public void tearDown()
{
raspberryPi.reset();
raspberryPi = null;
TestGpiooInterface = null;
TestLcdDisplay = null;
Testpotentiometer = null;
Testadconverter = null;
}
public void setUp()
{
raspberryPi = RaspberryPi.Instance;
testAllComponents = new HWComponent[] { new GPIOinterface(), new LCD(), new Potentiometer(), new Multiplexer(), new ADConverter() };
testPartComponents = new HWComponent[] { new GPIOinterface(), new Multiplexer(), new ADConverter() };
testDuplicateComponents = new HWComponent[] { new GPIOinterface(), new Multiplexer(), new Multiplexer(), new ADConverter() };
TestGpiooInterface = new GPIOinterface();
TestLcdDisplay = new LCD();
Testpotentiometer = new Potentiometer();
Testmultiplexer = new Multiplexer();
Testadconverter = new ADConverter();
}
public Double getPressure()
{
double result = 0.0;
if (pressure80 > 0 & pressure110 > 0)
{
double[] x = { pressure80, pressure110 };
double[] y = { 80, 110 };
result = ADConverter.Interpolate(x, y, aDConverter.GetADVoltage(sensorId));
}
return(result);
}
public PHComponent(Settings.PHAnalogItem item) : this()
{
mode = 2;
phdownHeaderPinNumber = item.phDownPin;
phupHeaderPinNumber = item.phUpPin;
sensorId = item.adcPort;
ID = item.ID;
try
{
GpioPin p1 = Pi.Gpio.Pins.FirstOrDefault(i => i.HeaderPinNumber == phupHeaderPinNumber);
if (p1 != null)
{
p1.PinMode = GpioPinDriveMode.Output;
}
GpioPin p2 = Pi.Gpio.Pins.FirstOrDefault(i => i.HeaderPinNumber == phdownHeaderPinNumber);
if (p2 != null)
{
p2.PinMode = GpioPinDriveMode.Output;
}
}
catch
{
}
if (item.autoPHOn)
{
EnableAutoOn();
}
else
{
DisableAutoOn();
}
try
{
aDConverter = new ADConverter(item.adcAddress);
}
catch (Exception e)
{
}
}
public PressureComponent(Settings.PressureItem item)
{
ID = item.ID;
pressureTile.button1.Click += Button1_Click;
sensorId = item.adcAddress;
pressure110 = item.pressure110;
pressure80 = item.pressure80;
try
{
aDConverter = new ADConverter(item.adcAddress);
}
catch (Exception e)
{
}
//update the clock readout one a sec
updateTimer = new Timer();
updateTimer.Interval = 1000;
updateTimer.Tick += UpdateTimer_Tick;
updateTimer.Start();
}
public void setUp()
{
adcdac = new ADConverter();
}
/// <summary>
/// Sets the DACVoltage output in channel 1 to a desired voltage
/// </summary>
/// <param name="parameter">Represents the ADCVoltage to be set, will be clipped to min 0 and
/// max 2.074 volts</param>
/// <returns>The provided target voltage.</returns>
public double ChangePowerVoltage(double voltage)
{
ADConverter.setDACVoltage1(voltage);
updateARDVoltage(StorageCfgs.Hi.CurrentReceiver);
return(voltage);
}
