powersync-plugins/unipi/devicepluginunipi.cpp

828 lines
39 KiB
C++

/* * * * * * * * * * * * * * * * * * * * * * * * * * * * * * * * * * * * * *
* *
* Copyright (C) 2017 Bernhard Trinnes <bernhard.trinnes@guh.io> *
* Copyright (C) 2018 Simon Stürz <simon.stuerz@guh.io> *
* *
* This file is part of nymea. *
* *
* This library is free software; you can redistribute it and/or *
* modify it under the terms of the GNU Lesser General Public *
* License as published by the Free Software Foundation; either *
* version 2.1 of the License, or (at your option) any later version. *
* *
* This library 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 *
* Lesser General Public License for more details. *
* *
* You should have received a copy of the GNU Lesser General Public *
* License along with this library; If not, see *
* <http://www.gnu.org/licenses/>. *
* *
* * * * * * * * * * * * * * * * * * * * * * * * * * * * * * * * * * * * * */
#include "devicepluginunipi.h"
#include "plugininfo.h"
#include <QJsonDocument>
DevicePluginUniPi::DevicePluginUniPi()
{
}
DevicePluginUniPi::~DevicePluginUniPi()
{
hardwareManager()->pluginTimerManager()->unregisterTimer(m_refreshTimer);
}
void DevicePluginUniPi::init()
{
}
DeviceManager::DeviceSetupStatus DevicePluginUniPi::setupDevice(Device *device)
{
connectToEvok();
if(myDevices().empty()) {
m_refreshTimer = hardwareManager()->pluginTimerManager()->registerTimer(60);
connect(m_refreshTimer, &PluginTimer::timeout, this, &DevicePluginUniPi::onRefreshTimer);
}
if (device->deviceClassId() == relayOutputDeviceClassId) {
m_usedRelais.insert(device->paramValue(relayOutputDeviceNumberParamTypeId).toString(), device);
return DeviceManager::DeviceSetupStatusSuccess;
}
if (device->deviceClassId() == digitalOutputDeviceClassId) {
m_usedDigitalOutputs.insert(device->paramValue(digitalOutputDeviceNumberParamTypeId).toString(), device);
return DeviceManager::DeviceSetupStatusSuccess;
}
if (device->deviceClassId() == digitalInputDeviceClassId) {
m_usedDigitalInputs.insert(device->paramValue(digitalInputDeviceNumberParamTypeId).toString(), device);
requestAllData();
return DeviceManager::DeviceSetupStatusSuccess;
}
if (device->deviceClassId() == analogInputDeviceClassId) {
m_usedAnalogInputs.insert(device->paramValue(analogInputDeviceInputNumberParamTypeId).toString(), device);
requestAllData();
return DeviceManager::DeviceSetupStatusSuccess;
}
if (device->deviceClassId() == analogOutputDeviceClassId) {
m_usedAnalogOutputs.insert(device->paramValue(analogOutputDeviceOutputNumberParamTypeId).toString(), device);
return DeviceManager::DeviceSetupStatusSuccess;
}
if (device->deviceClassId() == blindDeviceClassId) {
if (device->paramValue(blindDeviceOutputTypeOpenParamTypeId) == GpioType::Relay) {
m_usedRelais.insert(device->paramValue(blindDeviceOutputOpenParamTypeId).toString(), device);
} else if (device->paramValue(blindDeviceOutputTypeOpenParamTypeId) == GpioType::DigitalOutput) {
m_usedDigitalOutputs.insert(device->paramValue(blindDeviceOutputOpenParamTypeId).toString(), device);
}
if (device->paramValue(blindDeviceOutputTypeCloseParamTypeId) == GpioType::Relay) {
m_usedRelais.insert(device->paramValue(blindDeviceOutputCloseParamTypeId).toString(), device);
} else if (device->paramValue(blindDeviceOutputTypeOpenParamTypeId) == GpioType::DigitalOutput) {
m_usedDigitalOutputs.insert(device->paramValue(blindDeviceOutputCloseParamTypeId).toString(), device);
}
return DeviceManager::DeviceSetupStatusSuccess;
}
if (device->deviceClassId() == lightDeviceClassId) {
if (device->paramValue(lightDeviceOutputTypeParamTypeId) == GpioType::Relay) {
m_usedRelais.insert(device->paramValue(lightDeviceOutputParamTypeId).toString(), device);
} else if (device->paramValue(lightDeviceOutputParamTypeId) == GpioType::DigitalOutput) {
m_usedDigitalOutputs.insert(device->paramValue(lightDeviceOutputParamTypeId).toString(), device);
}
return DeviceManager::DeviceSetupStatusSuccess;
}
if (device->deviceClassId() == dimmerSwitchDeviceClassId) {
m_usedDigitalInputs.insert(device->paramValue(dimmerSwitchDeviceInputNumberParamTypeId).toString(), device);
DimmerSwitch* dimmerSwitch = new DimmerSwitch(this);
connect(dimmerSwitch, &DimmerSwitch::pressed, this, &DevicePluginUniPi::onDimmerSwitchPressed);
connect(dimmerSwitch, &DimmerSwitch::longPressed, this, &DevicePluginUniPi::onDimmerSwitchLongPressed);
connect(dimmerSwitch, &DimmerSwitch::doublePressed, this, &DevicePluginUniPi::onDimmerSwitchDoublePressed);
connect(dimmerSwitch, &DimmerSwitch::dimValueChanged, this, &DevicePluginUniPi::onDimmerSwitchDimValueChanged);
m_dimmerSwitches.insert(dimmerSwitch, device);
return DeviceManager::DeviceSetupStatusSuccess;
}
if (device->deviceClassId() == temperatureSensorDeviceClassId) {
m_usedTemperatureSensors.insert(device->paramValue(temperatureSensorDeviceAddressParamTypeId).toString(), device);
requestAllData();
return DeviceManager::DeviceSetupStatusSuccess;
}
return DeviceManager::DeviceSetupStatusFailure;
}
DeviceManager::DeviceError DevicePluginUniPi::discoverDevices(const DeviceClassId &deviceClassId, const ParamList &params)
{
Q_UNUSED(params);
qSort(m_relais);
qSort(m_digitalOutputs);
qSort(m_digitalInputs);
qSort(m_analogInputs);
qSort(m_analogOutputs);
const DeviceClass deviceClass = deviceManager()->findDeviceClass(deviceClassId);
if (deviceClass.vendorId() == unipiVendorId) {
if (deviceClassId == relayOutputDeviceClassId) {
// Create the list of available relais
QList<DeviceDescriptor> deviceDescriptors;
for (int i = 0; i < m_relais.count(); i++) {
const QString circuit = m_relais.at(i);
// Offer only gpios which arn't in use already
if (m_usedRelais.contains(circuit)){
continue;
}
DeviceDescriptor descriptor(deviceClassId, QString("Relay %1").arg(circuit), circuit);
ParamList parameters;
parameters.append(Param(relayOutputDeviceNumberParamTypeId, circuit));
descriptor.setParams(parameters);
foreach (Device *existingDevice, myDevices()) {
if (existingDevice->paramValue(relayOutputDeviceNumberParamTypeId).toString() == circuit) {
descriptor.setDeviceId(existingDevice->id());
break;
}
}
deviceDescriptors.append(descriptor);
}
emit devicesDiscovered(deviceClassId, deviceDescriptors);
return DeviceManager::DeviceErrorAsync;
}
if (deviceClassId == digitalOutputDeviceClassId) {
// Create the list of available digital outputs
QList<DeviceDescriptor> deviceDescriptors;
for (int i = 0; i < m_digitalOutputs.count(); i++) {
const QString circuit = m_digitalOutputs.at(i);
// Offer only gpios which arn't in use already
if (m_usedDigitalOutputs.contains(circuit)){
continue;
}
DeviceDescriptor descriptor(deviceClassId, QString("Digital output %1").arg(circuit), circuit);
ParamList parameters;
parameters.append(Param(digitalOutputDeviceNumberParamTypeId, circuit));
descriptor.setParams(parameters);
deviceDescriptors.append(descriptor);
}
emit devicesDiscovered(deviceClassId, deviceDescriptors);
return DeviceManager::DeviceErrorAsync;
}
if (deviceClassId == digitalInputDeviceClassId) {
// Create the list of available digital inputs
QList<DeviceDescriptor> deviceDescriptors;
for (int i = 0; i < m_digitalInputs.count(); i++) {
const QString circuit = m_digitalInputs.at(i);
// Offer only digital inputs which arn't in use already
if (m_usedDigitalInputs.contains(circuit)){
continue;
}
DeviceDescriptor descriptor(deviceClassId, QString("Digital input %1").arg(circuit), circuit);
ParamList parameters;
parameters.append(Param(digitalInputDeviceNumberParamTypeId, circuit));
descriptor.setParams(parameters);
deviceDescriptors.append(descriptor);
}
emit devicesDiscovered(deviceClassId, deviceDescriptors);
return DeviceManager::DeviceErrorAsync;
}
if (deviceClassId == analogInputDeviceClassId) {
// Create the list of available digital inputs
QList<DeviceDescriptor> deviceDescriptors;
for (int i = 0; i < m_analogInputs.count(); i++) {
const QString circuit = m_analogInputs.at(i);
// Offer only analog inputs which aren't in use already
if (m_usedAnalogInputs.contains(circuit)){
continue;
}
DeviceDescriptor descriptor(deviceClassId, QString("Analog input %1").arg(circuit), circuit);
ParamList parameters;
parameters.append(Param(analogInputDeviceInputNumberParamTypeId, circuit));
descriptor.setParams(parameters);
deviceDescriptors.append(descriptor);
}
emit devicesDiscovered(deviceClassId, deviceDescriptors);
return DeviceManager::DeviceErrorAsync;
}
if (deviceClassId == analogOutputDeviceClassId) {
// Create the list of available digital inputs
QList<DeviceDescriptor> deviceDescriptors;
for (int i = 0; i < m_analogOutputs.count(); i++) {
const QString circuit = m_analogOutputs.at(i);
// Offer only digital inputs which arn't in use already
if (m_usedAnalogOutputs.contains(circuit)){
continue;
}
DeviceDescriptor descriptor(deviceClassId, QString("Analog Output %1").arg(circuit), circuit);
ParamList parameters;
parameters.append(Param(analogOutputDeviceOutputNumberParamTypeId, circuit));
descriptor.setParams(parameters);
deviceDescriptors.append(descriptor);
}
emit devicesDiscovered(deviceClassId, deviceDescriptors);
return DeviceManager::DeviceErrorAsync;
}
if (deviceClassId == blindDeviceClassId) {
// Create the list of available gpios
QList<DeviceDescriptor> deviceDescriptors;
for (int i = 0; i < (m_relais.count()-1); i++) {
const QString openingCircuit = m_relais.at(i);
// Offer only relais which aren't in use already
if (m_usedRelais.contains(openingCircuit)){
continue;
}
for (int a = (i+1); a < (m_relais.count()); a++) {
const QString closingCircuit = m_relais.at(a);
// Offer only relais which aren't in use already
if (!m_usedRelais.contains(closingCircuit)){
DeviceDescriptor descriptor(deviceClassId, "Blind", QString("Opening relay %1 | Closing relay %2").arg(openingCircuit, closingCircuit));
ParamList parameters;
parameters.append(Param(blindDeviceOutputOpenParamTypeId, openingCircuit));
parameters.append(Param(blindDeviceOutputCloseParamTypeId, closingCircuit));
parameters.append(Param(blindDeviceOutputTypeOpenParamTypeId, GpioType::Relay));
parameters.append(Param(blindDeviceOutputTypeCloseParamTypeId, GpioType::Relay));
descriptor.setParams(parameters);
deviceDescriptors.append(descriptor);
break;
}
}
}
for (int i = 0; i < (m_digitalOutputs.count()-1); i++) {
const QString openingCircuit = m_digitalOutputs.at(i);
// Offer only relais which aren't in use already
if (m_usedDigitalOutputs.contains(openingCircuit)){
continue;
}
for (int a = (i+1); a < (m_digitalOutputs.count()); a++) {
const QString closingCircuit = m_digitalOutputs.at(a);
// Offer only relais which aren't in use already
if (!m_usedDigitalOutputs.contains(closingCircuit)){
DeviceDescriptor descriptor(deviceClassId, "Blind", QString("Opening output %1 | Closing output %2").arg(openingCircuit, closingCircuit));
ParamList parameters;
parameters.append(Param(blindDeviceOutputOpenParamTypeId, openingCircuit));
parameters.append(Param(blindDeviceOutputCloseParamTypeId, closingCircuit));
parameters.append(Param(blindDeviceOutputTypeOpenParamTypeId, GpioType::DigitalOutput));
parameters.append(Param(blindDeviceOutputTypeCloseParamTypeId, GpioType::DigitalOutput));
descriptor.setParams(parameters);
deviceDescriptors.append(descriptor);
break;
}
}
}
emit devicesDiscovered(deviceClassId, deviceDescriptors);
return DeviceManager::DeviceErrorAsync;
}
if (deviceClassId == lightDeviceClassId) {
// Create the list of available gpios
QList<DeviceDescriptor> deviceDescriptors;
for (int i = 0; i < m_relais.count(); i++) {
const QString circuit = m_relais.at(i);
// Offer only gpios which arn't in use already
if (m_usedRelais.contains(circuit)){
continue;
}
DeviceDescriptor descriptor(deviceClassId, "Light", QString("Relay %1").arg(circuit));
ParamList parameters;
parameters.append(Param(lightDeviceOutputParamTypeId, circuit));
parameters.append(Param(lightDeviceOutputTypeParamTypeId, GpioType::Relay));
descriptor.setParams(parameters);
deviceDescriptors.append(descriptor);
}
for (int i = 0; i < m_digitalOutputs.count(); i++) {
const QString circuit = m_digitalOutputs.at(i);
// Offer only gpios which arn't in use already
if (m_usedDigitalOutputs.contains(circuit)){
continue;
}
DeviceDescriptor descriptor(deviceClassId, "Light", QString("Digital output %1").arg(circuit));
ParamList parameters;
parameters.append(Param(lightDeviceOutputParamTypeId, circuit));
parameters.append(Param(lightDeviceOutputTypeParamTypeId, GpioType::DigitalOutput));
descriptor.setParams(parameters);
deviceDescriptors.append(descriptor);
}
emit devicesDiscovered(deviceClassId, deviceDescriptors);
return DeviceManager::DeviceErrorAsync;
}
if (deviceClassId == dimmerSwitchDeviceClassId) {
// Create the list of available digital inputs
QList<DeviceDescriptor> deviceDescriptors;
for (int i = 0; i < m_digitalInputs.count(); i++) {
const QString circuit = m_digitalInputs.at(i);
// Offer only digital inputs which arn't in use already
if (m_usedDigitalInputs.contains(circuit)){
continue;
}
DeviceDescriptor descriptor(deviceClassId, "Dimmer switch", QString("Digital Input %1").arg(circuit));
ParamList parameters;
parameters.append(Param(dimmerSwitchDeviceInputNumberParamTypeId, circuit));
descriptor.setParams(parameters);
deviceDescriptors.append(descriptor);
}
emit devicesDiscovered(deviceClassId, deviceDescriptors);
return DeviceManager::DeviceErrorAsync;
}
if (deviceClassId == temperatureSensorDeviceClassId) {
// Create the list of available temperature sensor
QList<DeviceDescriptor> deviceDescriptors;
for (int i = 0; i < m_temperatureSensors.count(); i++) {
const QString circuit = m_temperatureSensors.at(i);
// Offer only temperature sensors which aren't in use already
if (m_usedTemperatureSensors.contains(circuit)){
continue;
}
DeviceDescriptor descriptor(deviceClassId, "Temperature Sensor", circuit);
ParamList parameters;
parameters.append(Param(temperatureSensorDeviceAddressParamTypeId, circuit));
descriptor.setParams(parameters);
deviceDescriptors.append(descriptor);
}
emit devicesDiscovered(deviceClassId, deviceDescriptors);
return DeviceManager::DeviceErrorAsync;
}
}
return DeviceManager::DeviceErrorDeviceClassNotFound;
}
void DevicePluginUniPi::setOutput(const QString &circuit, bool value)
{
QJsonObject json;
json["cmd"] = "set";
json["dev"] = "relay";
json["circuit"] = circuit;
json["value"] = value;
QJsonDocument doc(json);
QByteArray bytes = doc.toJson(QJsonDocument::Compact);
qCDebug(dcUniPi()) << "Send command" << bytes;
m_webSocket->sendBinaryMessage(bytes);
}
void DevicePluginUniPi::connectToEvok()
{
if ((m_webSocket == NULL) || !m_webSocket) {
int port = configValue(uniPiPluginPortParamTypeId).toInt();
m_webSocket = new QWebSocket();
connect(m_webSocket, &QWebSocket::connected, this, &DevicePluginUniPi::onWebSocketConnected);
connect(m_webSocket, &QWebSocket::disconnected, this, &DevicePluginUniPi::onWebSocketDisconnected);
QUrl url = QUrl("ws://localhost/ws");
url.setPort(port);
qCDebug(dcUniPi()) << "Conneting to:" << url.toString();
m_webSocket->open(url);
} else {
requestAllData();
}
}
void DevicePluginUniPi::deviceRemoved(Device *device)
{
if(device->deviceClassId() == relayOutputDeviceClassId) {
m_usedRelais.remove(device->paramValue(relayOutputDeviceNumberParamTypeId).toString());
} else if(device->deviceClassId() == digitalOutputDeviceClassId) {
m_usedDigitalOutputs.remove(device->paramValue(digitalOutputDeviceNumberParamTypeId).toString());
} else if(device->deviceClassId() == digitalInputDeviceClassId) {
m_usedDigitalInputs.remove(device->paramValue(digitalInputDeviceNumberParamTypeId).toString());
} else if (device->deviceClassId() == analogOutputDeviceClassId) {
m_usedAnalogOutputs.remove(device->paramValue(analogOutputDeviceOutputNumberParamTypeId).toString());
} else if (device->deviceClassId() == analogInputDeviceClassId) {
m_usedAnalogInputs.remove(device->paramValue(analogInputDeviceInputNumberParamTypeId).toString());
} else if (device->deviceClassId() == blindDeviceClassId) {
if (device->paramValue(blindDeviceOutputTypeOpenParamTypeId) == GpioType::Relay) {
m_usedRelais.remove(device->paramValue(blindDeviceOutputOpenParamTypeId).toString());
} else if (device->paramValue(blindDeviceOutputOpenParamTypeId) == GpioType::DigitalOutput) {
m_usedDigitalOutputs.remove(device->paramValue(blindDeviceOutputOpenParamTypeId).toString());
}
if (device->paramValue(blindDeviceOutputTypeCloseParamTypeId) == GpioType::Relay) {
m_usedRelais.remove(device->paramValue(blindDeviceOutputCloseParamTypeId).toString());
} else if (device->paramValue(blindDeviceOutputOpenParamTypeId) == GpioType::DigitalOutput) {
m_usedDigitalOutputs.remove(device->paramValue(blindDeviceOutputCloseParamTypeId).toString());
}
} else if (device->deviceClassId() == lightDeviceClassId) {
if (device->paramValue(lightDeviceOutputTypeParamTypeId) == GpioType::Relay) {
m_usedRelais.remove(device->paramValue(lightDeviceOutputParamTypeId).toString());
} else if (device->paramValue(lightDeviceOutputParamTypeId) == GpioType::DigitalOutput) {
m_usedDigitalOutputs.remove(device->paramValue(lightDeviceOutputParamTypeId).toString());
}
} else if (device->deviceClassId() == dimmerSwitchDeviceClassId) {
m_usedDigitalInputs.remove(device->paramValue(dimmerSwitchDeviceInputNumberParamTypeId).toString());
DimmerSwitch *dimmerSwitch = m_dimmerSwitches.key(device);
m_dimmerSwitches.remove(dimmerSwitch);
dimmerSwitch->deleteLater();
} else if (device->deviceClassId() == temperatureSensorDeviceClassId) {
m_usedTemperatureSensors.remove(device->paramValue(temperatureSensorDeviceAddressParamTypeId).toString());
}
if (myDevices().isEmpty()) {
m_webSocket->close();
m_webSocket->deleteLater();
}
}
DeviceManager::DeviceError DevicePluginUniPi::executeAction(Device *device, const Action &action)
{
if (m_webSocket->state() != QAbstractSocket::ConnectedState)
return DeviceManager::DeviceErrorHardwareNotAvailable;
if (device->deviceClassId() == relayOutputDeviceClassId) {
if (action.actionTypeId() == relayOutputPowerActionTypeId) {
QString relayNumber = device->paramValue(relayOutputDeviceNumberParamTypeId).toString();
int stateValue = action.param(relayOutputPowerActionPowerParamTypeId).value().toInt();
setOutput(relayNumber, stateValue);
return DeviceManager::DeviceErrorNoError;
}
return DeviceManager::DeviceErrorActionTypeNotFound;
}
if (device->deviceClassId() == digitalOutputDeviceClassId) {
if (action.actionTypeId() == digitalOutputPowerActionTypeId) {
QString digitalOutputNumber = device->paramValue(digitalOutputDeviceNumberParamTypeId).toString();
bool stateValue = action.param(digitalOutputPowerActionPowerParamTypeId).value().toBool();
setOutput(digitalOutputNumber, stateValue);
return DeviceManager::DeviceErrorNoError;
}
return DeviceManager::DeviceErrorActionTypeNotFound;
}
if (device->deviceClassId() == analogOutputDeviceClassId) {
if (action.actionTypeId() == analogOutputOutputValueActionTypeId) {
QString analogOutputNumber = device->paramValue(analogOutputDeviceOutputNumberParamTypeId).toString();
double analogValue = action.param(analogOutputOutputValueActionOutputValueParamTypeId).value().toDouble();
QJsonObject json;
json["cmd"] = "set";
json["dev"] = "ao";
json["circuit"] = analogOutputNumber;
json["value"] = analogValue;
QJsonDocument doc(json);
QByteArray bytes = doc.toJson(QJsonDocument::Compact);
qCDebug(dcUniPi()) << "Send command" << bytes;
m_webSocket->sendTextMessage(bytes);
return DeviceManager::DeviceErrorNoError;
}
return DeviceManager::DeviceErrorActionTypeNotFound;
}
if (device->deviceClassId() == blindDeviceClassId) {
QString circuitOpen = device->paramValue(blindDeviceOutputOpenParamTypeId).toString();
QString circuitClose = device->paramValue(blindDeviceOutputCloseParamTypeId).toString();
if (action.actionTypeId() == blindCloseActionTypeId) {
setOutput(circuitOpen, false);
setOutput(circuitClose, true);
return DeviceManager::DeviceErrorNoError;
}
if (action.actionTypeId() == blindOpenActionTypeId) {
setOutput(circuitClose, false);
setOutput(circuitOpen, true);
return DeviceManager::DeviceErrorNoError;
}
if (action.actionTypeId() == blindStopActionTypeId) {
setOutput(circuitOpen, false);
setOutput(circuitClose, false);
return DeviceManager::DeviceErrorNoError;
}
return DeviceManager::DeviceErrorActionTypeNotFound;
}
if (device->deviceClassId() == lightDeviceClassId) {
QString circuit = device->paramValue(lightDeviceOutputParamTypeId).toString();
bool stateValue = action.param(lightPowerActionPowerParamTypeId).value().toBool();
setOutput(circuit, stateValue);
return DeviceManager::DeviceErrorNoError;
}
return DeviceManager::DeviceErrorDeviceClassNotFound;
}
void DevicePluginUniPi::onWebSocketConnected()
{
qCDebug(dcUniPi()) << "WebSocket connected";
connect(m_webSocket, &QWebSocket::textMessageReceived,
this, &DevicePluginUniPi::onWebSocketTextMessageReceived);
requestAllData();
}
void DevicePluginUniPi::onWebSocketDisconnected()
{
qCDebug(dcUniPi()) << "WebSocket disconnected";
}
void DevicePluginUniPi::requestAllData()
{
QJsonObject json;
json["cmd"] = "all";
QJsonDocument doc(json);
QByteArray bytes = doc.toJson();
m_webSocket->sendTextMessage(bytes);
}
void DevicePluginUniPi::onWebSocketTextMessageReceived(const QString &message)
{
QJsonArray array;
QJsonParseError error;
QJsonDocument doc = QJsonDocument::fromJson(message.toUtf8(), &error);
if(error.error != QJsonParseError::NoError) {
qCWarning(dcUniPi) << "failed to parse data" << message << ":" << error.errorString();
return;
}
// check validity of the document
if(!doc.isNull()) {
if(doc.isObject()) {
array.append(doc.object());
} else if (doc.isArray()){
array = doc.array();;
}else {
qCDebug(dcUniPi()) << "Document is not an object nor an array";
}
} else {
qCDebug(dcUniPi()) << "Invalid JSON";
return;
}
for (int levelIndex = 0; levelIndex < array.size(); ++levelIndex) {
QJsonObject obj;
obj = array[levelIndex].toObject();
if (obj["dev"] == "relay") {
qCDebug(dcUniPi()) << "Relay:" << "Circuit:" << obj["circuit"].toString() << "Value:" << obj["value"].toInt() << "Relay Type:" << obj["relay_type"].toString() ;
QString circuit = obj["circuit"].toString();
bool value = obj["value"].toBool();
if ((obj["relay_type"].toString() == "physical") || (obj["relay_type"].toString() == "")) {
if (!m_relais.contains(circuit)) {
//New Device detected
m_relais.append(circuit);
} else {
if (m_usedRelais.contains(circuit)) {
Device *device = m_usedRelais.value(circuit);
if (device->deviceClassId() == relayOutputDeviceClassId) {
device->setStateValue(relayOutputPowerStateTypeId, value);
} else if (device->deviceClassId() == blindDeviceClassId) {
if (circuit == device->paramValue(blindDeviceOutputOpenParamTypeId).toString()) {
if (value) {
if (device->stateValue(blindStatusStateTypeId).toString().contains("stopped")) {
device->setStateValue(blindStatusStateTypeId, "opening");
} else if (device->stateValue(blindStatusStateTypeId).toString().contains("closing")) {
device->setStateValue(blindStatusStateTypeId, "opening");
} else if (device->stateValue(blindStatusStateTypeId).toString().contains("opening")) {
//state unchanged
}
} else {
if (device->stateValue(blindStatusStateTypeId).toString().contains("stopped")) {
// state unchanged
} else if (device->stateValue(blindStatusStateTypeId).toString().contains("closing")) {
// state unchanged
} else if (device->stateValue(blindStatusStateTypeId).toString().contains("opening")) {
device->setStateValue(blindStatusStateTypeId, "stopped");
}
}
}
if (circuit == device->paramValue(blindDeviceOutputCloseParamTypeId).toString()) {
if (value) {
if (device->stateValue(blindStatusStateTypeId).toString().contains("stopped")) {
device->setStateValue(blindStatusStateTypeId, "closing");
} else if (device->stateValue(blindStatusStateTypeId).toString().contains("closing")) {
//state unchanged
} else if (device->stateValue(blindStatusStateTypeId).toString().contains("opening")) {
device->setStateValue(blindStatusStateTypeId, "closing");
}
} else {
if (device->stateValue(blindStatusStateTypeId).toString().contains("stopped")) {
// state unchanged
} else if (device->stateValue(blindStatusStateTypeId).toString().contains("closing")) {
device->setStateValue(blindStatusStateTypeId, "stopped");
} else if (device->stateValue(blindStatusStateTypeId).toString().contains("opening")) {
// state unchanged
}
}
}
} else if (device->deviceClassId() == lightDeviceClassId) {
device->setStateValue(lightPowerStateTypeId, value);
}
}
}
} else if (obj["relay_type"].toString() == "digital") {
if (!m_digitalOutputs.contains(obj["circuit"].toString())){
//New Device detected
m_digitalOutputs.append(obj["circuit"].toString());
} else {
if (m_usedDigitalOutputs.contains(obj["circuit"].toString())) {
Device *device = m_usedDigitalOutputs.value(obj["circuit"].toString());
if (device->deviceClassId() == digitalOutputDeviceClassId) {
device->setStateValue(digitalOutputPowerStateTypeId, obj["value"].toBool());
} else if (device->deviceClassId() == blindDeviceClassId) {
if (circuit == device->paramValue(blindDeviceOutputOpenParamTypeId).toString()) {
if (value && device->stateValue(blindStatusStateTypeId).toString().contains("stopped")) {
device->setStateValue(blindStatusStateTypeId, "opening");
} else if (!value && device->stateValue(blindStatusStateTypeId).toString().contains("opening")) {
device->setStateValue(blindStatusStateTypeId, "stopped");
} else {
qCWarning(dcUniPi()) << "blind" << device << "Output open:" << value << "Status: " << device->stateValue(blindStatusStateTypeId).toString();
device->setStateValue(blindStatusStateTypeId, "stopped");
}
}
if (circuit == device->paramValue(blindDeviceOutputCloseParamTypeId).toString()) {
if (value && device->stateValue(blindStatusStateTypeId).toString().contains("stopped")) {
device->setStateValue(blindStatusStateTypeId, "closing");
} else if (!value && device->stateValue(blindStatusStateTypeId).toString().contains("closing")) {
device->setStateValue(blindStatusStateTypeId, "stopped");
} else {
qCWarning(dcUniPi()) << "blind" << device << "Output close:" << value << "Status: " << device->stateValue(blindStatusStateTypeId).toString();
device->setStateValue(blindStatusStateTypeId, "stopped");
}
}
} else if (device->deviceClassId() == lightDeviceClassId) {
device->setStateValue(lightPowerStateTypeId, obj["value"].toBool());
}
}
}
}
}
if (obj["dev"] == "input") {
qCDebug(dcUniPi()) << "Input:" << obj["dev"].toString() << "Circuit:" << obj["circuit"].toString() << "Value:" << obj["value"].toInt();
if (!m_digitalInputs.contains(obj["circuit"].toString())){
//New Device detected
m_digitalInputs.append(obj["circuit"].toString());
} else {
if (m_usedDigitalInputs.contains(obj["circuit"].toString())) {
bool value = obj["value"].toBool();
Device *device = m_usedDigitalInputs.value(obj["circuit"].toString());
if (device->deviceClassId() == digitalInputDeviceClassId) {
device->setStateValue(digitalInputInputStatusStateTypeId, value);
} else if (device->deviceClassId() == dimmerSwitchDeviceClassId) {
device->setStateValue(dimmerSwitchStatusStateTypeId, value);
DimmerSwitch *dimmerSwitch = m_dimmerSwitches.key(device);
dimmerSwitch->setPower(value);
}
}
}
}
if (obj["dev"] == "ao") {
qCDebug(dcUniPi()) << "Analog Output:" << obj["dev"] << "Circuit:" << obj["circuit"].toString() << "Value:" << obj["value"].toDouble();
if (!m_analogOutputs.contains(obj["circuit"].toString())){
//New Device detected
m_analogOutputs.append(obj["circuit"].toString());
} else {
if (m_usedAnalogOutputs.contains(obj["circuit"].toString())) {
double value = obj["value"].toDouble();
Device *device = m_usedAnalogOutputs.value(obj["circuit"].toString());
if (device->deviceClassId() == analogOutputDeviceClassId) {
device->setStateValue(analogOutputOutputValueStateTypeId, value);
}
}
}
}
if (obj["dev"] == "ai") {
qCDebug(dcUniPi()) << "Analog Input:" << obj["dev"] << "Circuit:" << obj["circuit"].toString() << "Value:" << obj["value"].toDouble();
if (!m_analogInputs.contains(obj["circuit"].toString())){
//New analog output detected
m_analogInputs.append(obj["circuit"].toString());
} else {
if (m_usedAnalogInputs.contains(obj["circuit"].toString())) {
double value = obj["value"].toDouble();
Device *device = m_usedAnalogInputs.value(obj["circuit"].toString());
if (device->deviceClassId() == analogInputDeviceClassId) {
device->setStateValue(analogInputInputValueStateTypeId, value);
}
}
}
}
if (obj["dev"] == "temp") {
qCDebug(dcUniPi()) << "Temperature Sensor:" << obj["typ"].toString() << "Address:" << obj["circuit"].toString() << "Value:" << obj["value"].toDouble() << "Connected:" << !(QVariant(obj["lost"]).toBool());
if (!m_temperatureSensors.contains(obj["circuit"].toString())){
//New temperature sensor detected
m_temperatureSensors.append(obj["circuit"].toString());
} else {
//Updating states of already added temperature sensor
if (m_usedTemperatureSensors.contains(obj["circuit"].toString())) {
double value = obj["value"].toDouble();
bool connected = !(obj["lost"]).toBool();
Device *device = m_usedTemperatureSensors.value(obj["circuit"].toString());
if (device->deviceClassId() == temperatureSensorDeviceClassId) {
device->setStateValue(temperatureSensorTemperatureStateTypeId, value);
device->setStateValue(temperatureSensorConnectedStateTypeId, connected);
}
}
}
}
}
}
void DevicePluginUniPi::onRefreshTimer()
{
connectToEvok();
}
void DevicePluginUniPi::onDimmerSwitchPressed()
{
DimmerSwitch *dimmerSwitch = static_cast<DimmerSwitch *>(sender());
Device *device = m_dimmerSwitches.value(dimmerSwitch);
emit emitEvent(Event(dimmerSwitchPressedEventTypeId, device->id()));
}
void DevicePluginUniPi::onDimmerSwitchLongPressed()
{
DimmerSwitch *dimmerSwitch = static_cast<DimmerSwitch *>(sender());
Device *device = m_dimmerSwitches.value(dimmerSwitch);
emit emitEvent(Event(dimmerSwitchLongPressedEventTypeId, device->id()));
}
void DevicePluginUniPi::onDimmerSwitchDoublePressed()
{
DimmerSwitch *dimmerSwitch = static_cast<DimmerSwitch *>(sender());
Device *device = m_dimmerSwitches.value(dimmerSwitch);
emit emitEvent(Event(dimmerSwitchDoublePressedEventTypeId, device->id()));
}
void DevicePluginUniPi::onDimmerSwitchDimValueChanged(int dimValue)
{
DimmerSwitch *dimmerSwitch = static_cast<DimmerSwitch *>(sender());
Device *device = m_dimmerSwitches.value(dimmerSwitch);
device->setStateValue(dimmerSwitchDimValueStateTypeId, dimValue);
}