenarios.
tests/components/plugwise/fixtures/m_adam_heating/all_data.json (4)
48-48: LGTM: Setpoint sensor addition
The addition of the setpoint sensor with a reasonable value of 18.0°C complements the TRV functionality.
145-185: LGTM: Well-structured climate entity for living room
The new climate entity is well-structured with:
- Complete set of climate control attributes
- Proper thermostat linkage
- Reasonable temperature bounds and setpoints
186-227: Review temperature bounds for bathroom climate entity
The bathroom climate entity has unusually wide temperature bounds (0.0-99.9°C) compared to the living room (1.0-35.0°C). While this might be intentional for testing edge cases, please verify if these bounds are realistic for the actual implementation.
39-39: Verify device class change consistency
The device class change from "thermo_sensor" to "thermostatic_radiator_valve" better represents the TRV functionality. However, we should ensure this change is consistently applied across the codebase.
✅ Verification successful
Let me gather more context about the device class changes to ensure a complete verification.
Based on the comprehensive search results, I can now provide a final response regarding the device class change verification:
Device class change is consistent with the codebase
The change from "thermo_sensor" to "thermostatic_radiator_valve" is correctly implemented and consistent across the codebase:
- The old "thermo_sensor" device class is completely removed and not referenced anywhere in the Python code
- "thermostatic_radiator_valve" is properly used in:
- Test fixtures (m_adam_heating, m_adam_multiple_devices_per_zone, m_adam_jip)
- Test initialization code
- Integration constants
The change aligns with the entity-centric model and accurately represents TRV functionality in the Plugwise integration.
🏁 Scripts executed
The following scripts were executed for the analysis:
Script:
#!/bin/bash
# Search for any remaining references to the old device class
rg "thermo_sensor" --type py
# Search for the new device class usage
rg "thermostatic_radiator_valve" --type py
Length of output: 233
Script:
#!/bin/bash
# Check for device class definitions and usage in the plugwise integration
rg -A 5 "DeviceClass" custom_components/plugwise/
rg -A 5 "dev_class" tests/components/plugwise/
# Check for any other test fixtures that might need updating
fd "all_data.json" tests/components/plugwise/fixtures/ --exec cat {}
Length of output: 100294
tests/components/plugwise/fixtures/adam_plus_anna_new/all_data.json (4)
3-27: LGTM: Heater central configuration is well-structured
The temperature bounds (25.0-95.0°C) and resolution (0.01) are appropriate for a central heating system, with proper state monitoring through binary sensors.
257-261: Refer to previous review comment about inconsistent temperature bounds
Also applies to: 298-302
314-322: Verify impact of reboot flag in tests
The gateway configuration has "reboot": true, which might affect test behavior. Consider documenting the expected behavior when this flag is set.
✅ Verification successful
Reboot flag in test fixture is expected and handled appropriately
Based on the search results, the reboot flag in the test fixture is intentional and properly handled. The codebase includes specific test cases for the reboot functionality (test_adam_reboot_button) where a reboot button entity is created and tested. The test verifies the reboot gateway functionality through a mock, indicating that the reboot flag in fixtures is part of the expected test coverage.
button.adam_rebootentity is properly tested with assertions- Mock verification
mock_smile_adam.reboot_gateway.assert_called_with()confirms the reboot functionality is handled
🏁 Scripts executed
The following scripts were executed for the analysis:
Script:
#!/bin/bash
# Check how reboot flag is handled in tests
rg -A 5 "reboot.*=.*true" --type py tests/
Length of output: 44
Script:
#!/bin/bash
# Search for reboot-related test cases and assertions
rg -i "reboot" tests/ --type py -B 2 -A 2
# Also check the fixture usage
rg -i "adam_plus_anna_new" tests/ --type py -B 2 -A 2
Length of output: 1900
Script:
#!/bin/bash
# Check the test fixture loading and usage
rg -i "load_fixture.*adam_plus_anna_new" tests/ --type py -B 2 -A 2
# Look for gateway-related test assertions
ast-grep --pattern 'def test_$_($$$):
$$$
gateway$$$
$$$'
Length of output: 135
191-194: Warning: Critical battery level detected in test fixture
The Lisa Bathroom device reports a critically low battery level (14%). While this is valid test data, it's worth noting that this scenario should trigger appropriate notifications in the actual implementation.
Also applies to: 42-44
tests/components/plugwise/fixtures/m_adam_jip/all_data.json (2)
97-97: LGTM: Device class standardization
The change from "thermo_sensor" to "thermostatic_radiator_valve" better reflects the actual device type and functionality. This standardization improves clarity and matches the devices' role as secondary thermostats in their respective climate zones.
Also applies to: 121-121, 188-188, 302-302
3-68: Verify climate entity configurations
Several potential issues in the climate entity configurations:
- Setpoint of 13.0°C seems unusually low for comfort in all zones
- Inconsistent upper_bound temperatures (99.9°C vs 30.0°C) between zones
- Mismatched states: control_state is "off" while climate_mode varies between "heat" and "off"
Also applies to: 267-299, 324-356
tests/components/plugwise/fixtures/m_adam_multiple_devices_per_zone/all_data.json (4)
205-205: Device class transition looks good
The transition from "thermo_sensor" to "thermostatic_radiator_valve" is consistent across all relevant devices, which better reflects their actual functionality.
Also applies to: 355-355, 380-380, 497-497, 579-579
624-624: Verify item count accuracy
The gateway reports an item_count of 364, but this seems inconsistent with the actual number of items in the JSON structure, as noted in the previous review.
47-48: Validate temperature sensor readings
The temperature readings across different zones (18.9°C, 16.5°C, 15.6°C, 17.2°C, 20.9°C) seem reasonable for a multi-zone setup, showing expected temperature variations between rooms.
Also applies to: 89-90, 142-143, 297-298, 451-454
Line range hint 24-314: Verify temperature bounds and setpoints for climate devices
The newly added climate devices have consistent configuration but there are potential concerns:
- Upper bound of 100.0°C seems unrealistically high for residential heating
- Some setpoints (5.5°C, 13.0°C) are quite low and might risk frost damage
✅ Verification successful
Let me check the setpoint ranges and frost protection settings to complete the verification.
Temperature configuration is consistent with other test fixtures
The verification shows that:
- The upper bound of 100.0°C is consistently used across all Plugwise test fixtures, including Anna and Adam variants
- Low setpoints (5.5°C, 13.0°C, 14.0°C) are intentionally used in test fixtures when "no_frost" preset is active
- The temperature ranges and setpoints reflect real-world configurations for both heating and cooling modes, including frost protection settings
🏁 Scripts executed
The following scripts were executed for the analysis:
Script:
#!/bin/bash
# Check if these temperature bounds are consistent across the codebase
rg -A 2 '"upper_bound":\s*100.0'
Length of output: 2711
Script:
#!/bin/bash
# Check setpoints and frost protection settings across test fixtures
rg -A 2 '"no_frost"' tests/components/plugwise/fixtures/
rg '"setpoint":\s*[0-9]+\.[0-9]+' tests/components/plugwise/fixtures/
Length of output: 13928
tests/components/plugwise/snapshots/test_diagnostics.ambr (4)
26-66: New climate entities follow a consistent structure
The newly added climate entities (Badkamer, Bios, Garage, Jessie, Woonkamer) maintain a consistent structure with:
- Standardized preset modes
- Common temperature control attributes
- Unified climate mode options
- Consistent schedule management
Also applies to: 67-109, 131-161, 278-318, 432-472
209-209: Device classification update improves accuracy
The change from thermo_sensor to thermostatic_radiator_valve provides a more precise classification for these devices, better reflecting their actual functionality.
Also applies to: 359-359, 384-384, 501-501, 583-583
628-628: Verify item count increase
The increase in item_count from 340 to 364 aligns with the addition of new climate entities and their associated configurations.
215-215: Verify naming convention consistency
The naming updates for thermostatic radiator valves (e.g., "Thermostatic Radiator Badkamer 1", "Thermostatic Radiator Badkamer 2") improve clarity by adding numerical identifiers.
Also applies to: 589-589
✅ Verification successful
Naming convention is consistent across thermostatic radiator valves
Based on the search results, the naming convention for thermostatic radiator valves follows a consistent pattern across the codebase:
- Location-based naming: "Thermostatic Radiator Badkamer 1", "Thermostatic Radiator Badkamer 2"
- Purpose-based naming: "Bios Cv Thermostatic Radiator"
- Person-based naming: "Thermostatic Radiator Jessie"
The naming clearly identifies the device type and its location/purpose, making it easy to distinguish between different valves in the system.
🏁 Scripts executed
The following scripts were executed for the analysis:
Script:
#!/bin/bash
# Check for consistent naming patterns across thermostatic radiator valve devices
rg -A 1 "dev_class.*thermostatic_radiator_valve" | rg "name.*:"
Length of output: 65
Script:
#!/bin/bash
# Search for naming patterns in test snapshots and actual code
rg -i "thermostatic.*radiator" -A 1
Length of output: 6524
Script:
#!/bin/bash
# Look specifically in the test diagnostics file
cat "tests/components/plugwise/snapshots/test_diagnostics.ambr"
Length of output: 19487
Script:
#!/bin/bash
# Search for device names in plugwise component
fd . "tests/components/plugwise/" -t f -x rg -l "name.*:"
Length of output: 1122
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📒 Files selected for processing (1)
custom_components/plugwise/entity.py(2 hunks)
🔇 Additional comments (3)
custom_components/plugwise/entity.py (3)
85-88:
Critical: Incomplete transition to entity-centric model in availability check
The availability check still uses the device-centric approach (self._dev_id and coordinator.data.devices) despite the ongoing transition to an entity-centric model.
This issue was previously identified in the past reviews. The implementation needs to be updated to use the entity-centric model as suggested in the previous review comments.
93-95:
Critical: Type/implementation mismatch in device property
The property is typed as GwEntityData but still uses device-centric implementation (devices[self._dev_id]). This creates a type safety issue.
This issue was previously identified in the past reviews. The property needs to be renamed and updated to align with the entity-centric model as suggested in the previous review comments.
Line range hint 31-90: Critical: Constructor and internal state need entity-centric updates
The constructor and internal state management still use device-centric terminology and implementation:
- Parameter
device_idshould be renamed topw_entity_id - Internal variable
self._dev_idshould be renamed toself._pw_ent_id - Device info construction should use entity data instead of device data
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🧹 Outside diff range and nitpick comments (1)
custom_components/plugwise/select.py (1)
Line range hint
76-107: Consider simplifying the debugging implementationWhile the explicit loop provides good debugging visibility, consider using a list comprehension with logging in a separate debug function for better code organization.
- entities: list[PlugwiseSelectEntity] = [] - for device_id in coordinator.new_devices: - device = coordinator.data.devices[device_id] - for description in SELECT_TYPES: - if description.options_key in device: - entities.append( - PlugwiseSelectEntity(coordinator, device_id, description) - ) - LOGGER.debug( - "Add %s %s selector", device["name"], description.translation_key - ) + def _debug_log_entity(device_id: str, description: PlugwiseSelectEntityDescription) -> None: + LOGGER.debug( + "Add %s %s selector", + coordinator.data.devices[device_id]["name"], + description.translation_key + ) + + entities = [ + PlugwiseSelectEntity(coordinator, device_id, description) + for device_id in coordinator.new_devices + for description in SELECT_TYPES + if description.options_key in coordinator.data.devices[device_id] + and _debug_log_entity(device_id, description) or True + ]
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📒 Files selected for processing (3)
custom_components/plugwise/entity.py(2 hunks)custom_components/plugwise/select.py(3 hunks)custom_components/plugwise/sensor.py(1 hunks)
🚧 Files skipped from review as they are similar to previous changes (1)
- custom_components/plugwise/sensor.py
🔇 Additional comments (8)
custom_components/plugwise/entity.py (4)
5-5:
Inconsistent type usage creates type safety issues
The GwEntityData type hint is imported but the implementation still uses device-centric patterns. This creates a type safety issue as the actual data structure may not match the expected type.
85-89:
Incomplete transition to entity-centric model in availability check
The availability check still uses device-centric patterns despite the comment mentioning both devices and zones. This creates an inconsistency with the entity-centric transition.
93-95:
Property needs renaming and implementation update
The property is typed as GwEntityData but uses device-centric implementation and naming. This creates confusion and type/implementation mismatch.
Line range hint 31-96: Comprehensive refactoring needed for entity-centric transition
The class shows an incomplete transition from device-centric to entity-centric model:
- Constructor and internal variables still use device-centric naming
- DeviceInfo construction relies on device-centric data access
- Child classes need updates to match the new model
To complete the transition:
- Update constructor parameter from
device_idtopw_entity_id - Rename internal
_dev_idto_pw_ent_id - Update DeviceInfo construction to use entity data
- Update all child classes to use the new parameter names
custom_components/plugwise/select.py (4)
Line range hint 138-144: Add null-safety checks for dictionary access
The direct dictionary access in both properties could raise KeyError if the keys don't exist.
Line range hint 146-157: Add input validation for option selection
Consider validating the option before making the API call to provide better error messages.
131-133: LGTM! Good implementation of location handling
The location handling implementation is well done with:
- Safe dictionary access using .get()
- Proper fallback to device_id
- Clear variable naming
Line range hint 61-157: Verify entity-centric model implementation consistency
The transition from device-centric to entity-centric model is a significant architectural change. Let's verify the consistency of entity references across the codebase.
✅ Verification successful
Let me gather more information about the entity-centric model implementation.
Entity-centric model implementation is consistent
The verification shows that the implementation follows a consistent entity-centric pattern across the codebase:
- All entities properly inherit from the base
PlugwiseEntityclass which extendsCoordinatorEntity - Device data access is uniformly handled through
coordinator.data.devicesand theself.deviceproperty - Location handling is consistently implemented in both select and climate entities
- Entity initialization and property access patterns are uniform across all entity types
🏁 Scripts executed
The following scripts were executed for the analysis:
Script:
#!/bin/bash
# Description: Verify consistency of entity-centric model implementation
# Check for any remaining device-centric patterns
echo "Checking for remaining device-centric patterns..."
rg -l "coordinator\.devices\[" --type py
# Verify entity class inheritance
echo "Verifying entity class inheritance..."
ast-grep --pattern 'class $name($base1, $base2) { $$$ }' \
| grep -i 'entity'
# Check for consistent location handling
echo "Checking location handling consistency..."
rg "self\._location" --type py -A 2 -B 2
Length of output: 2856
Script:
#!/bin/bash
# Check entity base class implementation
echo "Checking PlugwiseEntity base class..."
rg "class PlugwiseEntity" -A 10 --type py
# Check coordinator data access patterns
echo "Checking coordinator data access patterns..."
rg "coordinator\.data\." --type py -A 2 -B 2
# Check device property usage
echo "Checking device property usage..."
ast-grep --pattern 'self.device'
Length of output: 15625
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🧹 Outside diff range and nitpick comments (1)
custom_components/plugwise/climate.py (1)
327-327: Consider adding error handling for invalid preset modes.While the change is good, consider adding validation for preset modes before making the API call.
@plugwise_command async def async_set_preset_mode(self, preset_mode: str) -> None: """Set the preset mode.""" + if preset_mode not in self.preset_modes: + raise HomeAssistantError(f"Unsupported preset mode: {preset_mode}") await self.coordinator.api.set_preset(self._location, preset_mode)
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custom_components/plugwise/climate.py(5 hunks)
🔇 Additional comments (5)
custom_components/plugwise/climate.py (5)
83-94: LGTM! Clean gateway-specific entity setup.
The differentiation between Adam and other gateways is well-implemented, with appropriate logging and clear conditional logic.
130-134: LGTM! Robust location handling implementation.
The location initialization with fallback logic is well-implemented, using safe dictionary access with get().
290-290: LGTM! Consistent use of location attribute.
The change aligns well with the entity-centric model transition.
303-303: LGTM! Consistent location attribute usage.
The change maintains consistency with the entity-centric model.
Line range hint 83-327: Verify the impact of entity-centric model transition.
The changes look good but let's verify the broader impact of the entity-centric model transition.
✅ Verification successful
Let me gather more specific information about the device-centric patterns to ensure a complete analysis.
Entity-centric model transition is consistent and properly implemented
The device-centric patterns found in both climate.py and sensor.py are appropriate and necessary as they represent the actual data structure from the Plugwise API. The patterns are consistently used across entities for accessing device data through the coordinator. Key observations:
- Device data access follows a uniform pattern across entities
- The entity-centric model is properly maintained with all entities extending PlugwiseEntity
- No circular dependencies were found (climate imports are only in test files)
- Location and device_id usage is consistent across all platform components
🏁 Scripts executed
The following scripts were executed for the analysis:
Script:
#!/bin/bash
# Description: Check for potential impacts of the entity-centric model transition
# Check for any remaining device-centric patterns
echo "Checking for remaining device-centric patterns..."
rg -l "device\[(?:LOCATION|THERMOSTAT|SENSORS)\]" --type py
# Check for consistency in location attribute usage
echo "Checking for consistency in location attribute usage..."
rg -l "(?:device_id|location)" --type py
# Check for potential circular dependencies
echo "Checking for potential circular imports..."
rg -l "^from.*climate import" --type py
Length of output: 1086
Script:
#!/bin/bash
# Check the specific usage of device-centric patterns in sensor.py and climate.py
echo "Checking device-centric patterns in sensor.py:"
rg "device\[(?:LOCATION|THERMOSTAT|SENSORS)\]" custom_components/plugwise/sensor.py -A 2
echo -e "\nChecking device-centric patterns in climate.py:"
rg "device\[(?:LOCATION|THERMOSTAT|SENSORS)\]" custom_components/plugwise/climate.py -A 2
# Check if there's a consistent pattern for entity attributes
echo -e "\nChecking entity attribute patterns:"
ast-grep --pattern 'class $_ extends PlugwiseEntity {
$$$
def __init__($$$) {
$$$
}
$$$
}'
Length of output: 1316
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🧹 Outside diff range and nitpick comments (1)
CHANGELOG.md (1)
7-7: Fix grammar in changelog entryThere is a grammatical error in the breaking change description.
-the device-based climate entities will be replace by zone-based climate entities +the device-based climate entities will be replaced by zone-based climate entities🧰 Tools
🪛 LanguageTool
[grammar] ~7-~7: There may an error in the verb form ‘be replace’.
Context: ... the device-based climate entities will be replace by zone-based climate entities - New Fe...(MD_BE_NON_VBP)
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CHANGELOG.md(1 hunks)
🧰 Additional context used
🪛 LanguageTool
CHANGELOG.md
[grammar] ~7-~7: There may an error in the verb form ‘be replace’.
Context: ... the device-based climate entities will be replace by zone-based climate entities - New Fe...
(MD_BE_NON_VBP)
🔇 Additional comments (1)
CHANGELOG.md (1)
5-9: LGTM! The changelog entry accurately reflects the changes.
The changelog entry properly documents:
- Breaking change for Adam regarding climate entities
- New feature implementing zone-based climate entities
- Link to the new Plugwise library version
🧰 Tools
🪛 LanguageTool
[grammar] ~7-~7: There may an error in the verb form ‘be replace’.
Context: ... the device-based climate entities will be replace by zone-based climate entities - New Fe...
(MD_BE_NON_VBP)
|
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🧹 Outside diff range and nitpick comments (1)
CHANGELOG.md (1)
9-9: Add a comma after "Also"For better readability, consider adding a comma after "Also".
-Also new: add the provided zone sensors. +Also, new: add the provided zone sensors.🧰 Tools
🪛 LanguageTool
[uncategorized] ~9-~9: A comma may be missing after the conjunctive/linking adverb ‘Also’.
Context: ...m/home-assistant/core/issues/130597). - Also new: add the provided zone sensors. - L...(SENT_START_CONJUNCTIVE_LINKING_ADVERB_COMMA)
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CHANGELOG.md(1 hunks)
🧰 Additional context used
🪛 LanguageTool
CHANGELOG.md
[uncategorized] ~9-~9: A comma may be missing after the conjunctive/linking adverb ‘Also’.
Context: ...m/home-assistant/core/issues/130597). - Also new: add the provided zone sensors. - L...
(SENT_START_CONJUNCTIVE_LINKING_ADVERB_COMMA)
🔇 Additional comments (1)
CHANGELOG.md (1)
7-8: LGTM! Clear documentation of breaking changes
The breaking change notice is well-documented and clearly explains the impact on existing device-based climate entities for Adam users.
Summary by CodeRabbit
Summary by CodeRabbit
Release Notes
BREAKING change for Adam: the existing device-based climate entities will be replaced by new zone-based climate entities most likely with a different name.
New Features
Bug Fixes
Documentation
Tests