private static bool DisplayPotentiometerInfoAndCheckForCancel(MCP41X1_Base ldp, bool tryReadValue = false, int exWaitTime = -1)
{
Console.WriteLine(ldp.ToString());
if (exWaitTime == -1)
{
TimePeriod.Sleep(waitTime * 10);
}
else
if (exWaitTime > 0)
{
TimePeriod.Sleep(exWaitTime);
}
if (tryReadValue)
{
int val = ldp.Get();
}
if (Console.KeyAvailable)
{
var k = Console.ReadKey();
return(true);
}
else
{
return(false);
}
}
static void DigitalPotRangeForLed(MCP41X1_Base dp)
{
Console.Clear();
var quit = false;
var ledThreadHold17Volt = 0;
dp.Set(0);
int wait = 16;
while (!quit)
{
for (var i = ledThreadHold17Volt; i <= dp.MaxDigitalValue; i += 1)
{
if (!dp.Set(i).Succeeded)
{
Console.WriteLine("Communication error");
}
if (DisplayPotentiometerInfoAndCheckForCancel(dp, exWaitTime:wait))
{
quit = true; break;
}
}
if (DisplayPotentiometerInfoAndCheckForCancel(dp, exWaitTime: wait))
{
quit = true; break;
}
//_mcp4131_10k.Set(dp.MaxDigitalValue);
//TimePeriod.Sleep(waitTime * 10);
//for (var i = 0; i < 5; i++) {
// dp.Set(0);
// TimePeriod.Sleep(waitTime*2);
// _mcp4131_10k.Set(dp.MaxDigitalValue);
// TimePeriod.Sleep(waitTime*3);
//}
for (var i = dp.MaxDigitalValue; i > ledThreadHold17Volt; i -= 1)
{
if (!dp.Set(i).Succeeded)
{
Console.WriteLine("Communication error");
}
if (DisplayPotentiometerInfoAndCheckForCancel(dp, exWaitTime:wait))
{
quit = true; break;
}
}
//TimePeriod.Sleep(waitTime*10);
if (DisplayPotentiometerInfoAndCheckForCancel(dp, exWaitTime: wait))
{
quit = true; break;
}
}
var k = Console.ReadKey();
dp.Set(0);
}
static void TestDigitalPotRange(MCP41X1_Base dp, bool tryReadValue = false)
{
Console.Clear();
for (var i = dp.MinDigitalValue; i <= dp.MaxDigitalValue; i += _demoStep)
{
if (!dp.Set(i).Succeeded)
{
Console.WriteLine("Communication error");
}
if (DisplayPotentiometerInfoAndCheckForCancel(dp, tryReadValue))
{
break;
}
}
dp.Set(0);
}
static void OtherApiTests(MCP41X1_Base dp)
{
var quit = false;
Console.Clear();
try {
dp.Set(0);
for (var i = 0; i <= dp.MaxDigitalValue; i += demoStep)
{
if (DisplayPotentiometerInfoAndCheckForCancel(dp))
{
quit = true; break;
}
dp.Increment(demoStep);
}
if (quit)
{
return;
}
dp.Set(dp.MaxDigitalValue);
DisplayPotentiometerInfoAndCheckForCancel(dp);
for (var i = dp.MaxDigitalValue; i > 0; i -= demoStep)
{
if (DisplayPotentiometerInfoAndCheckForCancel(dp))
{
quit = true; break;
}
dp.Decrement(demoStep);
}
}
finally
{
dp.Set(0);
}
}
static void OtherApiTests(MCP41X1_Base dp)
{
var quit = false;
Console.Clear();
try
{
var expectedValue = 0;
dp.Set(0);
for (var i = 0; i <= dp.MaxDigitalValue; i += _demoStep)
{
expectedValue += _demoStep;
if (expectedValue > dp.MaxDigitalValue)
{
expectedValue = dp.MaxDigitalValue;
}
if (DisplayPotentiometerInfoAndCheckForCancel(dp))
{
quit = true; break;
}
dp.Increment(_demoStep);
var v = dp.Get();
if (expectedValue != v)
{
Console.WriteLine("Method Get() did not return expected result");
}
}
if (quit)
{
return;
}
dp.Set(dp.MaxDigitalValue);
DisplayPotentiometerInfoAndCheckForCancel(dp);
expectedValue = dp.MaxDigitalValue;
for (var i = dp.MaxDigitalValue; i > 0; i -= _demoStep)
{
expectedValue -= _demoStep;
if (expectedValue < dp.MinDigitalValue)
{
expectedValue = dp.MinDigitalValue;
}
if (DisplayPotentiometerInfoAndCheckForCancel(dp))
{
quit = true; break;
}
dp.Decrement(_demoStep);
var v = dp.Get();
if (expectedValue != v)
{
Console.WriteLine("Method Get() did not return expected result");
}
}
}
finally
{
dp.Set(0);
}
}
