powersync-energy-plugin-etm/tests/auto/simulation/nymea-experience-plugin-ene.../energymanagerimpl.cpp

352 lines
18 KiB
C++

// SPDX-License-Identifier: GPL-3.0-or-later
/* * * * * * * * * * * * * * * * * * * * * * * * * * * * * * * * * * * * * * *
*
* Copyright (C) 2013 - 2024, nymea GmbH
* Copyright (C) 2024 - 2025, chargebyte austria GmbH
*
* This file is part of nymea-energy-plugin-nymea.
*
* nymea-energy-plugin-nymea. is free software: you can redistribute it and/or modify
* it under the terms of the GNU General Public License as published by
* the Free Software Foundation, either version 3 of the License, or
* (at your option) any later version.
*
* nymea-energy-plugin-nymea. is distributed in the hope that it will be useful,
* but WITHOUT ANY WARRANTY; without even the implied warranty of
* MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the
* GNU General Public License for more details.
*
* You should have received a copy of the GNU General Public License
* along with nymea-energy-plugin-nymea.. If not, see <https://www.gnu.org/licenses/>.
*
* * * * * * * * * * * * * * * * * * * * * * * * * * * * * * * * * * * * * * */
#include "energymanagerimpl.h"
#include <nymeasettings.h>
#include <qmath.h>
Q_DECLARE_LOGGING_CATEGORY(dcEnergyExperience)
EnergyManagerImpl::EnergyManagerImpl(ThingManager *thingManager, QObject *parent):
EnergyManager(parent),
m_thingManager(thingManager)
{
// Most of the time we get a bunch of state changes (currentPower, totals, for inverter, battery, rootmeter)
// at the same time if they're implemented by the same plugin.
// In order to decrease some load on the system, we'll wait for the event loop pass to finish until we actually
// update to accumulate those changes and calculate the change in one go.
m_balanceUpdateTimer.setInterval(0);
m_balanceUpdateTimer.setSingleShot(true);
connect(&m_balanceUpdateTimer, &QTimer::timeout, this, &EnergyManagerImpl::updatePowerBalance);
QSettings settings(NymeaSettings::settingsPath() + "/energy.conf", QSettings::IniFormat);
ThingId rootMeterThingId = settings.value("rootMeterThingId").toUuid();
EnergyManagerImpl::setRootMeter(rootMeterThingId);
qCDebug(dcEnergyExperience()) << "Loaded root meter" << rootMeterThingId;
// PowerBalanceLogEntry latestEntry = m_logger->latestLogEntry(EnergyLogs::SampleRateAny);
// m_totalConsumption = latestEntry.totalConsumption();
// m_totalProduction = latestEntry.totalProduction();
// m_totalAcquisition = latestEntry.totalAcquisition();
// m_totalReturn = latestEntry.totalReturn();
// qCDebug(dcEnergyExperience()) << "Loaded power balance totals. Consumption:" << m_totalConsumption << "Production:" << m_totalProduction << "Acquisition:" << m_totalAcquisition << "Return:" << m_totalReturn;
// foreach (Thing *thing, m_thingManager->configuredThings()) {
// watchThing(thing);
// }
// connect(thingManager, &ThingManager::thingAdded, this, &EnergyManagerImpl::watchThing);
// connect(thingManager, &ThingManager::thingRemoved, this, &EnergyManagerImpl::unwatchThing);
// // Housekeeping on the logger
// foreach (const ThingId &thingId, m_logger->loggedThings()) {
// if (!m_thingManager->findConfiguredThing(thingId)) {
// qCDebug(dcEnergyExperience()) << "Clearing thing logs for unknown thing id" << thingId << "from energy logs.";
// m_logger->removeThingLogs(thingId);
// }
// }
}
Thing *EnergyManagerImpl::rootMeter() const
{
return m_rootMeter;
}
EnergyManager::EnergyError EnergyManagerImpl::setRootMeter(const ThingId &rootMeterId)
{
Thing *rootMeter = m_thingManager->findConfiguredThing(rootMeterId);
if (!rootMeter || !rootMeter->thingClass().interfaces().contains("energymeter")) {
return EnergyErrorInvalidParameter;
}
if (m_rootMeter != rootMeter) {
qCDebug(dcEnergyExperience()) << "Setting root meter to" << rootMeter->name();
m_rootMeter = rootMeter;
QSettings settings(NymeaSettings::settingsPath() + "/energy.conf", QSettings::IniFormat);
settings.setValue("rootMeterThingId", rootMeter->id());
emit rootMeterChanged();
}
return EnergyErrorNoError;
}
double EnergyManagerImpl::currentPowerConsumption() const
{
return m_currentPowerConsumption;
}
double EnergyManagerImpl::currentPowerProduction() const
{
return m_currentPowerProduction;
}
double EnergyManagerImpl::currentPowerAcquisition() const
{
return m_currentPowerAcquisition;
}
double EnergyManagerImpl::currentPowerStorage() const
{
return m_currentPowerStorage;
}
double EnergyManagerImpl::totalConsumption() const
{
return m_totalConsumption;
}
double EnergyManagerImpl::totalProduction() const
{
return m_totalProduction;
}
double EnergyManagerImpl::totalAcquisition() const
{
return m_totalAcquisition;
}
double EnergyManagerImpl::totalReturn() const
{
return m_totalReturn;
}
EnergyLogs *EnergyManagerImpl::logs() const
{
return nullptr;
}
void EnergyManagerImpl::updatePowerBalance()
{
}
void EnergyManagerImpl::logDumpConsumers()
{
}
//void EnergyManagerImpl::watchThing(Thing *thing)
//{
// // If we don't have a root meter yet, we'll be auto-setting the first energymeter that appears.
// // It may be changed by the user through an API call later.
// if (!m_rootMeter && thing->thingClass().interfaces().contains("energymeter")) {
// setRootMeter(thing->id());
// }
// qCDebug(dcEnergyExperience()) << "Watching thing:" << thing->name();
// // React on things that require us updating the power balance
// if (thing->thingClass().interfaces().contains("energymeter")
// || thing->thingClass().interfaces().contains("smartmeterproducer")
// || thing->thingClass().interfaces().contains("energystorage")) {
// connect(thing, &Thing::stateValueChanged, this, [=](const StateTypeId &stateTypeId){
// if (thing->thingClass().getStateType(stateTypeId).name() == "currentPower") {
// m_balanceUpdateTimer.start();
// }
// });
// }
// // React on things that need to be logged
// if (thing->thingClass().interfaces().contains("energymeter")
// || thing->thingClass().interfaces().contains("smartmeterconsumer")
// || thing->thingClass().interfaces().contains("smartmeterproducer")
// || thing->thingClass().interfaces().contains("energystorage")) {
// // Initialize caches used to calculate diffs
// ThingPowerLogEntry entry = m_logger->latestLogEntry(EnergyLogs::SampleRateAny, {thing->id()});
// ThingPowerLogEntry stateEntry = m_logger->cachedThingEntry(thing->id());
// m_powerBalanceTotalEnergyConsumedCache[thing] = stateEntry.totalConsumption();
// m_powerBalanceTotalEnergyProducedCache[thing] = stateEntry.totalProduction();
// m_thingsTotalEnergyConsumedCache[thing] = qMakePair<double, double>(stateEntry.totalConsumption(), entry.totalConsumption());
// m_thingsTotalEnergyProducedCache[thing] = qMakePair<double, double>(stateEntry.totalProduction(), entry.totalProduction());
// qCDebug(dcEnergyExperience()) << "Loaded thing power totals for" << thing->name() << "Consumption:" << entry.totalConsumption() << "Production:" << entry.totalProduction() << "Last thing state consumption:" << stateEntry.totalConsumption() << "production:" << stateEntry.totalProduction();
// connect(thing, &Thing::stateValueChanged, this, [=](const StateTypeId &stateTypeId, const QVariant &/*value*/){
// if (QStringList({"currentPower", "totalEnergyConsumed", "totalEnergyProduced"}).contains(thing->thingClass().getStateType(stateTypeId).name())) {
// // We'll be keeping our own counters, starting from 0 at the time they're added to nymea and increasing with the things counters.
// // This way we'll have proper logs even if the thing counter is reset (some things may reset their counter on power loss, factory reset etc)
// // and also won't start with huge values if the thing has been counting for a while and only added to nymea later on
// // Consumption
// double oldThingConsumptionState = m_thingsTotalEnergyConsumedCache.value(thing).first;
// double oldThingConsumptionInternal = m_thingsTotalEnergyConsumedCache.value(thing).second;
// double newThingConsumptionState = thing->stateValue("totalEnergyConsumed").toDouble();
// // For the very first cycle (oldConsumption is 0) we'll sync up on the meter, without actually adding it to our diff
// if (oldThingConsumptionState == 0 && newThingConsumptionState != 0) {
// qInfo(dcEnergyExperience()) << "Don't have a consumption counter for" << thing->name() << "Synching internal counters to initial value:" << newThingConsumptionState;
// oldThingConsumptionState = newThingConsumptionState;
// }
// // If the thing's meter has been reset in the meantime (newConsumption < oldConsumption) we'll sync down, taking the whole diff from 0 to new value
// if (newThingConsumptionState < oldThingConsumptionState) {
// qCInfo(dcEnergyExperience()) << "Thing meter for" << thing->name() << "seems to have been reset. Re-synching internal consumption counter.";
// oldThingConsumptionState = newThingConsumptionState;
// }
// double consumptionDiff = newThingConsumptionState - oldThingConsumptionState;
// double newThingConsumptionInternal = oldThingConsumptionInternal + consumptionDiff;
// m_thingsTotalEnergyConsumedCache[thing] = qMakePair<double, double>(newThingConsumptionState, newThingConsumptionInternal);
// // Production
// double oldThingProductionState = m_thingsTotalEnergyProducedCache.value(thing).first;
// double oldThingProductionInternal = m_thingsTotalEnergyProducedCache.value(thing).second;
// double newThingProductionState = thing->stateValue("totalEnergyProduced").toDouble();
// // For the very first cycle (oldProductino is 0) we'll sync up on the meter, without actually adding it to our diff
// if (oldThingProductionState == 0 && newThingProductionState != 0) {
// qInfo(dcEnergyExperience()) << "Don't have a production counter for" << thing->name() << "Synching internal counter to initial value:" << newThingProductionState;
// oldThingProductionState = newThingProductionState;
// }
// // If the thing's meter has been reset in the meantime (newProduction < oldProduction) we'll sync down, taking the whole diff from 0 to new value
// if (newThingProductionState < oldThingProductionState) {
// qCInfo(dcEnergyExperience()) << "Thing meter for" << thing->name() << "seems to have been reset. Re-synching internal production counter.";
// oldThingProductionState = newThingProductionState;
// }
// double productionDiff = newThingProductionState - oldThingProductionState;
// double newThingProductionInternal = oldThingProductionInternal + productionDiff;
// m_thingsTotalEnergyProducedCache[thing] = qMakePair<double, double>(newThingProductionState, newThingProductionInternal);
// // Write to log
// qCDebug(dcEnergyExperience()) << "Logging thing" << thing->name() << "total consumption:" << newThingConsumptionInternal << "production:" << newThingProductionInternal;
// m_logger->logThingPower(thing->id(), thing->state("currentPower").value().toDouble(), newThingConsumptionInternal, newThingProductionInternal);
// // Cache the thing state values in case nymea is restarted
// m_logger->cacheThingEntry(thing->id(), newThingConsumptionState, newThingProductionState);
// }
// });
// }
//}
//void EnergyManagerImpl::unwatchThing(const ThingId &thingId)
//{
// if (m_rootMeter && m_rootMeter->id() == thingId) {
// m_rootMeter = nullptr;
// emit rootMeterChanged();
// }
// m_logger->removeThingLogs(thingId);
//}
//void EnergyManagerImpl::updatePowerBalance()
//{
// double currentPowerAcquisition = 0;
// if (m_rootMeter) {
// currentPowerAcquisition = m_rootMeter->stateValue("currentPower").toDouble();
// double oldAcquisition = m_powerBalanceTotalEnergyConsumedCache.value(m_rootMeter);
// double newAcquisition = m_rootMeter->stateValue("totalEnergyConsumed").toDouble();
// // For the very first cycle (oldAcquisition is 0) we'll sync up on the meter values without actually adding them to our balance.
// if (oldAcquisition == 0) {
// oldAcquisition = newAcquisition;
// }
// // If the root meter has been reset in the meantime (newConsumption < oldConsumption) we'll sync down, taking the whole diff from 0 to new value
// if (newAcquisition < oldAcquisition) {
// qCInfo(dcEnergyExperience()) << "Root meter seems to have been reset. Re-synching internal consumption counter.";
// oldAcquisition = newAcquisition;
// }
// qCDebug(dcEnergyExperience()) << "Root meter total consumption: Previous value:" << oldAcquisition << "New value:" << newAcquisition << "Diff:" << (newAcquisition -oldAcquisition);
// m_totalAcquisition += newAcquisition - oldAcquisition;
// m_powerBalanceTotalEnergyConsumedCache[m_rootMeter] = newAcquisition;
// double oldReturn = m_powerBalanceTotalEnergyProducedCache.value(m_rootMeter);
// double newReturn = m_rootMeter->stateValue("totalEnergyProduced").toDouble();
// // For the very first cycle (oldReturn is 0) we'll sync up on the meter values without actually adding them to our balance.
// if (oldReturn == 0) {
// oldReturn = newReturn;
// }
// if (newReturn < oldReturn) {
// qCInfo(dcEnergyExperience()) << "Root meter seems to have been reset. Re-synching internal production counter.";
// oldReturn = newReturn;
// }
// qCDebug(dcEnergyExperience()) << "Root meter total production: Previous value:" << oldReturn << "New value:" << newReturn << "Diff:" << (newReturn - oldReturn);
// m_totalReturn += newReturn - oldReturn;
// m_powerBalanceTotalEnergyProducedCache[m_rootMeter] = newReturn;
// }
// double currentPowerProduction = 0;
// foreach (Thing* thing, m_thingManager->configuredThings().filterByInterface("smartmeterproducer")) {
// currentPowerProduction += thing->stateValue("currentPower").toDouble();
// double oldProduction = m_powerBalanceTotalEnergyProducedCache.value(thing);
// double newProduction = thing->stateValue("totalEnergyProduced").toDouble();
// // For the very first cycle (oldProduction is 0) we'll sync up on the producer values without actually adding them to our balance.
// if (oldProduction == 0) {
// oldProduction = newProduction;
// }
// if (newProduction < oldProduction) {
// oldProduction = newProduction;
// }
// qCDebug(dcEnergyExperience()) << "Producer" << thing->name() << "total production: Previous value:" << oldProduction << "New value:" << newProduction << "Diff:" << (newProduction - oldProduction);
// m_totalProduction += newProduction - oldProduction;
// m_powerBalanceTotalEnergyProducedCache[thing] = newProduction;
// }
// double currentPowerStorage = 0;
// double totalFromStorage = 0;
// foreach (Thing *thing, m_thingManager->configuredThings().filterByInterface("energystorage")) {
// currentPowerStorage += thing->stateValue("currentPower").toDouble();
// double oldProduction = m_powerBalanceTotalEnergyProducedCache.value(thing);
// double newProduction = thing->stateValue("totalEnergyProduced").toDouble();
// // For the very first cycle (oldProdction is 0) we'll sync up on the meter values without actually adding them to our balance.
// if (oldProduction == 0) {
// oldProduction = newProduction;
// }
// if (newProduction < oldProduction) {
// oldProduction = newProduction;
// }
// qCDebug(dcEnergyExperience()) << "Storage" << thing->name() << "total storage: Previous value:" << oldProduction << "New value:" << newProduction << "Diff:" << (newProduction - oldProduction);
// totalFromStorage += newProduction - oldProduction;
// m_powerBalanceTotalEnergyProducedCache[thing] = newProduction;
// }
// double currentPowerConsumption = currentPowerAcquisition + qAbs(qMin(0.0, currentPowerProduction)) - currentPowerStorage;
// m_totalConsumption = m_totalAcquisition + m_totalProduction + totalFromStorage - m_totalReturn;
// qCDebug(dcEnergyExperience()).noquote().nospace() << "Power balance: " << "🔥: " << currentPowerConsumption << " W, 🌞: " << currentPowerProduction << " W, 💵: " << currentPowerAcquisition << " W, 🔋: " << currentPowerStorage << " W. Totals: 🔥: " << m_totalConsumption << " kWh, 🌞: " << m_totalProduction << " kWh, 💵↓: " << m_totalAcquisition << " kWh, 💵↑: " << m_totalReturn << " kWh";
// if (currentPowerAcquisition != m_currentPowerAcquisition
// || currentPowerConsumption != m_currentPowerConsumption
// || currentPowerProduction != m_currentPowerProduction
// || currentPowerStorage != m_currentPowerStorage) {
// m_currentPowerAcquisition = currentPowerAcquisition;
// m_currentPowerProduction = currentPowerProduction;
// m_currentPowerConsumption = currentPowerConsumption;
// m_currentPowerStorage = currentPowerStorage;
// emit powerBalanceChanged();
// m_logger->logPowerBalance(m_currentPowerConsumption, m_currentPowerProduction, m_currentPowerAcquisition, m_currentPowerStorage, m_totalConsumption, m_totalProduction, m_totalAcquisition, m_totalReturn);
// }
//}
//void EnergyManagerImpl::logDumpConsumers()
//{
// foreach (Thing *consumer, m_thingManager->configuredThings().filterByInterface("smartmeterconsumer")) {
// qCDebug(dcEnergyExperience()).nospace().noquote() << consumer->name() << ": " << (consumer->stateValue("currentPower").toDouble() / 230) << "A (" << consumer->stateValue("currentPower").toDouble() << "W)";
// }
//}