public static void Main()
{
byte Nb = 4; // Channels under test in single mode
MCP342x can = new MCP342x();
PCF8574 leds = new PCF8574();
#if LCD
ELCD162 lcd = new ELCD162("COM1");
lcd.Init(); lcd.ClearScreen(); lcd.CursorOff();
#endif
// One Shot Conversion
#if LCD
lcd.PutString("One Shot Conv.");
Thread.Sleep(2000);
#endif
can.Mode = MCP342x.ConversionMode.OneShot;
can.Resolution = MCP342x.SampleRate.TwelveBits;
can.Gain = MCP342x.PGA_Gain.x1;
double resolution = Resolution(can.Resolution);
double gain = System.Math.Pow(2, (byte)can.Gain);
for (int i = 0; i < Nb; i++)
{
try
{
Debug.Print("Single on channel " + (can.CHannel + 1) + " => Tension= " + can.ReadVolts().ToString("F2") +
" " + "Resol: " + resolution + "-bit " + "Gain: " + gain);
can.CHannel = (MCP342x.Channel)(i + 1);
}
catch (System.IO.IOException ex)
{
#if LCD
lcd.ClearScreen(); lcd.SetCursor(0, 0); lcd.PutString(ex.Message);
#else
Debug.Print(ex.Message);
#endif
}
finally
{
Thread.Sleep(500);
}
}
// Continuous Conversion mode
#if LCD
lcd.ClearScreen();
lcd.PutString("Continuous Conv.");
Thread.Sleep(2000);
#endif
can.Mode = MCP342x.ConversionMode.Continuous;
byte j = 1; bool commut = true;
while (true)
{
if (commut)
{
try
{
leds.Write(0xF0);
}
catch (System.IO.IOException ex)
{
#if LCD
lcd.ClearScreen(); lcd.SetCursor(0, 1); lcd.PutString(ex.Message); Thread.Sleep(1000);
#else
Debug.Print(ex.Message);
#endif
}
finally
{
commut = false;
can.CHannel = (MCP342x.Channel)(j - 1); j = 2;
}
}
else
{
try
{
leds.Write(0x0F);
}
catch (System.IO.IOException ex)
{
#if LCD
lcd.ClearScreen(); lcd.SetCursor(0, 1); lcd.PutString(ex.Message); Thread.Sleep(1000);
#else
Debug.Print(ex.Message);
#endif
}
finally
{
commut = true;
can.CHannel = (MCP342x.Channel)(j - 1); j = 1;
}
}
try
{
#if LCD
lcd.ClearScreen();
lcd.SetCursor(0, 0); lcd.PutString("Ch" + (can.CHannel + 1) + " U=" + can.ReadVolts().ToString("F2") + "V");
#else
Debug.Print("Continuous on channel " + (can.CHannel + 1) + " =>Tension= " + can.ReadVolts().ToString("F2") + " " +
"Resol: " + resolution + "-bit " + "Gain: " + gain);
#endif
}
catch (System.IO.IOException ex)
{
#if LCD
lcd.ClearScreen(); lcd.SetCursor(0, 0); lcd.PutString(ex.Message);
#else
Debug.Print(ex.Message);
#endif
}
finally
{
Thread.Sleep(1000);
}
}
}
public static void Main()
{
byte Nb = 4; // Channels on MCP342x
MCP342x can = new MCP342x();
PCF8574 leds = new PCF8574();
can.Gain = MCP342x.PGA_Gain.x8;
can.Mode = MCP342x.ConversionMode.OneShot;
can.Resolution = MCP342x.SampleRate.FourteenBits;
double resolution = Resolution(can.Resolution);
double gain = System.Math.Pow(2, (byte)can.Gain);
// First message on graphic display
BrainPad.Display.DrawLargeText(10, 10, "BrainPad", BrainPad.Color.Yellow);
BrainPad.Display.DrawLargeText(25, 30, "MCP342x", BrainPad.Color.Yellow);
// 1. One Shot Conversion
BrainPad.Display.DrawText(5, 50, "One Shot Conversion", BrainPad.Color.Yellow);
BrainPad.Display.DrawText(5, 60, "n:" + resolution + "-bit" + " Gain:" + gain + " sample:5s", BrainPad.Color.Yellow);
for (int i = 0; i < Nb; i++)
{
try
{
var voltage = can.ReadVolts(); var temperature = voltage / 0.01;
BrainPad.Display.DrawText(5, 80, "On channel " + (can.CHannel + 1), BrainPad.Color.Yellow);
BrainPad.Display.DrawText(10, 90, "=> Voltage = " + voltage.ToString("F2") + "V", BrainPad.Color.Yellow);
BrainPad.Display.DrawText(10, 100, "=> Temperature = " + temperature.ToString("F1") + "degC", BrainPad.Color.Yellow);
can.CHannel = (MCP342x.Channel)(i + 1);
}
catch (System.IO.IOException ex)
{
displayErrorMessage(5, 120, ex);
}
finally
{
Thread.Sleep(5000);
}
}
// 2. Clear screen
BrainPad.Display.Clear();
BrainPad.Display.DrawLargeText(10, 10, "BrainPad", BrainPad.Color.Yellow);
BrainPad.Display.DrawLargeText(25, 30, "MCP342x", BrainPad.Color.Yellow);
// 3. Continuous Conversion mode
BrainPad.Display.DrawText(5, 50, "Continuous Conversion", BrainPad.Color.Yellow);
BrainPad.Display.DrawText(5, 60, "n:" + resolution + "-bit" + " Gain:" + gain + " sample:2s", BrainPad.Color.Yellow);
can.Mode = MCP342x.ConversionMode.Continuous;
uint state = 1;
while (true)
{
switch (state)
{
case 1:
try
{
leds.Write(0xFE);
}
catch (System.IO.IOException ex)
{
displayErrorMessage(5, 120, ex);
}
finally
{
can.CHannel = MCP342x.Channel.Ch1; state = 2;
}
break;
case 2:
try
{
leds.Write(0xFD);
}
catch (System.IO.IOException ex)
{
displayErrorMessage(5, 120, ex);
}
finally
{
can.CHannel = MCP342x.Channel.Ch2; state = 3;
}
break;
case 3:
try
{
leds.Write(0xFB);
}
catch (System.IO.IOException ex)
{
displayErrorMessage(5, 120, ex);
}
finally
{
can.CHannel = MCP342x.Channel.Ch3; state = 4;
}
break;
case 4:
try
{
leds.Write(0xF7);
}
catch (System.IO.IOException ex)
{
displayErrorMessage(5, 120, ex);
}
finally
{
can.CHannel = MCP342x.Channel.Ch4; state = 1;
}
break;
}
try
{
var voltage = can.ReadVolts(); var temperature = voltage / 0.01;
BrainPad.Display.DrawText(5, 80, "On channel " + (can.CHannel + 1), BrainPad.Color.Yellow);
BrainPad.Display.DrawText(10, 90, "=> Voltage = " + voltage.ToString("F2") + "V", BrainPad.Color.Yellow);
BrainPad.Display.DrawText(10, 100, "=> Temperature = " + temperature.ToString("F1") + "degC", BrainPad.Color.Yellow);
}
catch (System.IO.IOException ex)
{
displayErrorMessage(5, 120, ex);
}
finally
{
Thread.Sleep(2000);
}
}
}
