void C1Wire::ReportTemperatureHumidity(const std::string& deviceId, const float temperature, const float humidity)
{
if ((temperature == -1000.0) || (humidity == -1000.0))
return;
unsigned char deviceIdByteArray[DEVICE_ID_SIZE]={0};
DeviceIdToByteArray(deviceId,deviceIdByteArray);
uint16_t NodeID = (deviceIdByteArray[0] << 8) | deviceIdByteArray[1];
SendTempHumSensor(NodeID, 255, temperature, round(humidity), "TempHum");
}
bool CDavisLoggerSerial::HandleLoopData(const unsigned char *data, size_t len)
{
const uint8_t *pData=data+1;
#ifndef DEBUG_DAVIS
if (len!=100)
return false;
if (
(data[1]!='L')||
(data[2]!='O')||
(data[3]!='O')||
(data[96]!=0x0a)||
(data[97]!=0x0d)
)
return false;
//bool bIsRevA = (data[4]=='P');
#else
// FILE *fOut=fopen("davisrob.bin","wb+");
// fwrite(data,1,len,fOut);
// fclose(fOut);
unsigned char szBuffer[200];
FILE *fIn=fopen("E:\\davis2.bin","rb+");
//FILE *fIn=fopen("davisrob.bin","rb+");
fread(&szBuffer,1,100,fIn);
fclose(fIn);
pData=szBuffer+1;
bool bIsRevA(szBuffer[4]=='P');
#endif
RBUF tsen;
memset(&tsen,0,sizeof(RBUF));
unsigned char tempIdx=1;
bool bBaroValid=false;
float BaroMeter=0;
bool bInsideTemperatureValid=false;
float InsideTemperature=0;
bool bInsideHumidityValid=false;
int InsideHumidity=0;
bool bOutsideTemperatureValid=false;
float OutsideTemperature=0;
bool bOutsideHumidityValid=false;
int OutsideHumidity=0;
bool bWindDirectionValid=false;
int WindDirection=0;
bool bWindSpeedValid=false;
float WindSpeed=0;
bool bWindSpeedAVR10Valid=false;
float WindSpeedAVR10=0;
bool bUVValid=false;
float UV=0;
//Barometer
if ((pData[7]!=0xFF)&&(pData[8]!=0xFF))
{
bBaroValid=true;
BaroMeter=((unsigned int)((pData[8] << 8) | pData[7])) / 29.53f; //in hPa
}
//Inside Temperature
if ((pData[9]!=0xFF)||(pData[10]!=0x7F))
{
bInsideTemperatureValid=true;
InsideTemperature=((unsigned int)((pData[10] << 8) | pData[9])) / 10.f;
InsideTemperature = (InsideTemperature - 32.0f) * 5.0f / 9.0f;
}
//Inside Humidity
if (pData[11]!=0xFF)
{
InsideHumidity=pData[11];
if (InsideHumidity<101)
bInsideHumidityValid=true;
}
if (bBaroValid&&bInsideTemperatureValid&&bInsideHumidityValid)
{
uint8_t forecastitem = pData[89];
int forecast = 0;
if ((forecastitem & 0x01) == 0x01)
forecast = wsbaroforcast_rain;
else if ((forecastitem & 0x02) == 0x02)
forecast = wsbaroforcast_cloudy;
else if ((forecastitem & 0x04) == 0x04)
forecast = wsbaroforcast_some_clouds;
else if ((forecastitem & 0x08) == 0x08)
forecast = wsbaroforcast_sunny;
else if ((forecastitem & 0x10) == 0x10)
forecast = wsbaroforcast_snow;
SendTempHumBaroSensorFloat(tempIdx++, 255, InsideTemperature, InsideHumidity, BaroMeter, forecast, "THB");
}
//Outside Temperature
if ((pData[12]!=0xFF)||(pData[13]!=0x7F))
{
bOutsideTemperatureValid=true;
OutsideTemperature=((unsigned int)((pData[13] << 8) | pData[12])) / 10.f;
OutsideTemperature = (OutsideTemperature - 32.0f) * 5.0f / 9.0f;
}
//Outside Humidity
if (pData[33]!=0xFF)
{
OutsideHumidity=pData[33];
if (OutsideHumidity<101)
bOutsideHumidityValid=true;
}
if (bOutsideTemperatureValid||bOutsideHumidityValid)
{
if ((bOutsideTemperatureValid)&&(bOutsideHumidityValid))
{
//Temp+hum
SendTempHumSensor(tempIdx++, 255, OutsideTemperature, OutsideHumidity,"Outside TempHum");
}
else if (bOutsideTemperatureValid)
{
//Temp
SendTempSensor(tempIdx++, 255, OutsideTemperature, "Outside Temp");
}
else if (bOutsideHumidityValid)
{
//hum
SendHumiditySensor(tempIdx++, 255, OutsideHumidity, "Outside Humidity");
}
}
tempIdx=10;
//Add Extra Temp/Hum Sensors
int iTmp;
for (int iTmp=0; iTmp<7; iTmp++)
{
bool bTempValid=false;
bool bHumValid=false;
float temp=0;
uint8_t hum=0;
if (pData[18+iTmp]!=0xFF)
{
bTempValid=true;
temp=pData[18+iTmp]-90.0f;
temp = (temp - 32.0f) * 5.0f / 9.0f;
}
if (pData[34+iTmp]!=0xFF)
{
bHumValid=true;
hum=pData[34+iTmp];
}
if ((bTempValid)&&(bHumValid))
{
//Temp+hum
SendTempHumSensor(tempIdx++, 255, temp, hum, "Extra TempHum");
}
else if (bTempValid)
{
//Temp
SendTempSensor(tempIdx++, 255, temp, "Extra Temp");
}
else if (bHumValid)
{
//hum
SendHumiditySensor(tempIdx++, 255, hum, "Extra Humidity");
}
}
tempIdx=20;
//Add Extra Soil Temp Sensors
for (iTmp=0; iTmp<4; iTmp++)
{
bool bTempValid=false;
float temp=0;
if (pData[25+iTmp]!=0xFF)
{
bTempValid=true;
temp=pData[25+iTmp]-90.0f;
temp = (temp - 32.0f) * 5.0f / 9.0f;
}
if (bTempValid)
{
SendTempSensor(tempIdx++, 255, temp, "Soil Temp");
}
}
tempIdx=30;
//Add Extra Leaf Temp Sensors
for (iTmp=0; iTmp<4; iTmp++)
{
bool bTempValid=false;
float temp=0;
if (pData[29+iTmp]!=0xFF)
{
bTempValid=true;
temp=pData[29+iTmp]-90.0f;
temp = (temp - 32.0f) * 5.0f / 9.0f;
}
if (bTempValid)
{
SendTempSensor(tempIdx++, 255, temp, "Leaf Temp");
}
}
//Wind Speed
if (pData[14]!=0xFF)
{
bWindSpeedValid=true;
WindSpeed=(pData[14])*(4.0f/9.0f);
}
//Wind Speed AVR 10 minutes
if (pData[15]!=0xFF)
{
bWindSpeedAVR10Valid=true;
WindSpeedAVR10=(pData[15])*(4.0f/9.0f);
}
//Wind Direction
if ((pData[16]!=0xFF)&&(pData[17]!=0x7F))
{
bWindDirectionValid=true;
WindDirection=((unsigned int)((pData[17] << 8) | pData[16]));
}
if ((bWindSpeedValid)&&(bWindDirectionValid))
{
memset(&tsen,0,sizeof(RBUF));
tsen.WIND.packetlength=sizeof(tsen.WIND)-1;
tsen.WIND.packettype=pTypeWIND;
tsen.WIND.subtype=sTypeWINDNoTemp;
tsen.WIND.battery_level=9;
tsen.WIND.rssi=12;
tsen.WIND.id1=0;
tsen.WIND.id2=1;
int aw=round(WindDirection);
tsen.WIND.directionh=(BYTE)(aw/256);
aw-=(tsen.WIND.directionh*256);
tsen.WIND.directionl=(BYTE)(aw);
tsen.WIND.av_speedh=0;
tsen.WIND.av_speedl=0;
int sw=round(WindSpeed*10.0f);
tsen.WIND.av_speedh=(BYTE)(sw/256);
sw-=(tsen.WIND.av_speedh*256);
tsen.WIND.av_speedl=(BYTE)(sw);
tsen.WIND.gusth=0;
tsen.WIND.gustl=0;
//this is not correct, why no wind temperature? and only chill?
tsen.WIND.chillh=0;
tsen.WIND.chilll=0;
tsen.WIND.temperatureh=0;
tsen.WIND.temperaturel=0;
if (bOutsideTemperatureValid)
{
tsen.WIND.tempsign=(OutsideTemperature>=0)?0:1;
tsen.WIND.chillsign=(OutsideTemperature>=0)?0:1;
int at10=round(abs(OutsideTemperature*10.0f));
tsen.WIND.temperatureh=(BYTE)(at10/256);
tsen.WIND.chillh=(BYTE)(at10/256);
at10-=(tsen.WIND.chillh*256);
tsen.WIND.temperaturel=(BYTE)(at10);
tsen.WIND.chilll=(BYTE)(at10);
}
sDecodeRXMessage(this, (const unsigned char *)&tsen.WIND, NULL, 255);
}
//UV
if (pData[43]!=0xFF)
{
UV=(pData[43])/10.0f;
if (UV<100)
bUVValid=true;
}
if (bUVValid)
{
RBUF tsen;
memset(&tsen,0,sizeof(RBUF));
tsen.UV.packetlength=sizeof(tsen.UV)-1;
tsen.UV.packettype=pTypeUV;
tsen.UV.subtype=sTypeUV1;
tsen.UV.battery_level=9;
tsen.UV.rssi=12;
tsen.UV.id1=0;
tsen.UV.id2=1;
tsen.UV.uv=(BYTE)round(UV*10);
sDecodeRXMessage(this, (const unsigned char *)&tsen.UV, NULL, 255);
}
//Rain Rate
if ((pData[41]!=0xFF)&&(pData[42]!=0xFF))
{
float rainRate=((unsigned int)((pData[42] << 8) | pData[41])) / 100.0f; //inches
rainRate*=25.4f; //mm
}
//Rain Day
if ((pData[50]!=0xFF)&&(pData[51]!=0xFF))
{
float rainDay=((unsigned int)((pData[51] << 8) | pData[50])) / 100.0f; //inches
rainDay*=25.4f; //mm
}
//Rain Year
if ((pData[54]!=0xFF)&&(pData[55]!=0xFF))
{
float rainYear=((unsigned int)((pData[55] << 8) | pData[54])) / 100.0f; //inches
rainYear*=25.4f; //mm
SendRainSensor(1, 255, rainYear, "Rain");
}
//Solar Radiation
if ((pData[44]!=0xFF)&&(pData[45]!=0x7F))
{
unsigned int solarRadiation=((unsigned int)((pData[45] << 8) | pData[44]));//Watt/M2
_tGeneralDevice gdevice;
gdevice.subtype=sTypeSolarRadiation;
gdevice.floatval1=float(solarRadiation);
sDecodeRXMessage(this, (const unsigned char *)&gdevice, NULL, 255);
}
//Soil Moistures
for (int iMoister=0; iMoister<4; iMoister++)
{
if (pData[62+iMoister]!=0xFF)
{
int moister=pData[62+iMoister];
SendMoistureSensor(1 + iMoister, 255, moister, "Moisture");
}
}
//Leaf Wetness
for (int iLeaf=0; iLeaf<4; iLeaf++)
{
if (pData[66+iLeaf]!=0xFF)
{
int leaf_wetness=pData[66+iLeaf];
_tGeneralDevice gdevice;
gdevice.subtype=sTypeLeafWetness;
gdevice.intval1=leaf_wetness;
gdevice.id=1+iLeaf;
sDecodeRXMessage(this, (const unsigned char *)&gdevice, NULL, 255);
}
}
return true;
}
bool CRFLinkBase::ParseLine(const std::string &sLine)
{
m_LastReceivedTime = mytime(NULL);
std::vector<std::string> results;
StringSplit(sLine, ";", results);
if (results.size() < 2)
return false; //not needed
bool bHideDebugLog = (
(sLine.find("PONG") != std::string::npos)||
(sLine.find("PING") != std::string::npos)
);
int RFLink_ID = atoi(results[0].c_str());
if (RFLink_ID != 20)
{
return false; //only accept RFLink->Master messages
}
#ifdef ENABLE_LOGGING
if (!bHideDebugLog)
_log.Log(LOG_NORM, "RFLink: %s", sLine.c_str());
#endif
//std::string Sensor_ID = results[1];
if (results.size() >2)
{
//Status reply
std::string Name_ID = results[2];
if ((Name_ID.find("Nodo RadioFrequencyLink") != std::string::npos) || (Name_ID.find("RFLink Gateway") != std::string::npos))
{
_log.Log(LOG_STATUS, "RFLink: Controller Initialized!...");
WriteInt("10;VERSION;\n"); // 20;3C;VER=1.1;REV=37;BUILD=01;
//Enable DEBUG
//write("10;RFDEBUG=ON;\n");
//Enable Undecoded DEBUG
//write("10;RFUDEBUG=ON;\n");
return true;
}
if (Name_ID.find("VER") != std::string::npos) {
//_log.Log(LOG_STATUS, "RFLink: %s", sLine.c_str());
int versionlo = 0;
int versionhi = 0;
int revision = 0;
int build = 0;
if (results[2].find("VER") != std::string::npos) {
versionhi = RFLinkGetIntStringValue(results[2]);
versionlo = RFLinkGetIntDecStringValue(results[2]);
}
if (results[3].find("REV") != std::string::npos){
revision = RFLinkGetIntStringValue(results[3]);
}
if (results[4].find("BUILD") != std::string::npos) {
build = RFLinkGetIntStringValue(results[4]);
}
_log.Log(LOG_STATUS, "RFLink Detected, Version: %d.%d Revision: %d Build: %d", versionhi, versionlo, revision, build);
std::stringstream sstr;
sstr << revision << "." << build;
m_Version = sstr.str();
mytime(&m_LastHeartbeatReceive); // keep heartbeat happy
mytime(&m_LastHeartbeat); // keep heartbeat happy
m_LastReceivedTime = m_LastHeartbeat;
m_bTXokay = true; // variable to indicate an OK was received
return true;
}
if (Name_ID.find("PONG") != std::string::npos) {
//_log.Log(LOG_STATUS, "RFLink: PONG received!...");
mytime(&m_LastHeartbeatReceive); // keep heartbeat happy
mytime(&m_LastHeartbeat); // keep heartbeat happy
m_LastReceivedTime = m_LastHeartbeat;
m_bTXokay = true; // variable to indicate an OK was received
return true;
}
if (Name_ID.find("OK") != std::string::npos) {
//_log.Log(LOG_STATUS, "RFLink: OK received!...");
mytime(&m_LastHeartbeatReceive); // keep heartbeat happy
mytime(&m_LastHeartbeat); // keep heartbeat happy
m_LastReceivedTime = m_LastHeartbeat;
m_bTXokay = true; // variable to indicate an OK was received
return true;
}
else if (Name_ID.find("CMD UNKNOWN") != std::string::npos) {
_log.Log(LOG_ERROR, "RFLink: Error/Unknown command received!...");
m_bTXokay = true; // variable to indicate an ERROR was received
return true;
}
}
if (results.size() < 4)
return true;
if (results[3].find("ID=") == std::string::npos)
return false; //??
mytime(&m_LastHeartbeatReceive); // keep heartbeat happy
mytime(&m_LastHeartbeat); // keep heartbeat happy
//_log.Log(LOG_STATUS, "RFLink: t1=%d t2=%d", m_LastHeartbeat, m_LastHeartbeatReceive);
m_LastReceivedTime = m_LastHeartbeat;
std::stringstream ss;
unsigned int ID;
ss << std::hex << results[3].substr(3);
ss >> ID;
int Node_ID = (ID & 0xFF00) >> 8;
int Child_ID = ID & 0xFF;
bool bHaveTemp = false; float temp = 0;
bool bHaveHum = false; int humidity = 0;
bool bHaveHumStatus = false; int humstatus = 0;
bool bHaveBaro = false; float baro = 0;
int baroforecast = 0;
bool bHaveRain = false; float raincounter = 0;
bool bHaveLux = false; float lux = 0;
bool bHaveUV = false; float uv = 0;
bool bHaveWindDir = false; int windir = 0;
bool bHaveWindSpeed = false; float windspeed = 0;
bool bHaveWindGust = false; float windgust = 0;
bool bHaveWindTemp = false; float windtemp = 0;
bool bHaveWindChill = false; float windchill = 0;
bool bHaveRGB = false; int rgb = 0;
bool bHaveRGBW = false; int rgbw = 0;
bool bHaveSound = false; int sound = 0;
bool bHaveCO2 = false; int co2 = 0;
bool bHaveBlind = false; int blind = 0;
bool bHaveKWatt = false; float kwatt = 0;
bool bHaveWatt = false; float watt = 0;
bool bHaveDistance = false; float distance = 0;
bool bHaveMeter = false; float meter = 0;
bool bHaveVoltage = false; float voltage = 0;
bool bHaveCurrent = false; float current = 0;
bool bHaveCurrent2 = false; float current2 = 0;
bool bHaveCurrent3 = false; float current3 = 0;
bool bHaveImpedance = false; float impedance = 0;
bool bHaveSwitch = false; int switchunit = 0;
bool bHaveSwitchCmd = false; std::string switchcmd = ""; int switchlevel = 0;
int BatteryLevel = 255;
std::string tmpstr;
int iTemp;
for (size_t ii = 4; ii < results.size(); ii++)
{
if (results[ii].find("TEMP") != std::string::npos)
{
iTemp = RFLinkGetHexStringValue(results[ii]);
bHaveTemp = true;
if ((iTemp & 0x8000) == 0x8000) {
//negative temp
iTemp = -(iTemp & 0xFFF);
}
temp = float(iTemp) / 10.0f;
}
else if (results[ii].find("HUM") != std::string::npos)
{
bHaveHum = true;
humidity = RFLinkGetIntStringValue(results[ii]);
}
else if (results[ii].find("HSTATUS") != std::string::npos)
{
bHaveHumStatus = true;
humstatus = RFLinkGetIntStringValue(results[ii]);
}
else if (results[ii].find("BARO") != std::string::npos)
{
iTemp = RFLinkGetHexStringValue(results[ii]);
bHaveBaro = true;
baro = float(iTemp);
}
else if (results[ii].find("BFORECAST") != std::string::npos)
{
baroforecast = RFLinkGetIntStringValue(results[ii]);
}
else if (results[ii].find("RAIN") != std::string::npos)
{
bHaveRain = true;
iTemp = RFLinkGetHexStringValue(results[ii]);
raincounter = float(iTemp) / 10.0f;
}
else if (results[ii].find("LUX") != std::string::npos)
{
iTemp = RFLinkGetHexStringValue(results[ii]);
bHaveLux = true;
lux = float(iTemp);
}
else if (results[ii].find("UV") != std::string::npos)
{
iTemp = RFLinkGetHexStringValue(results[ii]);
bHaveUV = true;
uv = float(iTemp) /10.0f;
}
else if (results[ii].find("BAT") != std::string::npos)
{
tmpstr = RFLinkGetStringValue(results[ii]);
BatteryLevel = (tmpstr == "OK") ? 100 : 0;
}
else if (results[ii].find("WINDIR") != std::string::npos)
{
bHaveWindDir = true;
windir = RFLinkGetIntStringValue(results[ii]);
}
else if (results[ii].find("WINSP") != std::string::npos)
{
bHaveWindSpeed = true;
iTemp = RFLinkGetHexStringValue(results[ii]); // received value is km/u
windspeed = (float(iTemp) * 0.0277778f); //convert to m/s
}
else if (results[ii].find("WINGS") != std::string::npos)
{
bHaveWindGust = true;
iTemp = RFLinkGetHexStringValue(results[ii]); // received value is km/u
windgust = (float(iTemp) * 0.0277778f); //convert to m/s
}
else if (results[ii].find("WINTMP") != std::string::npos)
{
iTemp = RFLinkGetHexStringValue(results[ii]);
bHaveWindTemp = true;
if ((iTemp & 0x8000) == 0x8000) {
//negative temp
iTemp = -(iTemp & 0xFFF);
}
windtemp = float(iTemp) / 10.0f;
}
else if (results[ii].find("WINCHL") != std::string::npos)
{
iTemp = RFLinkGetHexStringValue(results[ii]);
bHaveWindChill = true;
if ((iTemp & 0x8000) == 0x8000) {
//negative temp
iTemp = -(iTemp & 0xFFF);
}
windchill = float(iTemp) / 10.0f;
}
else if (results[ii].find("SOUND") != std::string::npos)
{
bHaveSound = true;
sound = RFLinkGetIntStringValue(results[ii]);
}
else if (results[ii].find("CO2") != std::string::npos)
{
bHaveCO2 = true;
co2 = RFLinkGetIntStringValue(results[ii]);
}
else if (results[ii].find("RGBW") != std::string::npos)
{
bHaveRGBW = true;
rgbw = RFLinkGetIntStringValue(results[ii]);
}
else if (results[ii].find("RGB") != std::string::npos)
{
bHaveRGB = true;
rgb = RFLinkGetIntStringValue(results[ii]);
}
else if (results[ii].find("BLIND") != std::string::npos)
{
bHaveBlind = true;
blind = RFLinkGetIntStringValue(results[ii]);
}
else if (results[ii].find("KWATT") != std::string::npos)
{
iTemp = RFLinkGetHexStringValue(results[ii]);
bHaveKWatt = true;
kwatt = float(iTemp) / 1000.0f;
}
else if (results[ii].find("WATT") != std::string::npos)
{
iTemp = RFLinkGetHexStringValue(results[ii]);
bHaveWatt = true;
watt = float(iTemp) / 10.0f;
}
else if (results[ii].find("DIST") != std::string::npos)
{
iTemp = RFLinkGetHexStringValue(results[ii]);
bHaveDistance = true;
distance = float(iTemp) / 10.0f;
}
else if (results[ii].find("METER") != std::string::npos)
{
iTemp = RFLinkGetHexStringValue(results[ii]);
bHaveMeter = true;
meter = float(iTemp) / 10.0f;
}
else if (results[ii].find("VOLT") != std::string::npos)
{
iTemp = RFLinkGetHexStringValue(results[ii]);
bHaveVoltage = true;
voltage = float(iTemp) / 10.0f;
}
else if (results[ii].find("CURRENT") != std::string::npos)
{
iTemp = RFLinkGetHexStringValue(results[ii]);
bHaveCurrent = true;
current = float(iTemp) / 10.0f;
}
else if (results[ii].find("CURRENT2") != std::string::npos)
{
iTemp = RFLinkGetHexStringValue(results[ii]);
bHaveCurrent2 = true;
current2 = float(iTemp) / 10.0f;
}
else if (results[ii].find("CURRENT3") != std::string::npos)
{
iTemp = RFLinkGetHexStringValue(results[ii]);
bHaveCurrent3 = true;
current3 = float(iTemp) / 10.0f;
}
else if (results[ii].find("IMPEDANCE") != std::string::npos)
{
iTemp = RFLinkGetHexStringValue(results[ii]);
bHaveCurrent = true;
current = float(iTemp) / 10.0f;
}
else if (results[ii].find("SWITCH") != std::string::npos)
{
bHaveSwitch = true;
switchunit = RFLinkGetHexStringValue(results[ii]);
}
else if (results[ii].find("CMD") != std::string::npos)
{
bHaveSwitchCmd = true;
switchcmd = RFLinkGetStringValue(results[ii]);
}
else if (results[ii].find("SMOKEALERT") != std::string::npos)
{
bHaveSwitch = true;
switchunit = 1;
bHaveSwitchCmd = true;
switchcmd = RFLinkGetStringValue(results[ii]);
}
else if (results[ii].find("CHIME") != std::string::npos)
{
bHaveSwitch = true;
switchunit = 2;
bHaveSwitchCmd = true;
switchcmd = "ON";
}
}
std::string tmp_Name = results[2];
if (bHaveTemp&&bHaveHum&&bHaveBaro)
{
SendTempHumBaroSensor(ID, BatteryLevel, temp, humidity, baro, baroforecast, tmp_Name);
}
else if (bHaveTemp&&bHaveHum)
{
SendTempHumSensor(ID, BatteryLevel, temp, humidity, tmp_Name);
}
else if (bHaveTemp)
{
SendTempSensor(ID, BatteryLevel, temp, tmp_Name);
}
else if (bHaveHum)
{
SendHumiditySensor(ID, BatteryLevel, humidity, tmp_Name);
}
else if (bHaveBaro)
{
SendBaroSensor(Node_ID, Child_ID, BatteryLevel, baro, baroforecast, tmp_Name);
}
if (bHaveLux)
{
SendLuxSensor(Node_ID, Child_ID, BatteryLevel, lux, tmp_Name);
}
if (bHaveUV)
{
SendUVSensor(Node_ID, Child_ID, BatteryLevel, uv, tmp_Name);
}
if (bHaveRain)
{
SendRainSensor(ID, BatteryLevel, float(raincounter), tmp_Name);
}
if (bHaveWindDir && bHaveWindSpeed && bHaveWindGust && bHaveWindChill)
{
SendWind(ID, BatteryLevel, float(windir), windspeed, windgust, windtemp, windchill, bHaveWindTemp, tmp_Name);
}
else if (bHaveWindDir && bHaveWindGust)
{
SendWind(ID, BatteryLevel, float(windir), windspeed, windgust, windtemp, windchill, bHaveWindTemp, tmp_Name);
}
else if (bHaveWindSpeed)
{
SendWind(ID, BatteryLevel, float(windir), windspeed, windgust, windtemp, windchill, bHaveWindTemp, tmp_Name);
}
if (bHaveCO2)
{
SendAirQualitySensor((ID & 0xFF00) >> 8, ID & 0xFF, BatteryLevel, co2, tmp_Name);
}
if (bHaveSound)
{
SendSoundSensor(ID, BatteryLevel, sound, tmp_Name);
}
if (bHaveRGB)
{
//RRGGBB
SendRGBWSwitch(Node_ID, Child_ID, BatteryLevel, rgb, false, tmp_Name);
}
if (bHaveRGBW)
{
//RRGGBBWW
SendRGBWSwitch(Node_ID, Child_ID, BatteryLevel, rgbw, true, tmp_Name);
}
if (bHaveBlind)
{
SendBlindSensor(Node_ID, Child_ID, BatteryLevel, blind, tmp_Name);
}
if (bHaveKWatt&bHaveWatt)
{
SendKwhMeterOldWay(Node_ID, Child_ID, BatteryLevel, watt / 100.0f, kwatt, tmp_Name);
}
else if (bHaveKWatt)
{
SendKwhMeterOldWay(Node_ID, Child_ID, BatteryLevel, watt / 100.0f, kwatt, tmp_Name);
}
else if (bHaveWatt)
{
SendKwhMeterOldWay(Node_ID, Child_ID, BatteryLevel, watt / 100.0f, kwatt, tmp_Name);
}
if (bHaveDistance)
{
SendDistanceSensor(Node_ID, Child_ID, BatteryLevel, distance, tmp_Name);
}
if (bHaveMeter)
{
SendMeterSensor(Node_ID, Child_ID, BatteryLevel, meter, tmp_Name);
}
if (bHaveVoltage)
{
SendVoltageSensor(Node_ID, Child_ID, BatteryLevel, voltage, tmp_Name);
}
if (bHaveCurrent && bHaveCurrent2 && bHaveCurrent3)
{
SendCurrentSensor(ID, BatteryLevel, current, current2, current3, tmp_Name);
}
else if (bHaveCurrent)
{
SendCurrentSensor(ID, BatteryLevel, current, 0, 0, tmp_Name);
}
if (bHaveImpedance)
{
SendPercentageSensor(Node_ID, Child_ID, BatteryLevel, impedance, tmp_Name);
}
if (bHaveSwitch && bHaveSwitchCmd)
{
std::string switchType = results[2];
SendSwitchInt(ID, switchunit, BatteryLevel, switchType, switchcmd, switchlevel);
}
return true;
}
void Meteostick::ParseLine()
{
if (m_bufferpos < 1)
return;
std::string sLine((char*)&m_buffer);
std::vector<std::string> results;
StringSplit(sLine, " ", results);
if (results.size() < 1)
return; //invalid data
switch (m_state)
{
case MSTATE_INIT:
if (sLine.find("# MeteoStick Version") == 0) {
_log.Log(LOG_STATUS, sLine.c_str());
return;
}
if (results[0] == "?")
{
//Turn off filters
write("f0\n");
m_state = MSTATE_FILTERS;
}
return;
case MSTATE_FILTERS:
//Set output to 'computer values'
write("o1\n");
m_state = MSTATE_VALUES;
return;
case MSTATE_VALUES:
#ifdef USE_868_Mhz
//Set listen frequency to 868Mhz
write("m1\n");
#else
//Set listen frequency to 915Mhz
write("m0\n");
#endif
m_state = MSTATE_DATA;
return;
}
if (m_state != MSTATE_DATA)
return;
if (results.size() < 3)
return;
unsigned char rCode = results[0][0];
if (rCode == '#')
return;
//#ifdef _DEBUG
_log.Log(LOG_NORM, sLine.c_str());
//#endif
switch (rCode)
{
case 'B':
//temperature in Celsius, pressure in hPa
if (results.size() >= 3)
{
float temp = static_cast<float>(atof(results[1].c_str()));
float baro = static_cast<float>(atof(results[2].c_str()));
SendTempBaroSensor(0, temp, baro, "Meteostick Temp+Baro");
}
break;
case 'W':
//current wind speed in m / s, wind direction in degrees
if (results.size() >= 5)
{
unsigned char ID = (unsigned char)atoi(results[1].c_str());
if (m_LastOutsideTemp[ID%MAX_IDS] != 12345)
{
float speed = static_cast<float>(atof(results[2].c_str()));
int direction = static_cast<int>(atoi(results[3].c_str()));
SendWindSensor(ID, m_LastOutsideTemp[ID%MAX_IDS], speed, direction, "Wind");
}
}
break;
case 'T':
//temperature in degree Celsius, humidity in percent
if (results.size() >= 5)
{
unsigned char ID = (unsigned char)atoi(results[1].c_str());
float temp = static_cast<float>(atof(results[2].c_str()));
int hum = static_cast<int>(atoi(results[3].c_str()));
SendTempHumSensor(ID, temp, hum, "Outside Temp+Hum");
m_LastOutsideTemp[ID%MAX_IDS] = temp;
m_LastOutsideHum[ID%MAX_IDS] = hum;
}
break;
case 'R':
//Rain
//counter value (value 0 - 255), ticks, 1 tick = 0.2mm or 0.01in
//it only has a small counter, so we should make the total counter ourselfses
if (results.size() >= 4)
{
unsigned char ID = (unsigned char)atoi(results[1].c_str());
int raincntr = atoi(results[2].c_str());
float Rainmm = 0;
if (m_LastRainValue[ID%MAX_IDS] != -1)
{
int cntr_diff = (raincntr - m_LastRainValue[ID%MAX_IDS])&255;
Rainmm = float(cntr_diff);
#ifdef RAIN_IN_MM
//one tick is one mm
Rainmm*=0.2f; //convert to mm;
#else
//one tick is 0.01 inch, we need to convert this also to mm
//Rainmm *= 0.01f; //convert to inch
//Rainmm *= 25.4f; //convert to mm
//or directly
Rainmm *= 0.254;
#endif
}
m_LastRainValue[ID%MAX_IDS] = raincntr;
if (m_ActRainCounter[ID%MAX_IDS] == -1)
{
//Get Last stored Rain counter
float rcounter=GetRainSensorCounter(ID);
m_ActRainCounter[ID%MAX_IDS] = rcounter;
}
m_ActRainCounter[ID%MAX_IDS] += Rainmm;
SendRainSensor(ID, m_ActRainCounter[ID%MAX_IDS], "Rain");
}
break;
case 'S':
//solar radiation, solar radiation in W / qm
if (results.size() >= 4)
{
unsigned char ID = (unsigned char)atoi(results[1].c_str());
float Radiation = static_cast<float>(atof(results[2].c_str()));
SendSolarRadiationSensor(ID, Radiation, "Solar Radiation");
}
break;
case 'U':
//UV index
if (results.size() >= 4)
{
unsigned char ID = (unsigned char)atoi(results[1].c_str());
float UV = static_cast<float>(atof(results[2].c_str()));
SendUVSensor(ID, UV, "UV");
}
break;
case 'L':
//wetness data of a leaf station
//channel number (1 - 4), leaf wetness (0-15)
if (results.size() >= 5)
{
unsigned char ID = (unsigned char)atoi(results[1].c_str());
unsigned char Channel = (unsigned char)atoi(results[2].c_str());
unsigned char Wetness = (unsigned char)atoi(results[3].c_str());
SendLeafWetnessRainSensor(ID, Channel, Wetness, "Leaf Wetness");
}
break;
case 'M':
//soil moisture of a soil station
//channel number (1 - 4), Soil moisture in cbar(0 - 200)
if (results.size() >= 5)
{
unsigned char ID = (unsigned char)atoi(results[1].c_str());
unsigned char Channel = (unsigned char)atoi(results[2].c_str());
unsigned char Moisture = (unsigned char)atoi(results[3].c_str());
SendSoilMoistureSensor(ID, Channel, Moisture, "Soil Moisture");
}
break;
case 'O':
//soil / leaf temperature of a soil / leaf station
//channel number (1 - 4), soil / leaf temperature in degrees Celsius
if (results.size() >= 5)
{
unsigned char ID = (unsigned char)atoi(results[1].c_str());
unsigned char Channel = (unsigned char)atoi(results[2].c_str());
float temp = static_cast<float>(atof(results[3].c_str()));
unsigned char finalID = (ID * 10) + Channel;
SendTempSensor(finalID, temp, "Soil/Leaf Temp");
}
break;
case 'P':
//solar panel power in(0 - 100)
if (results.size() >= 4)
{
unsigned char ID = (unsigned char)atoi(results[1].c_str());
float Percentage = static_cast<float>(atof(results[2].c_str()));
SendPercentage(ID, Percentage, "power of solar panel");
}
break;
default:
_log.Log(LOG_STATUS, "Unknown Type: %c", rCode);
break;
}
}
void CAccuWeather::GetMeterDetails()
{
std::string sResult;
#ifdef DEBUG_AccuWeatherR
sResult=ReadFile("E:\\AccuWeather.json");
#else
std::stringstream sURL;
std::string szLoc = CURLEncode::URLEncode(m_LocationKey);
sURL << "https://dataservice.accuweather.com/currentconditions/v1/" << szLoc << "?apikey=" << m_APIKey << "&details=true";
try
{
bool bret;
std::string szURL = sURL.str();
bret = HTTPClient::GET(szURL, sResult);
if (!bret)
{
_log.Log(LOG_ERROR, "AccuWeather: Error getting http data!");
return;
}
}
catch (...)
{
_log.Log(LOG_ERROR, "AccuWeather: Error getting http data!");
return;
}
#endif
#ifdef DEBUG_AccuWeatherW
SaveString2Disk(sResult, "E:\\AccuWeather.json");
#endif
try
{
Json::Value root;
Json::Reader jReader;
bool ret = jReader.parse(sResult, root);
if (!ret)
{
_log.Log(LOG_ERROR, "AccuWeather: Invalid data received!");
return;
}
if (root.size() < 1)
{
_log.Log(LOG_ERROR, "AccuWeather: Invalid data received!");
return;
}
root = root[0];
if (root["LocalObservationDateTime"].empty())
{
_log.Log(LOG_ERROR, "AccuWeather: Invalid data received, or unknown location!");
return;
}
float temp = 0;
int humidity = 0;
int barometric = 0;
int barometric_forcast = baroForecastNoInfo;
if (!root["Temperature"].empty())
{
temp = root["Temperature"]["Metric"]["Value"].asFloat();
}
if (!root["RelativeHumidity"].empty())
{
humidity = root["RelativeHumidity"].asInt();
}
if (!root["Pressure"].empty())
{
barometric = atoi(root["Pressure"]["Metric"]["Value"].asString().c_str());
if (barometric < 1000)
barometric_forcast = baroForecastRain;
else if (barometric < 1020)
barometric_forcast = baroForecastCloudy;
else if (barometric < 1030)
barometric_forcast = baroForecastPartlyCloudy;
else
barometric_forcast = baroForecastSunny;
if (!root["WeatherIcon"].empty())
{
int forcasticon = atoi(root["WeatherIcon"].asString().c_str());
switch (forcasticon)
{
case 1:
case 2:
case 3:
barometric_forcast = baroForecastSunny;
break;
case 4:
case 5:
case 6:
barometric_forcast = baroForecastCloudy;
break;
case 7:
case 8:
case 9:
case 10:
case 11:
case 20:
case 21:
case 22:
case 23:
case 24:
case 25:
case 26:
case 27:
case 28:
case 29:
case 39:
case 40:
case 41:
case 42:
case 43:
case 44:
barometric_forcast = baroForecastRain;
break;
case 12:
case 13:
case 14:
case 15:
case 16:
case 17:
case 18:
case 19:
barometric_forcast = baroForecastCloudy;
break;
}
}
}
if (barometric != 0)
{
//Add temp+hum+baro device
SendTempHumBaroSensor(1, 255, temp, humidity, static_cast<float>(barometric), barometric_forcast, "THB");
}
else if (humidity != 0)
{
//add temp+hum device
SendTempHumSensor(1, 255, temp, humidity, "TempHum");
}
else
{
//add temp device
SendTempSensor(1, 255, temp, "Temperature");
}
//Wind
if (!root["Wind"].empty())
{
int wind_degrees = -1;
float windspeed_ms = 0;
float windgust_ms = 0;
float wind_temp = temp;
float wind_chill = temp;
if (!root["Wind"]["Direction"].empty())
{
wind_degrees = root["Wind"]["Direction"]["Degrees"].asInt();
}
if (!root["Wind"]["Speed"].empty())
{
windspeed_ms = root["Wind"]["Speed"]["Metric"]["Value"].asFloat() / 3.6f; //km/h to m/s
}
if (!root["WindGust"].empty())
{
if (!root["WindGust"]["Speed"].empty())
{
windgust_ms = root["WindGust"]["Speed"]["Metric"]["Value"].asFloat() / 3.6f; //km/h to m/s
}
}
if (!root["RealFeelTemperature"].empty())
{
wind_chill = root["RealFeelTemperature"]["Metric"]["Value"].asFloat();
}
if (wind_degrees != -1)
{
SendWind(1, 255, wind_degrees, windspeed_ms, windgust_ms, temp, wind_chill, true, "Wind");
}
}
//UV
if (!root["UVIndex"].empty())
{
float UV = static_cast<float>(atof(root["UVIndex"].asString().c_str()));
if ((UV < 16) && (UV >= 0))
{
SendUVSensor(0, 1, 255, UV, "UV");
}
}
//Rain
if (!root["PrecipitationSummary"].empty())
{
if (!root["PrecipitationSummary"]["Precipitation"].empty())
{
float RainCount = static_cast<float>(atof(root["PrecipitationSummary"]["Precipitation"]["Metric"]["Value"].asString().c_str()));
if ((RainCount != -9999.00f) && (RainCount >= 0.00f))
{
RBUF tsen;
memset(&tsen, 0, sizeof(RBUF));
tsen.RAIN.packetlength = sizeof(tsen.RAIN) - 1;
tsen.RAIN.packettype = pTypeRAIN;
tsen.RAIN.subtype = sTypeRAINWU;
tsen.RAIN.battery_level = 9;
tsen.RAIN.rssi = 12;
tsen.RAIN.id1 = 0;
tsen.RAIN.id2 = 1;
tsen.RAIN.rainrateh = 0;
tsen.RAIN.rainratel = 0;
if (!root["PrecipitationSummary"]["PastHour"].empty())
{
float rainrateph = static_cast<float>(atof(root["PrecipitationSummary"]["PastHour"]["Metric"]["Value"].asString().c_str()));
if (rainrateph != -9999.00f)
{
int at10 = round(std::abs(rainrateph*10.0f));
tsen.RAIN.rainrateh = (BYTE)(at10 / 256);
at10 -= (tsen.RAIN.rainrateh * 256);
tsen.RAIN.rainratel = (BYTE)(at10);
}
}
int tr10 = int((float(RainCount)*10.0f));
tsen.RAIN.raintotal1 = 0;
tsen.RAIN.raintotal2 = (BYTE)(tr10 / 256);
tr10 -= (tsen.RAIN.raintotal2 * 256);
tsen.RAIN.raintotal3 = (BYTE)(tr10);
sDecodeRXMessage(this, (const unsigned char *)&tsen.RAIN, NULL, 255);
}
}
}
//Visibility
if (!root["Visibility"].empty())
{
if (!root["Visibility"]["Metric"].empty())
{
float visibility = root["Visibility"]["Metric"]["Value"].asFloat();
if (visibility >= 0)
{
_tGeneralDevice gdevice;
gdevice.subtype = sTypeVisibility;
gdevice.floatval1 = visibility;
sDecodeRXMessage(this, (const unsigned char *)&gdevice, NULL, 255);
}
}
}
//Forecast URL
if (!root["Link"].empty())
{
m_ForecastURL = root["Link"].asString();
}
}
catch (...)
{
_log.Log(LOG_ERROR, "AccuWeather: Error parsing JSon data!");
}
}
void CNest::GetMeterDetails()
{
std::string sResult;
#ifdef DEBUG_NextThermostatR
sResult = ReadFile("E:\\nest.json");
#else
if (m_UserName.size()==0)
return;
if (m_Password.size()==0)
return;
if (m_bDoLogin)
{
if (!Login())
return;
}
std::vector<std::string> ExtraHeaders;
ExtraHeaders.push_back("user-agent:Nest/1.1.0.10 CFNetwork/548.0.4");
ExtraHeaders.push_back("Authorization:Basic " + m_AccessToken);
ExtraHeaders.push_back("X-nl-user-id:" + m_UserID);
ExtraHeaders.push_back("X-nl-protocol-version:1");
//Get Data
std::string sURL = m_TransportURL + NEST_GET_STATUS + m_UserID;
if (!HTTPClient::GET(sURL, ExtraHeaders, sResult))
{
_log.Log(LOG_ERROR, "Nest: Error getting current state!");
m_bDoLogin = true;
return;
}
#endif
#ifdef DEBUG_NextThermostatW
SaveString2Disk(sResult, "E:\\nest.json");
#endif
Json::Value root;
Json::Reader jReader;
if (!jReader.parse(sResult, root))
{
_log.Log(LOG_ERROR, "Nest: Invalid data received!");
m_bDoLogin = true;
return;
}
bool bHaveShared = !root["shared"].empty();
bool bHaveTopaz = !root["topaz"].empty();
if ((!bHaveShared) && (!bHaveTopaz))
{
_log.Log(LOG_ERROR, "Nest: request not successful, restarting..!");
m_bDoLogin = true;
return;
}
//Protect
if (bHaveTopaz)
{
if (root["topaz"].size() < 1)
{
_log.Log(LOG_ERROR, "Nest: request not successful, restarting..!");
m_bDoLogin = true;
return;
}
Json::Value::Members members = root["topaz"].getMemberNames();
if (members.size() < 1)
{
_log.Log(LOG_ERROR, "Nest: request not successful, restarting..!");
m_bDoLogin = true;
return;
}
int SwitchIndex = 1;
for (Json::Value::iterator itDevice = root["topaz"].begin(); itDevice != root["topaz"].end(); ++itDevice)
{
Json::Value device = *itDevice;
std::string devstring = itDevice.key().asString();
if (device["where_id"].empty())
continue;
std::string whereid = device["where_id"].asString();
//lookup name
std::string devName = devstring;
if (!root["where"].empty())
{
for (Json::Value::iterator itWhere = root["where"].begin(); itWhere != root["where"].end(); ++itWhere)
{
Json::Value iwhere = *itWhere;
if (!iwhere["wheres"].empty())
{
for (Json::Value::iterator itWhereNest = iwhere["wheres"].begin(); itWhereNest != iwhere["wheres"].end(); ++itWhereNest)
{
Json::Value iwhereItt = *itWhereNest;
if (!iwhereItt["where_id"].empty())
{
std::string tmpWhereid = iwhereItt["where_id"].asString();
if (tmpWhereid == whereid)
{
devName = iwhereItt["name"].asString();
break;
}
}
}
}
}
}
bool bIAlarm = false;
bool bBool;
if (!device["component_speaker_test_passed"].empty())
{
bBool = device["component_speaker_test_passed"].asBool();
if (!bBool)
bIAlarm = true;
}
if (!device["component_smoke_test_passed"].empty())
{
bBool = device["component_smoke_test_passed"].asBool();
if (!bBool)
bIAlarm = true;
}
if (!device["component_heat_test_passed"].empty())
{
bBool = device["component_heat_test_passed"].asBool();
if (!bBool)
bIAlarm = true;
}
if (!device["component_buzzer_test_passed"].empty())
{
bBool = device["component_buzzer_test_passed"].asBool();
if (!bBool)
bIAlarm = true;
}
if (!device["component_us_test_passed"].empty())
{
bBool = device["component_us_test_passed"].asBool();
if (!bBool)
bIAlarm = true;
}
if (!device["component_temp_test_passed"].empty())
{
bBool = device["component_temp_test_passed"].asBool();
if (!bBool)
bIAlarm = true;
}
if (!device["component_wifi_test_passed"].empty())
{
bBool = device["component_wifi_test_passed"].asBool();
if (!bBool)
bIAlarm = true;
}
if (!device["component_als_test_passed"].empty())
{
bBool = device["component_als_test_passed"].asBool();
if (!bBool)
bIAlarm = true;
}
if (!device["component_co_test_passed"].empty())
{
bBool = device["component_co_test_passed"].asBool();
if (!bBool)
bIAlarm = true;
}
if (!device["component_hum_test_passed"].empty())
{
bBool = device["component_hum_test_passed"].asBool();
if (!bBool)
bIAlarm = true;
}
UpdateSmokeSensor(SwitchIndex, bIAlarm, devName);
SwitchIndex++;
}
}
//Thermostat
if (!bHaveShared)
return;
if (root["shared"].size()<1)
{
if (bHaveTopaz)
return;
_log.Log(LOG_ERROR, "Nest: request not successful, restarting..!");
m_bDoLogin = true;
return;
}
size_t iThermostat = 0;
for (Json::Value::iterator ittStructure = root["structure"].begin(); ittStructure != root["structure"].end(); ++ittStructure)
{
Json::Value nstructure = *ittStructure;
if (!nstructure.isObject())
continue;
std::string StructureID = ittStructure.key().asString();
std::string StructureName = nstructure["name"].asString();
for (Json::Value::iterator ittDevice = nstructure["devices"].begin(); ittDevice != nstructure["devices"].end(); ++ittDevice)
{
std::string devID = (*ittDevice).asString();
if (devID.find("device.")==std::string::npos)
continue;
std::string Serial = devID.substr(7);
if (root["device"].empty())
continue;
if (root["device"][Serial].empty())
continue; //not found !?
if (root["shared"][Serial].empty())
continue; //Nothing shared?
Json::Value ndevice = root["device"][Serial];
if (!ndevice.isObject())
continue;
std::string Name = "Thermostat";
if (!ndevice["where_id"].empty())
{
//Lookup our 'where' (for the Name of the thermostat)
std::string where_id = ndevice["where_id"].asString();
if (!root["where"].empty())
{
if (!root["where"][StructureID].empty())
{
for (Json::Value::iterator ittWheres = root["where"][StructureID]["wheres"].begin(); ittWheres != root["where"][StructureID]["wheres"].end(); ++ittWheres)
{
Json::Value nwheres = *ittWheres;
if (nwheres["where_id"] == where_id)
{
Name = StructureName + " " + nwheres["name"].asString();
break;
}
}
}
}
}
_tNestThemostat ntherm;
ntherm.Serial = Serial;
ntherm.StructureID = StructureID;
ntherm.Name = Name;
m_thermostats[iThermostat] = ntherm;
Json::Value nshared = root["shared"][Serial];
//Setpoint
if (!nshared["target_temperature"].empty())
{
float currentSetpoint = nshared["target_temperature"].asFloat();
SendSetPointSensor((const unsigned char)(iThermostat * 3) + 1, currentSetpoint, Name + " Setpoint");
}
//Room Temperature/Humidity
if (!nshared["current_temperature"].empty())
{
float currentTemp = nshared["current_temperature"].asFloat();
int Humidity = root["device"][Serial]["current_humidity"].asInt();
SendTempHumSensor((iThermostat * 3) + 2, 255, currentTemp, Humidity, Name + " TempHum");
}
// Check if thermostat is currently Heating
if (nshared["can_heat"].asBool() && !nshared["hvac_heater_state"].empty())
{
bool bIsHeating = nshared["hvac_heater_state"].asBool();
UpdateSwitch((unsigned char)(113 + (iThermostat * 3)), bIsHeating, Name + " HeatingOn");
}
// Check if thermostat is currently Cooling
if (nshared["can_cool"].asBool() && !nshared["hvac_ac_state"].empty())
{
bool bIsCooling = nshared["hvac_ac_state"].asBool();
UpdateSwitch((unsigned char)(114 + (iThermostat * 3)), bIsCooling, Name + " CoolingOn");
}
//Away
if (!nstructure["away"].empty())
{
bool bIsAway = nstructure["away"].asBool();
SendSwitch((iThermostat * 3) + 3, 1, 255, bIsAway, 0, Name + " Away");
}
iThermostat++;
}
}
}
void MySensorsBase::SendSensor2Domoticz(_tMySensorNode *pNode, _tMySensorChild *pChild, const _eSetType vType)
{
m_iLastSendNodeBatteryValue = 255;
if (pChild->hasBattery)
{
m_iLastSendNodeBatteryValue = pChild->batValue;
}
int cNode = (pChild->nodeID << 8) | pChild->childID;
int intValue;
float floatValue;
std::string stringValue;
switch (vType)
{
case V_TEMP:
{
float Temp = 0;
pChild->GetValue(V_TEMP, Temp);
_tMySensorChild *pChildHum = FindChildWithValueType(pChild->nodeID, V_HUM);
_tMySensorChild *pChildBaro = FindChildWithValueType(pChild->nodeID, V_PRESSURE);
if (pChildHum && pChildBaro)
{
int Humidity;
float Baro;
bool bHaveHumidity = pChildHum->GetValue(V_HUM, Humidity);
bool bHaveBaro = pChildBaro->GetValue(V_PRESSURE, Baro);
if (bHaveHumidity && bHaveBaro)
{
int forecast = bmpbaroforecast_unknown;
_tMySensorChild *pSensorForecast = FindChildWithValueType(pChild->nodeID, V_FORECAST);
if (pSensorForecast)
{
pSensorForecast->GetValue(V_FORECAST, forecast);
}
if (forecast == bmpbaroforecast_cloudy)
{
if (Baro < 1010)
forecast = bmpbaroforecast_rain;
}
//We are using the TempHumBaro Float type now, convert the forecast
int nforecast = wsbaroforcast_some_clouds;
if (Baro <= 980)
nforecast = wsbaroforcast_heavy_rain;
else if (Baro <= 995)
{
if (Temp > 1)
nforecast = wsbaroforcast_rain;
else
nforecast = wsbaroforcast_snow;
break;
}
else if (Baro >= 1029)
nforecast = wsbaroforcast_sunny;
switch (forecast)
{
case bmpbaroforecast_sunny:
nforecast = wsbaroforcast_sunny;
break;
case bmpbaroforecast_cloudy:
nforecast = wsbaroforcast_cloudy;
break;
case bmpbaroforecast_thunderstorm:
nforecast = wsbaroforcast_heavy_rain;
break;
case bmpbaroforecast_rain:
if (Temp>1)
nforecast = wsbaroforcast_rain;
else
nforecast = wsbaroforcast_snow;
break;
}
SendTempHumBaroSensorFloat(cNode, pChild->batValue, Temp, Humidity, Baro, nforecast, (!pChild->childName.empty()) ? pChild->childName : "TempHumBaro");
}
}
else if (pChildHum) {
int Humidity;
bool bHaveHumidity = pChildHum->GetValue(V_HUM, Humidity);
if (bHaveHumidity)
{
SendTempHumSensor(cNode, pChild->batValue, Temp, Humidity, (!pChild->childName.empty()) ? pChild->childName : "TempHum");
}
}
else
{
SendTempSensor(cNode, pChild->batValue, Temp, (!pChild->childName.empty()) ? pChild->childName : "Temp");
}
}
break;
case V_HUM:
{
_tMySensorChild *pChildTemp = FindChildWithValueType(pChild->nodeID, V_TEMP);
_tMySensorChild *pChildBaro = FindChildWithValueType(pChild->nodeID, V_PRESSURE);
int forecast = bmpbaroforecast_unknown;
_tMySensorChild *pSensorForecast = FindChildWithValueType(pChild->nodeID, V_FORECAST);
if (pSensorForecast)
{
pSensorForecast->GetValue(V_FORECAST, forecast);
}
if (forecast == bmpbaroforecast_cloudy)
{
if (pChildBaro)
{
float Baro;
if (pChildBaro->GetValue(V_PRESSURE, Baro))
{
if (Baro < 1010)
forecast = bmpbaroforecast_rain;
}
}
}
float Temp;
float Baro;
int Humidity;
pChild->GetValue(V_HUM, Humidity);
if (pChildTemp && pChildBaro)
{
bool bHaveTemp = pChildTemp->GetValue(V_TEMP, Temp);
bool bHaveBaro = pChildBaro->GetValue(V_PRESSURE, Baro);
if (bHaveTemp && bHaveBaro)
{
cNode = (pChildTemp->nodeID << 8) | pChildTemp->childID;
//We are using the TempHumBaro Float type now, convert the forecast
int nforecast = wsbaroforcast_some_clouds;
if (Baro <= 980)
nforecast = wsbaroforcast_heavy_rain;
else if (Baro <= 995)
{
if (Temp > 1)
nforecast = wsbaroforcast_rain;
else
nforecast = wsbaroforcast_snow;
break;
}
else if (Baro >= 1029)
nforecast = wsbaroforcast_sunny;
switch (forecast)
{
case bmpbaroforecast_sunny:
nforecast = wsbaroforcast_sunny;
break;
case bmpbaroforecast_cloudy:
nforecast = wsbaroforcast_cloudy;
break;
case bmpbaroforecast_thunderstorm:
nforecast = wsbaroforcast_heavy_rain;
break;
case bmpbaroforecast_rain:
if (Temp > 1)
nforecast = wsbaroforcast_rain;
else
nforecast = wsbaroforcast_snow;
break;
}
SendTempHumBaroSensorFloat(cNode, pChildTemp->batValue, Temp, Humidity, Baro, nforecast, (!pChild->childName.empty()) ? pChild->childName : "TempHumBaro");
}
}
else if (pChildTemp) {
bool bHaveTemp = pChildTemp->GetValue(V_TEMP, Temp);
if (bHaveTemp)
{
cNode = (pChildTemp->nodeID << 8) | pChildTemp->childID;
SendTempHumSensor(cNode, pChildTemp->batValue, Temp, Humidity, (!pChild->childName.empty()) ? pChild->childName : "TempHum");
}
}
else
{
SendHumiditySensor(cNode, pChild->batValue, Humidity);
}
}
break;
case V_PRESSURE:
{
float Baro;
pChild->GetValue(V_PRESSURE, Baro);
_tMySensorChild *pSensorTemp = FindChildWithValueType(pChild->nodeID, V_TEMP);
_tMySensorChild *pSensorHum = FindChildWithValueType(pChild->nodeID, V_HUM);
int forecast = bmpbaroforecast_unknown;
_tMySensorChild *pSensorForecast = FindChildWithValueType(pChild->nodeID, V_FORECAST);
if (pSensorForecast)
{
pSensorForecast->GetValue(V_FORECAST, forecast);
}
if (forecast == bmpbaroforecast_cloudy)
{
if (Baro < 1010)
forecast = bmpbaroforecast_rain;
}
if (pSensorTemp && pSensorHum)
{
float Temp;
int Humidity;
bool bHaveTemp = pSensorTemp->GetValue(V_TEMP, Temp);
bool bHaveHumidity = pSensorHum->GetValue(V_HUM, Humidity);
if (bHaveTemp && bHaveHumidity)
{
cNode = (pSensorTemp->nodeID << 8) | pSensorTemp->childID;
//We are using the TempHumBaro Float type now, convert the forecast
int nforecast = wsbaroforcast_some_clouds;
if (Baro <= 980)
nforecast = wsbaroforcast_heavy_rain;
else if (Baro <= 995)
{
if (Temp > 1)
nforecast = wsbaroforcast_rain;
else
nforecast = wsbaroforcast_snow;
break;
}
else if (Baro >= 1029)
nforecast = wsbaroforcast_sunny;
switch (forecast)
{
case bmpbaroforecast_sunny:
nforecast = wsbaroforcast_sunny;
break;
case bmpbaroforecast_cloudy:
nforecast = wsbaroforcast_cloudy;
break;
case bmpbaroforecast_thunderstorm:
nforecast = wsbaroforcast_heavy_rain;
break;
case bmpbaroforecast_rain:
if (Temp > 1)
nforecast = wsbaroforcast_rain;
else
nforecast = wsbaroforcast_snow;
break;
}
SendTempHumBaroSensorFloat(cNode, pSensorTemp->batValue, Temp, Humidity, Baro, nforecast, (!pChild->childName.empty()) ? pChild->childName : "TempHumBaro");
}
}
else
SendBaroSensor(pChild->nodeID, pChild->childID, pChild->batValue, Baro, forecast);
}
break;
case V_TRIPPED:
// Tripped status of a security sensor. 1 = Tripped, 0 = Untripped
if (pChild->GetValue(vType, intValue))
UpdateSwitch(pChild->nodeID, pChild->childID, (intValue == 1), 100, "Security Sensor");
break;
case V_ARMED:
//Armed status of a security sensor. 1 = Armed, 0 = Bypassed
if (pChild->GetValue(vType, intValue))
UpdateSwitch(pChild->nodeID, pChild->childID, (intValue == 1), 100, "Security Sensor");
break;
case V_LOCK_STATUS:
//Lock status. 1 = Locked, 0 = Unlocked
if (pChild->GetValue(vType, intValue))
UpdateSwitch(pChild->nodeID, pChild->childID, (intValue == 1), 100, "Lock Sensor");
break;
case V_STATUS:
// Light status. 0 = off 1 = on
if (pChild->GetValue(vType, intValue))
UpdateSwitch(pChild->nodeID, pChild->childID, (intValue != 0), 100, "Light");
break;
case V_SCENE_ON:
if (pChild->GetValue(vType, intValue))
UpdateSwitch(pChild->nodeID, pChild->childID + intValue, true, 100, "Scene");
break;
case V_SCENE_OFF:
if (pChild->GetValue(vType, intValue))
UpdateSwitch(pChild->nodeID, pChild->childID + intValue, false, 100, "Scene");
break;
case V_PERCENTAGE:
// Dimmer value. 0 - 100 %
if (pChild->GetValue(vType, intValue))
{
int level = intValue;
UpdateSwitch(pChild->nodeID, pChild->childID, (level != 0), level, "Light");
}
break;
case V_RGB:
//RRGGBB
if (pChild->GetValue(vType, intValue))
SendRGBWSwitch(pChild->nodeID, pChild->childID, pChild->batValue, intValue, false, (!pChild->childName.empty()) ? pChild->childName : "RGB Light");
break;
case V_RGBW:
//RRGGBBWW
if (pChild->GetValue(vType, intValue))
SendRGBWSwitch(pChild->nodeID, pChild->childID, pChild->batValue, intValue, true, (!pChild->childName.empty()) ? pChild->childName : "RGBW Light");
break;
case V_UP:
case V_DOWN:
case V_STOP:
if (pChild->GetValue(vType, intValue))
SendBlindSensor(pChild->nodeID, pChild->childID, pChild->batValue, intValue, (!pChild->childName.empty()) ? pChild->childName : "Blinds/Window");
break;
case V_LIGHT_LEVEL:
if (pChild->GetValue(vType, floatValue))
{
_tLightMeter lmeter;
lmeter.id1 = 0;
lmeter.id2 = 0;
lmeter.id3 = 0;
lmeter.id4 = pChild->nodeID;
lmeter.dunit = pChild->childID;
lmeter.fLux = floatValue;
lmeter.battery_level = pChild->batValue;
if (pChild->hasBattery)
lmeter.battery_level = pChild->batValue;
sDecodeRXMessage(this, (const unsigned char *)&lmeter);
}
break;
case V_LEVEL:
if ((pChild->presType == S_DUST)|| (pChild->presType == S_AIR_QUALITY))
{
if (pChild->GetValue(vType, intValue))
{
_tAirQualityMeter meter;
meter.len = sizeof(_tAirQualityMeter) - 1;
meter.type = pTypeAirQuality;
meter.subtype = sTypeVoltcraft;
meter.airquality = intValue;
meter.id1 = pChild->nodeID;
meter.id2 = pChild->childID;
sDecodeRXMessage(this, (const unsigned char *)&meter);
}
}
else if (pChild->presType == S_LIGHT_LEVEL)
{
if (pChild->GetValue(vType, intValue))
{
_tLightMeter lmeter;
lmeter.id1 = 0;
lmeter.id2 = 0;
lmeter.id3 = 0;
lmeter.id4 = pChild->nodeID;
lmeter.dunit = pChild->childID;
lmeter.fLux = (float)intValue;
lmeter.battery_level = pChild->batValue;
if (pChild->hasBattery)
lmeter.battery_level = pChild->batValue;
sDecodeRXMessage(this, (const unsigned char *)&lmeter);
}
}
else if (pChild->presType == S_SOUND)
{
if (pChild->GetValue(vType, intValue))
SendSoundSensor(cNode, pChild->batValue, intValue, (!pChild->childName.empty()) ? pChild->childName : "Sound Level");
}
else if (pChild->presType == S_MOISTURE)
{
if (pChild->GetValue(vType, intValue))
{
_tGeneralDevice gdevice;
gdevice.subtype = sTypeSoilMoisture;
gdevice.intval1 = intValue;
gdevice.id = pChild->nodeID;
sDecodeRXMessage(this, (const unsigned char *)&gdevice);
}
}
break;
case V_RAIN:
if (pChild->GetValue(vType, floatValue))
SendRainSensor(cNode, pChild->batValue, floatValue, (!pChild->childName.empty()) ? pChild->childName : "Rain");
break;
case V_WATT:
{
if (pChild->GetValue(vType, floatValue))
{
_tMySensorChild *pSensorKwh = pNode->FindChildWithValueType(pChild->childID, V_KWH);// FindChildWithValueType(pChild->nodeID, V_KWH);
if (pSensorKwh) {
float Kwh;
if (pSensorKwh->GetValue(V_KWH, Kwh))
SendKwhMeter(pSensorKwh->nodeID, pSensorKwh->childID, pSensorKwh->batValue, floatValue / 1000.0f, Kwh, (!pChild->childName.empty()) ? pChild->childName : "Meter");
}
else {
SendWattMeter(pChild->nodeID, pChild->childID, pChild->batValue, floatValue, (!pChild->childName.empty()) ? pChild->childName : "Usage");
}
}
}
break;
case V_KWH:
if (pChild->GetValue(vType, floatValue))
{
_tMySensorChild *pSensorWatt = pNode->FindChildWithValueType(pChild->childID, V_WATT);// FindChildWithValueType(pChild->nodeID, V_WATT);
if (pSensorWatt) {
float Watt;
if (pSensorWatt->GetValue(V_WATT, Watt))
SendKwhMeter(pChild->nodeID, pChild->childID, pChild->batValue, Watt / 1000.0f, floatValue, (!pChild->childName.empty()) ? pChild->childName : "Meter");
}
else {
SendKwhMeter(pChild->nodeID, pChild->childID, pChild->batValue, 0, floatValue, (!pChild->childName.empty()) ? pChild->childName : "Meter");
}
}
break;
case V_DISTANCE:
if (pChild->GetValue(vType, floatValue))
SendDistanceSensor(pChild->nodeID, pChild->childID, pChild->batValue, floatValue);
break;
case V_FLOW:
//Flow of water in meter (for now send as a percentage sensor)
if (pChild->GetValue(vType, floatValue))
SendPercentageSensor(pChild->nodeID, pChild->childID, pChild->batValue, floatValue, (!pChild->childName.empty()) ? pChild->childName : "Water Flow");
break;
case V_VOLUME:
//Water Volume
if (pChild->GetValue(vType, floatValue))
SendMeterSensor(pChild->nodeID, pChild->childID, pChild->batValue, floatValue, (!pChild->childName.empty()) ? pChild->childName : "Water");
break;
case V_VOLTAGE:
if (pChild->GetValue(vType, floatValue))
SendVoltageSensor(pChild->nodeID, pChild->childID, pChild->batValue, floatValue, (!pChild->childName.empty()) ? pChild->childName : "Voltage");
break;
case V_UV:
if (pChild->GetValue(vType, floatValue))
SendUVSensor(pChild->nodeID, pChild->childID, pChild->batValue, floatValue);
break;
case V_IMPEDANCE:
if (pChild->GetValue(vType, floatValue))
SendPercentageSensor(pChild->nodeID, pChild->childID, pChild->batValue, floatValue, (!pChild->childName.empty()) ? pChild->childName : "Impedance");
break;
case V_WEIGHT:
if (pChild->GetValue(vType, floatValue))
{
while (1 == 0);
}
break;
case V_CURRENT:
if (pChild->GetValue(vType, floatValue))
SendCurrentSensor(cNode, pChild->batValue, floatValue, 0, 0, (!pChild->childName.empty()) ? pChild->childName : "Current");
break;
case V_FORECAST:
if (pChild->GetValue(vType, intValue))
{
_tMySensorChild *pSensorBaro = FindChildWithValueType(pChild->nodeID, V_PRESSURE);
if (pSensorBaro)
{
float Baro;
if (pSensorBaro->GetValue(V_PRESSURE, Baro))
{
int forecast = intValue;
if (forecast == bmpbaroforecast_cloudy)
{
if (Baro < 1010)
forecast = bmpbaroforecast_rain;
}
SendBaroSensor(pSensorBaro->nodeID, pSensorBaro->childID, pSensorBaro->batValue, Baro, forecast);
}
}
else
{
if (pChild->GetValue(V_FORECAST, stringValue))
{
std::stringstream sstr;
sstr << pChild->nodeID;
std::string devname = (!pChild->childName.empty()) ? pChild->childName : "Forecast";
m_sql.UpdateValue(m_HwdID, sstr.str().c_str(), pChild->childID, pTypeGeneral, sTypeTextStatus, 12, pChild->batValue, 0, stringValue.c_str(), devname);
}
}
}
break;
case V_WIND:
case V_GUST:
case V_DIRECTION:
MakeAndSendWindSensor(pChild->nodeID, (!pChild->childName.empty()) ? pChild->childName : "Wind");
break;
case V_HVAC_SETPOINT_HEAT:
if (pChild->GetValue(vType, floatValue))
{
SendSetPointSensor(pNode->nodeID, pChild->childID, floatValue, (!pChild->childName.empty()) ? pChild->childName : "Heater Setpoint");
}
break;
}
}
void CWunderground::GetMeterDetails()
{
std::string sResult;
#ifdef DEBUG_WUNDERGROUND
sResult= ReadFile("E:\\wu.json");
#else
std::stringstream sURL;
std::string szLoc = CURLEncode::URLEncode(m_Location);
sURL << "http://api.wunderground.com/api/" << m_APIKey << "/conditions/q/" << szLoc << ".json";
bool bret;
std::string szURL=sURL.str();
bret=HTTPClient::GET(szURL,sResult);
if (!bret)
{
_log.Log(LOG_ERROR,"Wunderground: Error getting http data!");
return;
}
#ifdef DEBUG_WUNDERGROUND2
SaveString2Disk(sResult, "E:\\wu.json");
#endif
#endif
Json::Value root;
Json::Reader jReader;
bool ret=jReader.parse(sResult,root);
if (!ret)
{
_log.Log(LOG_ERROR,"WUnderground: Invalid data received!");
return;
}
bool bValid = true;
if (root["response"].empty() == true)
{
bValid = false;
}
else if (!root["response"]["error"].empty())
{
bValid = false;
if (!root["response"]["error"]["description"].empty())
{
_log.Log(LOG_ERROR, "WUnderground: Error: %s", root["response"]["error"]["description"].asString().c_str());
return;
}
}
else if (root["current_observation"].empty()==true)
{
bValid = false;
return;
}
else if (root["current_observation"]["temp_c"].empty() == true)
{
bValid = false;
}
if (!bValid)
{
_log.Log(LOG_ERROR, "WUnderground: Invalid data received, or no data returned!");
return;
}
/*
std::string tmpstr2 = root.toStyledString();
FILE *fOut = fopen("E:\\underground.json", "wb+");
fwrite(tmpstr2.c_str(), 1, tmpstr2.size(), fOut);
fclose(fOut);
*/
std::string tmpstr;
float temp;
int humidity=0;
int barometric=0;
int barometric_forcast=baroForecastNoInfo;
temp=root["current_observation"]["temp_c"].asFloat();
if (root["current_observation"]["relative_humidity"].empty()==false)
{
tmpstr=root["current_observation"]["relative_humidity"].asString();
size_t pos=tmpstr.find("%");
if (pos==std::string::npos)
{
_log.Log(LOG_ERROR,"WUnderground: Invalid data received!");
return;
}
humidity=atoi(tmpstr.substr(0,pos).c_str());
}
if (root["current_observation"]["pressure_mb"].empty()==false)
{
barometric=atoi(root["current_observation"]["pressure_mb"].asString().c_str());
if (barometric<1000)
barometric_forcast=baroForecastRain;
else if (barometric<1020)
barometric_forcast=baroForecastCloudy;
else if (barometric<1030)
barometric_forcast=baroForecastPartlyCloudy;
else
barometric_forcast=baroForecastSunny;
if (root["current_observation"]["icon"].empty()==false)
{
std::string forcasticon=root["current_observation"]["icon"].asString();
if (forcasticon=="partlycloudy")
{
barometric_forcast=baroForecastPartlyCloudy;
}
else if (forcasticon=="cloudy")
{
barometric_forcast=baroForecastCloudy;
}
else if (forcasticon=="sunny")
{
barometric_forcast=baroForecastSunny;
}
else if (forcasticon=="rain")
{
barometric_forcast=baroForecastRain;
}
}
}
if (barometric!=0)
{
//Add temp+hum+baro device
SendTempHumBaroSensor(1, 255, temp, humidity, static_cast<float>(barometric), barometric_forcast, "THB");
}
else if (humidity!=0)
{
//add temp+hum device
SendTempHumSensor(1, 255, temp, humidity, "TempHum");
}
else
{
//add temp device
SendTempSensor(1, 255, temp, "Temperature");
}
//Wind
int wind_degrees=-1;
float wind_mph=-1;
float wind_gust_mph=-1;
float windspeed_ms=0;
float windgust_ms=0;
float wind_temp=temp;
float wind_chill=temp;
int windgust=1;
float windchill=-1;
if (root["current_observation"]["wind_degrees"].empty()==false)
{
wind_degrees=atoi(root["current_observation"]["wind_degrees"].asString().c_str());
}
if (root["current_observation"]["wind_mph"].empty()==false)
{
if ((root["current_observation"]["wind_mph"] != "N/A") && (root["current_observation"]["wind_mph"] != "--"))
{
float temp_wind_mph = static_cast<float>(atof(root["current_observation"]["wind_mph"].asString().c_str()));
if (temp_wind_mph!=-9999.00f)
{
wind_mph=temp_wind_mph;
//convert to m/s
windspeed_ms=wind_mph*0.44704f;
}
}
}
if (root["current_observation"]["wind_gust_mph"].empty()==false)
{
if ((root["current_observation"]["wind_gust_mph"] != "N/A") && (root["current_observation"]["wind_gust_mph"] != "--"))
{
float temp_wind_gust_mph = static_cast<float>(atof(root["current_observation"]["wind_gust_mph"].asString().c_str()));
if (temp_wind_gust_mph!=-9999.00f)
{
wind_gust_mph=temp_wind_gust_mph;
//convert to m/s
windgust_ms=wind_gust_mph*0.44704f;
}
}
}
if (root["current_observation"]["feelslike_c"].empty()==false)
{
if ((root["current_observation"]["feelslike_c"] != "N/A") && (root["current_observation"]["feelslike_c"] != "--"))
{
wind_chill = static_cast<float>(atof(root["current_observation"]["feelslike_c"].asString().c_str()));
}
}
if (wind_degrees!=-1)
{
RBUF tsen;
memset(&tsen,0,sizeof(RBUF));
tsen.WIND.packetlength=sizeof(tsen.WIND)-1;
tsen.WIND.packettype=pTypeWIND;
tsen.WIND.subtype=sTypeWIND4;
tsen.WIND.battery_level=9;
tsen.WIND.rssi=12;
tsen.WIND.id1=0;
tsen.WIND.id2=1;
float winddir=float(wind_degrees);
int aw=round(winddir);
tsen.WIND.directionh=(BYTE)(aw/256);
aw-=(tsen.WIND.directionh*256);
tsen.WIND.directionl=(BYTE)(aw);
tsen.WIND.av_speedh=0;
tsen.WIND.av_speedl=0;
int sw=round(windspeed_ms*10.0f);
tsen.WIND.av_speedh=(BYTE)(sw/256);
sw-=(tsen.WIND.av_speedh*256);
tsen.WIND.av_speedl=(BYTE)(sw);
tsen.WIND.gusth=0;
tsen.WIND.gustl=0;
int gw=round(windgust_ms*10.0f);
tsen.WIND.gusth=(BYTE)(gw/256);
gw-=(tsen.WIND.gusth*256);
tsen.WIND.gustl=(BYTE)(gw);
//this is not correct, why no wind temperature? and only chill?
tsen.WIND.chillh=0;
tsen.WIND.chilll=0;
tsen.WIND.temperatureh=0;
tsen.WIND.temperaturel=0;
tsen.WIND.tempsign=(wind_temp>=0)?0:1;
int at10=round(std::abs(wind_temp*10.0f));
tsen.WIND.temperatureh=(BYTE)(at10/256);
at10-=(tsen.WIND.temperatureh*256);
tsen.WIND.temperaturel=(BYTE)(at10);
tsen.WIND.chillsign=(wind_temp>=0)?0:1;
at10=round(std::abs(wind_chill*10.0f));
tsen.WIND.chillh=(BYTE)(at10/256);
at10-=(tsen.WIND.chillh*256);
tsen.WIND.chilll=(BYTE)(at10);
sDecodeRXMessage(this, (const unsigned char *)&tsen.WIND, NULL, 255);
}
//UV
if (root["current_observation"].empty() == false)
{
if (root["current_observation"]["UV"].empty() == false)
{
if ((root["current_observation"]["UV"] != "N/A") && (root["current_observation"]["UV"] != "--"))
{
float UV = static_cast<float>(atof(root["current_observation"]["UV"].asString().c_str()));
if ((UV < 16) && (UV >= 0))
{
SendUVSensor(0, 1, 255, UV, "UV");
}
}
}
}
//Rain
if (root["current_observation"]["precip_today_metric"].empty() == false)
{
if ((root["current_observation"]["precip_today_metric"] != "N/A") && (root["current_observation"]["precip_today_metric"] != "--"))
{
float RainCount = static_cast<float>(atof(root["current_observation"]["precip_today_metric"].asString().c_str()));
if ((RainCount != -9999.00f) && (RainCount >= 0.00f))
{
RBUF tsen;
memset(&tsen, 0, sizeof(RBUF));
tsen.RAIN.packetlength = sizeof(tsen.RAIN) - 1;
tsen.RAIN.packettype = pTypeRAIN;
tsen.RAIN.subtype = sTypeRAINWU;
tsen.RAIN.battery_level = 9;
tsen.RAIN.rssi = 12;
tsen.RAIN.id1 = 0;
tsen.RAIN.id2 = 1;
tsen.RAIN.rainrateh = 0;
tsen.RAIN.rainratel = 0;
if (root["current_observation"]["precip_1hr_metric"].empty() == false)
{
if ((root["current_observation"]["precip_1hr_metric"] != "N/A") && (root["current_observation"]["precip_1hr_metric"] != "--"))
{
float rainrateph = static_cast<float>(atof(root["current_observation"]["precip_1hr_metric"].asString().c_str()));
if (rainrateph != -9999.00f)
{
int at10 = round(std::abs(rainrateph*10.0f));
tsen.RAIN.rainrateh = (BYTE)(at10 / 256);
at10 -= (tsen.RAIN.rainrateh * 256);
tsen.RAIN.rainratel = (BYTE)(at10);
}
}
}
int tr10 = int((float(RainCount)*10.0f));
tsen.RAIN.raintotal1 = 0;
tsen.RAIN.raintotal2 = (BYTE)(tr10 / 256);
tr10 -= (tsen.RAIN.raintotal2 * 256);
tsen.RAIN.raintotal3 = (BYTE)(tr10);
sDecodeRXMessage(this, (const unsigned char *)&tsen.RAIN, NULL, 255);
}
}
}
//Visibility
if (root["current_observation"]["visibility_km"].empty() == false)
{
if ((root["current_observation"]["visibility_km"] != "N/A") && (root["current_observation"]["visibility_km"] != "--"))
{
float visibility = static_cast<float>(atof(root["current_observation"]["visibility_km"].asString().c_str()));
if (visibility >= 0)
{
_tGeneralDevice gdevice;
gdevice.subtype = sTypeVisibility;
gdevice.floatval1 = visibility;
sDecodeRXMessage(this, (const unsigned char *)&gdevice, NULL, 255);
}
}
}
//Solar Radiation
if (root["current_observation"]["solarradiation"].empty() == false)
{
if ((root["current_observation"]["solarradiation"] != "N/A") && (root["current_observation"]["solarradiation"] != "--"))
{
float radiation = static_cast<float>(atof(root["current_observation"]["solarradiation"].asString().c_str()));
if (radiation >= 0.0f)
{
_tGeneralDevice gdevice;
gdevice.subtype = sTypeSolarRadiation;
gdevice.floatval1 = radiation;
sDecodeRXMessage(this, (const unsigned char *)&gdevice, NULL, 255);
}
}
}
}
void CNestThermostat::GetMeterDetails()
{
if (m_UserName.size()==0)
return;
if (m_Password.size()==0)
return;
std::string sResult;
if (m_bDoLogin)
{
if (!Login())
return;
}
std::vector<std::string> ExtraHeaders;
ExtraHeaders.push_back("user-agent:Nest/1.1.0.10 CFNetwork/548.0.4");
ExtraHeaders.push_back("Authorization:Basic " + m_AccessToken);
ExtraHeaders.push_back("X-nl-user-id:" + m_UserID);
ExtraHeaders.push_back("X-nl-protocol-version:1");
//Get Data
std::string sURL = m_TransportURL + NEST_GET_STATUS + m_UserID;
if (!HTTPClient::GET(sURL, ExtraHeaders, sResult))
{
_log.Log(LOG_ERROR, "NestThermostat: Error getting current state!");
m_bDoLogin = true;
return;
}
Json::Value root;
Json::Reader jReader;
if (!jReader.parse(sResult, root))
{
_log.Log(LOG_ERROR, "NestThermostat: Invalid data received!");
m_bDoLogin = true;
return;
}
if (root["shared"].empty() == true)
{
_log.Log(LOG_ERROR, "NestThermostat: request not successful, restarting..!");
m_bDoLogin = true;
return;
}
if (root["shared"].size()<1)
{
_log.Log(LOG_ERROR, "NestThermostat: request not successful, restarting..!");
m_bDoLogin = true;
return;
}
Json::Value::Members members = root["shared"].getMemberNames();
if (members.size() < 1)
{
_log.Log(LOG_ERROR, "NestThermostat: request not successful, restarting..!");
m_bDoLogin = true;
return;
}
//Get Serial
m_Serial = *members.begin();
//Get Structure
members = root["structure"].getMemberNames();
if (members.size() < 1)
{
_log.Log(LOG_ERROR, "NestThermostat: request not successful, restarting..!");
m_bDoLogin = true;
return;
}
m_StructureID = *members.begin();
Json::Value vShared = *root["shared"].begin();
//Setpoint
if (!vShared["target_temperature"].empty())
{
float currentSetpoint = vShared["target_temperature"].asFloat();
SendSetPointSensor(1, currentSetpoint, "Room Setpoint");
}
//Room Temperature/Humidity
if (!vShared["current_temperature"].empty())
{
float currentTemp = vShared["current_temperature"].asFloat();
int Humidity = root["device"][m_Serial]["current_humidity"].asInt();
SendTempHumSensor(2, 255, currentTemp, Humidity, "Room TempHum");
}
//Away
Json::Value vStructure = *root["structure"].begin();
if (!vStructure["away"].empty())
{
bool bIsAway = vStructure["away"].asBool();
SendSwitch(3, 1, 255, bIsAway, 0, "Away");
}
}
bool CRFLink::ParseLine(const std::string &sLine)
{
m_LastReceivedTime = mytime(NULL);
std::vector<std::string> results;
StringSplit(sLine, ";", results);
if (results.size() < 2)
return false; //not needed
bool bHideDebugLog = (
(sLine.find("PONG") != std::string::npos)||
(sLine.find("PING") != std::string::npos)
);
int RFLink_ID = atoi(results[0].c_str());
if (RFLink_ID != 20)
{
return false; //only accept RFLink->Master messages
}
#ifdef ENABLE_LOGGING
if (!bHideDebugLog)
_log.Log(LOG_NORM, "RFLink: %s", sLine.c_str());
#endif
//std::string Sensor_ID = results[1];
if (results.size() >2)
{
//Status reply
std::string Name_ID = results[2];
if (Name_ID.find("Nodo RadioFrequencyLink") != std::string::npos)
{
_log.Log(LOG_STATUS, "RFLink: Controller Initialized!...");
//Enable DEBUG
//write("10;RFDEBUG=ON;\n");
//Enable Undecoded DEBUG
//write("10;RFUDEBUG=ON;\n");
return true;
}
if (Name_ID.find("OK") != std::string::npos) {
//_log.Log(LOG_STATUS, "RFLink: OK received!...");
m_bTXokay = true; // variable to indicate an OK was received
return true;
}
}
if (results.size() < 4)
return true;
if (results[3].find("ID=") == std::string::npos)
return false; //??
std::stringstream ss;
unsigned int ID;
ss << std::hex << results[3].substr(3);
ss >> ID;
int Node_ID = (ID & 0xFF00) >> 8;
int Child_ID = ID & 0xFF;
bool bHaveTemp = false; float temp = 0;
bool bHaveHum = false; int humidity = 0;
bool bHaveHumStatus = false; int humstatus = 0;
bool bHaveBaro = false; float baro = 0;
int baroforecast = 0;
bool bHaveRain = false; int raincounter = 0;
bool bHaveLux = false; float lux = 0;
bool bHaveUV = false; float uv = 0;
bool bHaveWindDir = false; int windir = 0;
bool bHaveWindSpeed = false; float windspeed = 0;
bool bHaveWindGust = false; float windgust = 0;
bool bHaveWindTemp = false; float windtemp = 0;
bool bHaveWindChill = false; float windchill = 0;
bool bHaveRGB = false; int rgb = 0;
bool bHaveRGBW = false; int rgbw = 0;
bool bHaveSound = false; int sound = 0;
bool bHaveCO2 = false; int co2 = 0;
bool bHaveBlind = false; int blind = 0;
bool bHaveKWatt = false; float kwatt = 0;
bool bHaveWatt = false; float watt = 0;
bool bHaveDistance = false; float distance = 0;
bool bHaveMeter = false; float meter = 0;
bool bHaveVoltage = false; float voltage = 0;
bool bHaveCurrent = false; float current = 0;
bool bHaveSwitch = false; int switchunit = 0;
bool bHaveSwitchCmd = false; std::string switchcmd = ""; int switchlevel = 0;
int BatteryLevel = 255;
std::string tmpstr;
int iTemp;
for (size_t ii = 4; ii < results.size(); ii++)
{
if (results[ii].find("TEMP") != std::string::npos)
{
iTemp = RFLinkGetHexStringValue(results[ii]);
bHaveTemp = true;
if ((iTemp & 0x8000) == 0x8000) {
//negative temp
iTemp = -(iTemp & 0xFFF);
}
temp = float(iTemp) / 10.0f;
}
else if (results[ii].find("HUM") != std::string::npos)
{
bHaveHum = true;
humidity = RFLinkGetIntStringValue(results[ii]);
}
else if (results[ii].find("HSTATUS") != std::string::npos)
{
bHaveHumStatus = true;
humstatus = RFLinkGetIntStringValue(results[ii]);
}
else if (results[ii].find("BARO") != std::string::npos)
{
iTemp = RFLinkGetHexStringValue(results[ii]);
bHaveBaro = true;
baro = float(iTemp);
}
else if (results[ii].find("BFORECAST") != std::string::npos)
{
baroforecast = RFLinkGetIntStringValue(results[ii]);
}
else if (results[ii].find("RAIN") != std::string::npos)
{
bHaveRain = true;
raincounter = RFLinkGetHexStringValue(results[ii]);
}
else if (results[ii].find("LUX") != std::string::npos)
{
iTemp = RFLinkGetHexStringValue(results[ii]);
bHaveLux = true;
lux = float(iTemp);
}
else if (results[ii].find("UV") != std::string::npos)
{
iTemp = RFLinkGetHexStringValue(results[ii]);
bHaveUV = true;
uv = float(iTemp);
}
else if (results[ii].find("BAT") != std::string::npos)
{
tmpstr = RFLinkGetStringValue(results[ii]);
BatteryLevel = (tmpstr == "OK") ? 100 : 0;
}
else if (results[ii].find("WINDIR") != std::string::npos)
{
bHaveWindDir = true;
windir = RFLinkGetIntStringValue(results[ii]);
}
else if (results[ii].find("WINSP") != std::string::npos)
{
bHaveWindSpeed = true;
iTemp = RFLinkGetHexStringValue(results[ii]);
windspeed = float(iTemp) * 0.0277778f; //convert to m/s
}
else if (results[ii].find("WINGS") != std::string::npos)
{
bHaveWindGust = true;
iTemp = RFLinkGetHexStringValue(results[ii]);
windgust = float(iTemp) * 0.0277778f; //convert to m/s
}
else if (results[ii].find("WINTMP") != std::string::npos)
{
iTemp = RFLinkGetHexStringValue(results[ii]);
bHaveWindTemp = true;
if ((iTemp & 0x8000) == 0x8000) {
//negative temp
iTemp = -(iTemp & 0xFFF);
}
windtemp = float(iTemp) / 10.0f;
}
else if (results[ii].find("WINCHL") != std::string::npos)
{
iTemp = RFLinkGetHexStringValue(results[ii]);
bHaveWindChill = true;
if ((iTemp & 0x8000) == 0x8000) {
//negative temp
iTemp = -(iTemp & 0xFFF);
}
windchill = float(iTemp) / 10.0f;
}
else if (results[ii].find("SOUND") != std::string::npos)
{
bHaveSound = true;
sound = RFLinkGetIntStringValue(results[ii]);
}
else if (results[ii].find("CO2") != std::string::npos)
{
bHaveCO2 = true;
co2 = RFLinkGetIntStringValue(results[ii]);
}
else if (results[ii].find("RGBW") != std::string::npos)
{
bHaveRGBW = true;
rgbw = RFLinkGetIntStringValue(results[ii]);
}
else if (results[ii].find("RGB") != std::string::npos)
{
bHaveRGB = true;
rgb = RFLinkGetIntStringValue(results[ii]);
}
else if (results[ii].find("BLIND") != std::string::npos)
{
bHaveBlind = true;
blind = RFLinkGetIntStringValue(results[ii]);
}
else if (results[ii].find("KWATT") != std::string::npos)
{
iTemp = RFLinkGetHexStringValue(results[ii]);
bHaveKWatt = true;
kwatt = float(iTemp) / 10.0f;
}
else if (results[ii].find("WATT") != std::string::npos)
{
iTemp = RFLinkGetHexStringValue(results[ii]);
bHaveWatt = true;
watt = float(iTemp) / 10.0f;
}
else if (results[ii].find("DIST") != std::string::npos)
{
iTemp = RFLinkGetHexStringValue(results[ii]);
bHaveDistance = true;
distance = float(iTemp) / 10.0f;
}
else if (results[ii].find("METER") != std::string::npos)
{
iTemp = RFLinkGetHexStringValue(results[ii]);
bHaveMeter = true;
meter = float(iTemp) / 10.0f;
}
else if (results[ii].find("VOLT") != std::string::npos)
{
iTemp = RFLinkGetHexStringValue(results[ii]);
bHaveVoltage = true;
voltage = float(iTemp) / 10.0f;
}
else if (results[ii].find("CURRENT") != std::string::npos)
{
iTemp = RFLinkGetHexStringValue(results[ii]);
bHaveCurrent = true;
current = float(iTemp) / 10.0f;
}
else if (results[ii].find("SWITCH") != std::string::npos)
{
bHaveSwitch = true;
switchunit = RFLinkGetHexStringValue(results[ii]);
}
else if (results[ii].find("CMD") != std::string::npos)
{
bHaveSwitchCmd = true;
switchcmd = RFLinkGetStringValue(results[ii]);
}
else if (results[ii].find("SMOKEALERT") != std::string::npos)
{
bHaveSwitch = true;
switchunit = 1;
bHaveSwitchCmd = true;
switchcmd = RFLinkGetStringValue(results[ii]);
}
}
if (bHaveTemp&&bHaveHum&&bHaveBaro)
{
SendTempHumBaroSensor(ID, BatteryLevel, temp, humidity, baro, baroforecast);
}
else if (bHaveTemp&&bHaveHum)
{
SendTempHumSensor(ID, BatteryLevel, temp, humidity, "TempHum");
}
else if (bHaveTemp)
{
SendTempSensor(ID, BatteryLevel, temp,"Temp");
}
else if (bHaveHum)
{
SendHumiditySensor(ID, BatteryLevel, humidity);
}
else if (bHaveBaro)
{
SendBaroSensor(Node_ID, Child_ID, BatteryLevel, baro, baroforecast);
}
if (bHaveLux)
{
SendLuxSensor(Node_ID, Child_ID, BatteryLevel, lux, "Lux");
}
if (bHaveUV)
{
SendUVSensor(Node_ID, Child_ID, BatteryLevel, uv);
}
if (bHaveRain)
{
SendRainSensor(ID, BatteryLevel, float(raincounter), "Rain");
}
if (bHaveWindDir && bHaveWindSpeed && bHaveWindGust && bHaveWindChill)
{
SendWind(ID, BatteryLevel, float(windir), windspeed, windgust, windtemp, windchill, bHaveWindTemp, "Wind");
}
else if (bHaveWindDir && bHaveWindGust)
{
SendWind(ID, BatteryLevel, float(windir), windspeed, windgust, windtemp, windchill, bHaveWindTemp, "Wind");
}
else if (bHaveWindSpeed)
{
SendWind(ID, BatteryLevel, float(windir), windspeed, windgust, windtemp, windchill, bHaveWindTemp, "Wind");
}
if (bHaveCO2)
{
SendAirQualitySensor((ID & 0xFF00) >> 8, ID & 0xFF, BatteryLevel, co2, "CO2");
}
if (bHaveSound)
{
SendSoundSensor(ID, BatteryLevel, sound, "Sound");
}
if (bHaveRGB)
{
//RRGGBB
SendRGBWSwitch(Node_ID, Child_ID, BatteryLevel, rgb, false, "RGB Light");
}
if (bHaveRGBW)
{
//RRGGBBWW
SendRGBWSwitch(Node_ID, Child_ID, BatteryLevel, rgbw, true, "RGBW Light");
}
if (bHaveBlind)
{
SendBlindSensor(Node_ID, Child_ID, BatteryLevel, blind, "Blinds/Window");
}
if (bHaveKWatt)
{
SendKwhMeter(Node_ID, Child_ID, BatteryLevel, kwatt / 1000.0f, kwatt, "Meter");
}
if (bHaveWatt)
{
SendKwhMeter(Node_ID, Child_ID, BatteryLevel, 0, watt, "Meter");
}
if (bHaveDistance)
{
SendDistanceSensor(Node_ID, Child_ID, BatteryLevel, distance);
}
if (bHaveMeter)
{
SendMeterSensor(Node_ID, Child_ID, BatteryLevel, meter);
}
if (bHaveVoltage)
{
SendVoltageSensor(Node_ID, Child_ID, BatteryLevel, voltage, "Voltage");
}
if (bHaveCurrent)
{
SendCurrentSensor(ID, BatteryLevel, current, 0, 0, "Current");
}
if (bHaveSwitch && bHaveSwitchCmd)
{
std::string switchType = results[2];
SendSwitchInt(ID, switchunit, BatteryLevel, switchType, switchcmd, switchlevel);
}
return true;
}
void CDarkSky::GetMeterDetails()
{
std::string sResult;
#ifdef DEBUG_DarkSkyR
sResult=ReadFile("E:\\DarkSky.json");
#else
std::stringstream sURL;
std::string szLoc = m_Location;
std::string szExclude = "minutely,hourly,daily,alerts,flags";
sURL << "https://api.darksky.net/forecast/" << m_APIKey << "/" << szLoc << "?exclude=" << szExclude;
try
{
bool bret;
std::string szURL = sURL.str();
bret = HTTPClient::GET(szURL, sResult);
if (!bret)
{
_log.Log(LOG_ERROR, "DarkSky: Error getting http data!.");
return;
}
}
catch (...)
{
_log.Log(LOG_ERROR, "DarkSky: Error getting http data!");
return;
}
#ifdef DEBUG_DarkSkyW
SaveString2Disk(sResult, "E:\\DarkSky.json");
#endif
#endif
Json::Value root;
Json::Reader jReader;
bool ret=jReader.parse(sResult,root);
if ((!ret) || (!root.isObject()))
{
_log.Log(LOG_ERROR,"DarkSky: Invalid data received! Check Location, use a City or GPS Coordinates (xx.yyyy,xx.yyyyy)");
return;
}
if (root["currently"].empty()==true)
{
_log.Log(LOG_ERROR,"DarkSky: Invalid data received, or unknown location!");
return;
}
/*
std::string tmpstr2 = root.toStyledString();
FILE *fOut = fopen("E:\\DarkSky.json", "wb+");
fwrite(tmpstr2.c_str(), 1, tmpstr2.size(), fOut);
fclose(fOut);
*/
float temp;
int humidity=0;
int barometric=0;
int barometric_forcast=baroForecastNoInfo;
temp=root["currently"]["temperature"].asFloat();
//Convert to celcius
temp=float((temp-32)*(5.0/9.0));
if (root["currently"]["humidity"].empty()==false)
{
humidity=round(root["currently"]["humidity"].asFloat()*100.0f);
}
if (root["currently"]["pressure"].empty()==false)
{
barometric=atoi(root["currently"]["pressure"].asString().c_str());
if (barometric<1000)
barometric_forcast=baroForecastRain;
else if (barometric<1020)
barometric_forcast=baroForecastCloudy;
else if (barometric<1030)
barometric_forcast=baroForecastPartlyCloudy;
else
barometric_forcast=baroForecastSunny;
if (root["currently"]["icon"].empty()==false)
{
std::string forcasticon=root["currently"]["icon"].asString();
if ((forcasticon=="partly-cloudy-day")||(forcasticon=="partly-cloudy-night"))
{
barometric_forcast=baroForecastPartlyCloudy;
}
else if (forcasticon=="cloudy")
{
barometric_forcast=baroForecastCloudy;
}
else if ((forcasticon=="clear-day")||(forcasticon=="clear-night"))
{
barometric_forcast=baroForecastSunny;
}
else if ((forcasticon=="rain")||(forcasticon=="snow"))
{
barometric_forcast=baroForecastRain;
}
}
}
if (barometric!=0)
{
//Add temp+hum+baro device
SendTempHumBaroSensor(1, 255, temp, humidity, static_cast<float>(barometric), barometric_forcast, "THB");
}
else if (humidity!=0)
{
//add temp+hum device
SendTempHumSensor(1, 255, temp, humidity, "TempHum");
}
else
{
//add temp device
SendTempSensor(1, 255, temp, "Temperature");
}
//Wind
int wind_degrees=-1;
float windspeed_ms=0;
float windgust_ms=0;
float wind_temp=temp;
float wind_chill=temp;
int windgust=1;
float windchill=-1;
if (root["currently"]["windBearing"].empty()==false)
{
wind_degrees=atoi(root["currently"]["windBearing"].asString().c_str());
}
if (root["currently"]["windSpeed"].empty()==false)
{
if ((root["currently"]["windSpeed"] != "N/A") && (root["currently"]["windSpeed"] != "--"))
{
float temp_wind_mph = static_cast<float>(atof(root["currently"]["windSpeed"].asString().c_str()));
if (temp_wind_mph!=-9999.00f)
{
//convert to m/s
windspeed_ms=temp_wind_mph*0.44704f;
}
}
}
if (root["currently"]["windGust"].empty()==false)
{
if ((root["currently"]["windGust"] != "N/A") && (root["currently"]["windGust"] != "--"))
{
float temp_wind_gust_mph = static_cast<float>(atof(root["currently"]["windGust"].asString().c_str()));
if (temp_wind_gust_mph!=-9999.00f)
{
//convert to m/s
windgust_ms=temp_wind_gust_mph*0.44704f;
}
}
}
if (root["currently"]["apparentTemperature"].empty()==false)
{
if ((root["currently"]["apparentTemperature"] != "N/A") && (root["currently"]["apparentTemperature"] != "--"))
{
wind_chill = static_cast<float>(atof(root["currently"]["apparentTemperature"].asString().c_str()));
//Convert to celcius
wind_chill=float((wind_chill-32)*(5.0/9.0));
}
}
if (wind_degrees!=-1)
{
RBUF tsen;
memset(&tsen,0,sizeof(RBUF));
tsen.WIND.packetlength=sizeof(tsen.WIND)-1;
tsen.WIND.packettype=pTypeWIND;
tsen.WIND.subtype=sTypeWIND4;
tsen.WIND.battery_level=9;
tsen.WIND.rssi=12;
tsen.WIND.id1=0;
tsen.WIND.id2=1;
float winddir=float(wind_degrees);
int aw=round(winddir);
tsen.WIND.directionh=(BYTE)(aw/256);
aw-=(tsen.WIND.directionh*256);
tsen.WIND.directionl=(BYTE)(aw);
tsen.WIND.av_speedh=0;
tsen.WIND.av_speedl=0;
int sw=round(windspeed_ms*10.0f);
tsen.WIND.av_speedh=(BYTE)(sw/256);
sw-=(tsen.WIND.av_speedh*256);
tsen.WIND.av_speedl=(BYTE)(sw);
tsen.WIND.gusth=0;
tsen.WIND.gustl=0;
int gw=round(windgust_ms*10.0f);
tsen.WIND.gusth=(BYTE)(gw/256);
gw-=(tsen.WIND.gusth*256);
tsen.WIND.gustl=(BYTE)(gw);
//this is not correct, why no wind temperature? and only chill?
tsen.WIND.chillh=0;
tsen.WIND.chilll=0;
tsen.WIND.temperatureh=0;
tsen.WIND.temperaturel=0;
tsen.WIND.tempsign=(wind_temp>=0)?0:1;
int at10=round(std::abs(wind_temp*10.0f));
tsen.WIND.temperatureh=(BYTE)(at10/256);
at10-=(tsen.WIND.temperatureh*256);
tsen.WIND.temperaturel=(BYTE)(at10);
tsen.WIND.chillsign=(wind_temp>=0)?0:1;
at10=round(std::abs(wind_chill*10.0f));
tsen.WIND.chillh=(BYTE)(at10/256);
at10-=(tsen.WIND.chillh*256);
tsen.WIND.chilll=(BYTE)(at10);
sDecodeRXMessage(this, (const unsigned char *)&tsen.WIND, NULL, 255);
}
//UV
if (root["currently"]["uvIndex"].empty() == false)
{
if ((root["currently"]["uvIndex"] != "N/A") && (root["currently"]["uvIndex"] != "--"))
{
float UV = root["currently"]["uvIndex"].asFloat();
if ((UV < 16) && (UV >= 0))
{
SendUVSensor(0, 1, 255, UV, "UV Index");
}
}
}
//Rain
if (root["currently"]["precipIntensity"].empty()==false)
{
if ((root["currently"]["precipIntensity"] != "N/A") && (root["currently"]["precipIntensity"] != "--"))
{
float RainCount = static_cast<float>(atof(root["currently"]["precipIntensity"].asString().c_str()))*25.4f; //inches to mm
if ((RainCount!=-9999.00f)&&(RainCount>=0.00f))
{
RBUF tsen;
memset(&tsen,0,sizeof(RBUF));
tsen.RAIN.packetlength=sizeof(tsen.RAIN)-1;
tsen.RAIN.packettype=pTypeRAIN;
tsen.RAIN.subtype=sTypeRAINWU;
tsen.RAIN.battery_level=9;
tsen.RAIN.rssi=12;
tsen.RAIN.id1=0;
tsen.RAIN.id2=1;
tsen.RAIN.rainrateh=0;
tsen.RAIN.rainratel=0;
int tr10=int((float(RainCount)*10.0f));
tsen.RAIN.raintotal1=0;
tsen.RAIN.raintotal2=(BYTE)(tr10/256);
tr10-=(tsen.RAIN.raintotal2*256);
tsen.RAIN.raintotal3=(BYTE)(tr10);
sDecodeRXMessage(this, (const unsigned char *)&tsen.RAIN, NULL, 255);
}
}
}
//Visibility
if (root["currently"]["visibility"].empty()==false)
{
if ((root["currently"]["visibility"] != "N/A") && (root["currently"]["visibility"] != "--"))
{
float visibility = static_cast<float>(atof(root["currently"]["visibility"].asString().c_str()))*1.60934f; //miles to km
if (visibility>=0)
{
_tGeneralDevice gdevice;
gdevice.subtype=sTypeVisibility;
gdevice.floatval1=visibility;
sDecodeRXMessage(this, (const unsigned char *)&gdevice, NULL, 255);
}
}
}
//Solar Radiation
if (root["currently"]["ozone"].empty()==false)
{
if ((root["currently"]["ozone"] != "N/A") && (root["currently"]["ozone"] != "--"))
{
float radiation = static_cast<float>(atof(root["currently"]["ozone"].asString().c_str()));
if (radiation>=0.0f)
{
SendCustomSensor(1, 0, 255, radiation, "Ozone Sensor", "DU"); //(dobson units)
}
}
}
}
void CDaikin::GetSensorInfo()
{
std::string sResult;
#ifdef DEBUG_DaikinR
sResult = ReadFile("E:\\Daikin_get_sensor_info.txt");
#else
std::stringstream szURL;
if (m_Password.empty())
{
szURL << "http://" << m_szIPAddress << ":" << m_usIPPort;
}
else
{
szURL << "http://" << m_Username << ":" << m_Password << "@" << m_szIPAddress << ":" << m_usIPPort;
}
szURL << "/aircon/get_sensor_info";
if (!HTTPClient::GET(szURL.str(), sResult))
{
_log.Log(LOG_ERROR, "Daikin: Error connecting to: %s", m_szIPAddress.c_str());
return;
}
#ifdef DEBUG_DaikinW
SaveString2Disk(sResult, "E:\\Daikin_get_sensor_info.txt");
#endif
#endif
if (sResult.find("ret=OK") == std::string::npos)
{
_log.Log(LOG_ERROR, "Daikin: Error getting data (check IP/Port)");
return;
}
std::vector<std::string> results;
StringSplit(sResult, ",", results);
if (results.size() < 6)
{
_log.Log(LOG_ERROR, "Daikin: Invalid data received");
return;
}
float htemp = -1;
int hhum = -1;
std::vector<std::string>::const_iterator itt;
for (itt = results.begin(); itt != results.end(); ++itt)
{
std::string sVar = *itt;
std::vector<std::string> results2;
StringSplit(sVar, "=", results2);
if (results2.size() != 2)
continue;
if (results2[0] == "htemp")
{
htemp = static_cast<float>(atof(results2[1].c_str()));
}
else if (results2[0] == "hhum")
{
if (results2[1]!="-")
hhum = static_cast<int>(atoi(results2[1].c_str()));
}
else if (results2[0] == "otemp")
{
SendTempSensor(11, -1, static_cast<float>(atof(results2[1].c_str())), "Outside Temperature");
}
if (htemp != -1)
{
if (hhum != -1)
SendTempHumSensor(10, -1, htemp, hhum, "Home Temp+Hum");
else
SendTempSensor(10, -1, htemp, "Home Temperature");
}
}
}