/// <inheritdoc/>
public bool Equals(IReadingValues other)
{
return(null != other &&
(IsTemperatureValid ? other.Temperature == Temperature : !other.IsTemperatureValid) &&
(IsPressureValid ? other.Pressure == Pressure : !other.IsPressureValid) &&
(IsHumidityValid ? other.Humidity == Humidity : !other.IsHumidityValid) &&
(IsWindDirectionValid ? other.WindDirection == WindDirection : !other.IsWindDirectionValid) &&
(IsWindSpeedValid ? other.WindSpeed == WindSpeed : !other.IsWindSpeedValid)
);
}
public ReadingValues(IReadingValues values)
{
if (null == values)
{
Temperature = Double.NaN;
Pressure = Double.NaN;
Humidity = Double.NaN;
WindDirection = Double.NaN;
WindSpeed = Double.NaN;
}
else
{
Temperature = values.Temperature;
Pressure = values.Pressure;
Humidity = values.Humidity;
WindDirection = values.WindDirection;
WindSpeed = values.WindSpeed;
}
}
public Reading(DateTime timeStamp, IReadingValues values)
: base(values)
{
TimeStamp = timeStamp;
}
public void SetValues(ISensor sensor, IReadingValues reading)
{
ReadingValuesConverter <IReadingValues, ReadingValues> converter = null;
if (null != sensor)
{
int n;
sensorNameLabel.Text = (Int32.TryParse(sensor.Name, out n) && 0 <= n && n < 26)
? ((char)((byte)('A') + (byte)n)).ToString()
: sensor.Name;
if (null != ConverterCache && sensor is ISensorInfo)
{
var si = sensor as ISensorInfo;
converter = ConverterCache.Get(
si.TemperatureUnit, TemperatureUnit,
si.SpeedUnit, SpeedUnit,
si.PressureUnit, PressureUnit
);
}
}
else
{
sensorNameLabel.Text = "Sensor";
}
const string na = "N/A";
if (null != reading && reading.IsValid)
{
var data = null == converter
? reading
: converter.Convert(reading)
;
string tempText;
if (data.IsTemperatureValid)
{
tempText = data.Temperature.ToString("F1") + ' ' + UnitUtility.GetFriendlyName(TemperatureUnit);
}
else
{
tempText = na;
}
string presText;
if (data.IsPressureValid)
{
var presUnit = PressureUnit;
presText = Math.Round(data.Pressure, presUnit == PressureUnit.Millibar ? 1 : 2).ToString()
+ ' '
+ UnitUtility.GetFriendlyName(presUnit)
;
}
else
{
presText = na;
}
string speedText;
if (data.IsWindSpeedValid)
{
speedText = data.WindSpeed.ToString("F2") + ' ' + UnitUtility.GetFriendlyName(SpeedUnit);
}
else
{
speedText = na;
}
string dirText;
if (data.IsWindDirectionValid)
{
dirText = Math.Round(data.WindDirection).ToString()
+ "\xb0 "
+ Vector2D.CardinalDirection.DegreesToBestCardinalName(reading.WindDirection)
;
}
else
{
dirText = na;
}
tempValue.Text = tempText;
pressureValue.Text = presText;
humidityValue.Text = data.IsHumidityValid
? (Math.Round(data.Humidity * 100.0, 1).ToString() + '%')
: na
;
windSpeedValue.Text = speedText;
windDirValue.Text = dirText;
}
else
{
tempValue.Text = na;
pressureValue.Text = na;
humidityValue.Text = na;
windSpeedValue.Text = na;
windDirValue.Text = na;
}
}
public void SetValues(ISensor sensor, IReadingValues reading)
{
ReadingValuesConverter<IReadingValues, ReadingValues> converter = null;
if (null != sensor) {
int n;
sensorNameLabel.Text = (Int32.TryParse(sensor.Name, out n) && 0 <= n && n < 26)
? ((char) ((byte) ('A') + (byte) n)).ToString()
: sensor.Name;
if(null != ConverterCache && sensor is ISensorInfo) {
var si = sensor as ISensorInfo;
converter = ConverterCache.Get(
si.TemperatureUnit, TemperatureUnit,
si.SpeedUnit, SpeedUnit,
si.PressureUnit, PressureUnit
);
}
}
else {
sensorNameLabel.Text = "Sensor";
}
const string na = "N/A";
if (null != reading && reading.IsValid) {
var data = null == converter
? reading
: converter.Convert(reading)
;
string tempText;
if(data.IsTemperatureValid) {
tempText = data.Temperature.ToString("F1") + ' ' + UnitUtility.GetFriendlyName(TemperatureUnit);
}else {
tempText = na;
}
string presText;
if(data.IsPressureValid) {
var presUnit = PressureUnit;
presText = Math.Round(data.Pressure,presUnit == PressureUnit.Millibar ? 1 : 2).ToString()
+ ' '
+ UnitUtility.GetFriendlyName(presUnit)
;
}else {
presText = na;
}
string speedText;
if(data.IsWindSpeedValid) {
speedText = data.WindSpeed.ToString("F2") + ' ' + UnitUtility.GetFriendlyName(SpeedUnit);
}else {
speedText = na;
}
string dirText;
if(data.IsWindDirectionValid) {
dirText = Math.Round(data.WindDirection).ToString()
+ "\xb0 "
+ Vector2D.CardinalDirection.DegreesToBestCardinalName(reading.WindDirection)
;
}else {
dirText = na;
}
tempValue.Text = tempText;
pressureValue.Text = presText;
humidityValue.Text = data.IsHumidityValid
? (Math.Round(data.Humidity * 100.0, 1).ToString() + '%')
: na
;
windSpeedValue.Text = speedText;
windDirValue.Text = dirText;
}
else {
tempValue.Text = na;
pressureValue.Text = na;
humidityValue.Text = na;
windSpeedValue.Text = na;
windDirValue.Text = na;
}
}
public static PackedReading GetCurrentReading(DateTime now, Random rand, IReadingValues lastReading)
{
double averagePressure = 1014.23;
double pressureRange = 100.0;
double pressure = (rand.NextDouble() * pressureRange) - (pressureRange / 2) + averagePressure;
double windDirectionRad = (rand.NextDouble() * Math.PI * 2.0);
//double windDirectionDeg = Vector2D.RadiansToDegrees(windDirectionRad);
//Vector2D windDirectionVec = new Vector2D((Math.Cos(windDirectionRad) * 2.0), (Math.Sin(windDirectionRad) * 2.0));
//double windDirectionDeg = windDirectionVec.GetNorthRelativeClockwiseAngularDegrees();
double averageWindSpeed = 9;
double averageTemp = 51.0;
double tempRange = 10.0;
double averageHumM = 79;
double averageHumA = 58;
switch (now.Month)
{
case 1: {
averageWindSpeed = 10.4;
averageTemp = 27.5;
averageHumM = 77;
averageHumA = 66;
break;
}
case 2: {
averageWindSpeed = 10.3;
averageTemp = 30.5;
averageHumM = 75;
averageHumA = 62;
break;
}
case 3: {
averageWindSpeed = 10.6;
averageTemp = 39.8;
averageHumM = 76;
averageHumA = 57;
break;
}
case 4: {
averageWindSpeed = 10.2;
averageTemp = 49.9;
averageHumM = 74;
averageHumA = 51;
break;
}
case 5: {
averageWindSpeed = 8.7;
averageTemp = 60.0;
averageHumM = 77;
averageHumA = 52;
break;
}
case 6: {
averageWindSpeed = 8;
averageTemp = 68.4;
averageHumM = 80;
averageHumA = 53;
break;
}
case 7: {
averageWindSpeed = 7.3;
averageTemp = 72.6;
averageHumM = 83;
averageHumA = 54;
break;
}
case 8: {
averageWindSpeed = 6.8;
averageTemp = 71;
averageHumM = 86;
averageHumA = 56;
break;
}
case 9: {
averageWindSpeed = 7.4;
averageTemp = 64.0;
averageHumM = 87;
averageHumA = 57;
break;
}
case 10: {
averageWindSpeed = 8.3;
averageTemp = 52.5;
averageHumM = 82;
averageHumA = 55;
break;
}
case 11: {
averageWindSpeed = 9.7;
averageTemp = 42.3;
averageHumM = 79;
averageHumA = 62;
break;
}
case 12: {
averageWindSpeed = 10.1;
averageTemp = 32.5;
averageHumM = 78;
averageHumA = 67;
break;
}
}
averageTemp = UnitUtility.ConvertUnit(averageTemp, TemperatureUnit.Fahrenheit, TemperatureUnit.Celsius);
tempRange = 4;
averageWindSpeed = UnitUtility.ConvertUnit(averageWindSpeed, SpeedUnit.MilesPerHour, SpeedUnit.MetersPerSec) * 4.0;
double humidityRange = Math.Abs(averageHumM - averageHumA) * 1.5;
double humidity = (humidityRange * rand.NextDouble()) - (humidityRange / 2.0) + ((averageHumM + averageHumA) / 2.0);
humidity /= 100.0;
double temp = (rand.NextDouble() * tempRange) - (tempRange / 2.0) + averageTemp;
double windSpeed = rand.NextDouble();
windSpeed = (windSpeed > 0.5) ? 0 : 4.0 * averageWindSpeed * windSpeed * windSpeed;
double windDirectionDeg = (((rand.NextDouble() * 360.0) * 4) + 90) / 5.0; // 4 parts random, 1 part 90 degrees
var newValues = new ReadingValues(
temp,
pressure,
humidity,
windDirectionDeg,
windSpeed
);
if (null != lastReading && lastReading.IsValid)
{
var readings = new[] { lastReading, lastReading, lastReading, newValues };
var meanCalc = new ReadingValuesMeanCalculator <IReadingValues>();
}
var stamp = now.Date.Add(new TimeSpan(now.Hour, now.Minute, now.Second));
return(new PackedReading(
stamp,
new PackedReadingValues(newValues)
));
}
public Reading(DateTime timeStamp, IReadingValues values)
: base(values)
{
TimeStamp = timeStamp;
}