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/*
*
* Copyright (c) 2023 Project CHIP Authors
* All rights reserved.
*
* Licensed under the Apache License, Version 2.0 (the "License");
* you may not use this file except in compliance with the License.
* You may obtain a copy of the License at
*
* http://www.apache.org/licenses/LICENSE-2.0
*
* Unless required by applicable law or agreed to in writing, software
* distributed under the License is distributed on an "AS IS" BASIS,
* WITHOUT WARRANTIES OR CONDITIONS OF ANY KIND, either express or implied.
* See the License for the specific language governing permissions and
* limitations under the License.
*/
#include "DeviceEnergyManagementDelegateImpl.h"
#include <app/EventLogging.h>
using namespace chip;
using namespace chip::app;
using namespace chip::app::Clusters;
using namespace chip::app::Clusters::DeviceEnergyManagement;
using namespace chip::app::Clusters::DeviceEnergyManagement::Attributes;
using chip::Optional;
using namespace chip::app;
using CostsList = DataModel::List<const Structs::CostStruct::Type>;
/**
* @brief Delegate handler for PowerAdjustRequest
*
* Note: checking of the validity of the PowerAdjustRequest has been done by the lower layer
*
* This function needs to notify the appliance that it should apply a new power setting.
* It should:
* 1) notify the appliance - if the appliance hardware cannot be adjusted, then return Failure
* 2) start a timer (or restart the existing PowerAdjust timer) for duration seconds
* 3) generate a PowerAdjustStart event (if there is not an existing PowerAdjustRequest running)
* 4) if appropriate, update the forecast with the new expected end time
*
* and when the timer expires:
* 5) notify the appliance's that it can resume its intended power setting (or go idle)
* 6) generate a PowerAdjustEnd event with cause NormalCompletion
* 7) if necessary, update the forecast with new expected end time
*/
Status DeviceEnergyManagementDelegate::PowerAdjustRequest(const int64_t power, const uint32_t duration, AdjustmentCauseEnum cause)
{
Status status = Status::UnsupportedCommand; // Status::Success;
// TODO: implement
mEsaState = ESAStateEnum::kPowerAdjustActive;
// TODO: Generate a PowerAdjustStart Event, then begins to adjust its power
// When done, raise PowerAdjustEnd & ESAState set to kOnline.
MatterReportingAttributeChangeCallback(mEndpointId, DeviceEnergyManagement::Id, ESAState::Id);
return status;
}
/**
* @brief Delegate handler for CancelPowerAdjustRequest
*
* Note: checking of the validity of the CancelPowerAdjustRequest has been done by the lower layer
*
* This function needs to notify the appliance that it should resume its intended power setting (or go idle).
* It should:
* 1) notify the appliance's that it can resume its intended power setting (or go idle)
* 2) generate a PowerAdjustEnd event with cause code Cancelled
* 3) if necessary, update the forecast with new expected end time
*/
Status DeviceEnergyManagementDelegate::CancelPowerAdjustRequest()
{
Status status = Status::UnsupportedCommand; // Status::Success;
// TODO: implement
/* TODO: If the command is accepted, the ESA SHALL generate an PowerAdjustEnd Event. */
mEsaState = ESAStateEnum::kOnline;
MatterReportingAttributeChangeCallback(mEndpointId, DeviceEnergyManagement::Id, ESAState::Id);
return status;
}
/**
* @brief Delegate handler for StartTimeAdjustRequest
*
* Note: checking of the validity of the StartTimeAdjustRequest has been done by the lower layer
*
* This function needs to notify the appliance that the forecast has been updated by a client.
*
* It should:
* 1) update the forecast attribute with the revised start time
* 2) send a callback notification to the appliance so it can refresh its internal schedule
*/
Status DeviceEnergyManagementDelegate::StartTimeAdjustRequest(const uint32_t requestedStartTime, AdjustmentCauseEnum cause)
{
DataModel::Nullable<Structs::ForecastStruct::Type> forecast = GetForecast();
if (forecast.IsNull())
{
return Status::Failure;
}
uint32_t duration = forecast.Value().endTime - forecast.Value().startTime; // the current entire forecast duration
/* Modify start time and end time */
forecast.Value().startTime = requestedStartTime;
forecast.Value().endTime = requestedStartTime + duration;
SetForecast(forecast); // This will increment forecast ID
// TODO: callback to the appliance to notify it of a new start time
return Status::Success;
}
/**
* @brief Delegate handler for Pause Request
*
* Note: checking of the validity of the Pause Request has been done by the lower layer
*
* This function needs to notify the appliance that it should now pause.
* It should:
* 1) pause the appliance - if the appliance hardware cannot be paused, then return Failure
* 2) start a timer for duration seconds
* 3) generate a Paused event
* 4) update the forecast with the new expected end time
*
* and when the timer expires:
* 5) restore the appliance's operational state
* 6) generate a Resumed event
* 7) if necessary, update the forecast with new expected end time
*/
Status DeviceEnergyManagementDelegate::PauseRequest(const uint32_t duration, AdjustmentCauseEnum cause)
{
Status status = Status::UnsupportedCommand; // Status::Success;
// TODO: implement the behaviour above
return status;
}
/**
* @brief Delegate handler for ResumeRequest
*
* Note: checking of the validity of the ResumeRequest has been done by the lower layer
*
* This function needs to notify the appliance that it should now resume operation
*
* It should:
* 1) restore the appliance's operational state
* 2) generate a Resumed event
* 3) update the forecast with new expected end time (given that the pause duration was shorter than originally requested)
*
*/
Status DeviceEnergyManagementDelegate::ResumeRequest()
{
Status status = Status::UnsupportedCommand; // Status::Success;
// TODO: implement the behaviour above
SetESAState(ESAStateEnum::kOnline);
return status;
}
/**
* @brief Delegate handler for ModifyForecastRequest
*
* Note: Only basic checking of the validity of the ModifyForecastRequest has been
* done by the lower layer. This is a more complex use-case and requires higher-level
* work by the delegate.
*
* It should:
* 1) determine if the new forecast adjustments are acceptable to the appliance
* - if not return Failure. For example, if it may cause the home to be too hot
* or too cold, or a battery to be insufficiently charged
* 2) if the slot adjustments are acceptable, then update the forecast
* 3) notify the appliance to follow the revised schedule
*/
Status DeviceEnergyManagementDelegate::ModifyForecastRequest(
const uint32_t forecastId, const DataModel::DecodableList<Structs::SlotAdjustmentStruct::DecodableType> & slotAdjustments,
AdjustmentCauseEnum cause)
{
Status status = Status::UnsupportedCommand; // Status::Success;
// TODO: implement the behaviour above
return status;
}
/**
* @brief Delegate handler for RequestConstraintBasedForecast
*
* Note: Only basic checking of the validity of the RequestConstraintBasedForecast has been
* done by the lower layer. This is a more complex use-case and requires higher-level
* work by the delegate.
*
* It should:
* 1) perform a higher level optimization (e.g. using tariff information, and user preferences)
* 2) if a solution can be found, then update the forecast, else return Failure
* 3) notify the appliance to follow the revised schedule
*/
Status DeviceEnergyManagementDelegate::RequestConstraintBasedForecast(
const DataModel::DecodableList<Structs::ConstraintsStruct::DecodableType> & constraints, AdjustmentCauseEnum cause)
{
Status status = Status::UnsupportedCommand; // Status::Success;
// TODO: implement the behaviour above
return status;
}
/**
* @brief Delegate handler for CancelRequest
*
* Note: This is a more complex use-case and requires higher-level work by the delegate.
*
* It SHALL:
* 1) Check if the forecastUpdateReason was already InternalOptimization (and reject the command)
* 2) Update its forecast (based on its optimization strategy) ignoring previous requests
* 3) Update its Forecast attribute to match its new intended operation, and update the
* ForecastStruct.ForecastUpdateReason to `Internal Optimization`.
*/
Status DeviceEnergyManagementDelegate::CancelRequest()
{
Status status = Status::UnsupportedCommand; // Status::Success;
// TODO: implement the behaviour above
return status;
}
// ------------------------------------------------------------------
// Get attribute methods
ESATypeEnum DeviceEnergyManagementDelegate::GetESAType()
{
return mEsaType;
}
bool DeviceEnergyManagementDelegate::GetESACanGenerate()
{
return mEsaCanGenerate;
}
ESAStateEnum DeviceEnergyManagementDelegate::GetESAState()
{
return mEsaState;
}
int64_t DeviceEnergyManagementDelegate::GetAbsMinPower()
{
return mAbsMinPower;
}
int64_t DeviceEnergyManagementDelegate::GetAbsMaxPower()
{
return mAbsMaxPower;
}
PowerAdjustmentCapability::TypeInfo::Type DeviceEnergyManagementDelegate::GetPowerAdjustmentCapability()
{
return mPowerAdjustmentCapability;
}
DataModel::Nullable<Structs::ForecastStruct::Type> DeviceEnergyManagementDelegate::GetForecast()
{
return mForecast;
}
OptOutStateEnum DeviceEnergyManagementDelegate::GetOptOutState()
{
return mOptOutState;
}
// ------------------------------------------------------------------
// Set attribute methods
CHIP_ERROR DeviceEnergyManagementDelegate::SetESAType(ESATypeEnum newValue)
{
ESATypeEnum oldValue = mEsaType;
if (newValue >= ESATypeEnum::kUnknownEnumValue)
{
return CHIP_IM_GLOBAL_STATUS(ConstraintError);
}
mEsaType = newValue;
if (oldValue != newValue)
{
ChipLogDetail(AppServer, "mEsaType updated to %d", static_cast<int>(mEsaType));
MatterReportingAttributeChangeCallback(mEndpointId, DeviceEnergyManagement::Id, ESAType::Id);
}
return CHIP_NO_ERROR;
}
CHIP_ERROR DeviceEnergyManagementDelegate::SetESACanGenerate(bool newValue)
{
bool oldValue = mEsaCanGenerate;
mEsaCanGenerate = newValue;
if (oldValue != newValue)
{
ChipLogDetail(AppServer, "mEsaCanGenerate updated to %d", static_cast<int>(mEsaCanGenerate));
MatterReportingAttributeChangeCallback(mEndpointId, DeviceEnergyManagement::Id, ESACanGenerate::Id);
}
return CHIP_NO_ERROR;
}
CHIP_ERROR DeviceEnergyManagementDelegate::SetESAState(ESAStateEnum newValue)
{
ESAStateEnum oldValue = mEsaState;
if (newValue >= ESAStateEnum::kUnknownEnumValue)
{
return CHIP_IM_GLOBAL_STATUS(ConstraintError);
}
mEsaState = newValue;
if (oldValue != newValue)
{
ChipLogDetail(AppServer, "mEsaState updated to %d", static_cast<int>(mEsaState));
MatterReportingAttributeChangeCallback(mEndpointId, DeviceEnergyManagement::Id, ESAState::Id);
}
return CHIP_NO_ERROR;
}
CHIP_ERROR DeviceEnergyManagementDelegate::SetAbsMinPower(int64_t newValue)
{
int64_t oldValue = mAbsMinPower;
mAbsMinPower = newValue;
if (oldValue != newValue)
{
ChipLogDetail(AppServer, "mAbsMinPower updated to %d", static_cast<int>(mAbsMinPower));
MatterReportingAttributeChangeCallback(mEndpointId, DeviceEnergyManagement::Id, AbsMinPower::Id);
}
return CHIP_NO_ERROR;
}
CHIP_ERROR DeviceEnergyManagementDelegate::SetAbsMaxPower(int64_t newValue)
{
int64_t oldValue = mAbsMaxPower;
mAbsMaxPower = newValue;
if (oldValue != newValue)
{
ChipLogDetail(AppServer, "mAbsMaxPower updated to %d", static_cast<int>(mAbsMaxPower));
MatterReportingAttributeChangeCallback(mEndpointId, DeviceEnergyManagement::Id, AbsMaxPower::Id);
}
return CHIP_NO_ERROR;
}
CHIP_ERROR
DeviceEnergyManagementDelegate::SetPowerAdjustmentCapability(PowerAdjustmentCapability::TypeInfo::Type powerAdjustmentCapability)
{
// TODO see Issue #31147
return CHIP_NO_ERROR;
}
CHIP_ERROR DeviceEnergyManagementDelegate::SetForecast(DataModel::Nullable<Structs::ForecastStruct::Type> forecast)
{
// TODO see Issue #31147
return CHIP_NO_ERROR;
}