public static void Start(string[] args)
{
if (args.Length < 2)
{
TestMain.ErrorExit("utils command requires functionality to test.");
}
switch (args[1].ToLower())
{
case "datalog":
{
for (int i = 0; i < 10; i++)
{
Random Random = new Random();
DataLog Logger = new DataLog("ScarletTestSuite");
Logger.Output(new DataUnit("TestData")
{
{ "Index", i },
{ "RandomNumber", Random.Next(100) }
}.SetSystem("Test"));
Thread.Sleep(50);
}
break;
}
}
}
public static BBBPin StringToPin(string pinName)
{
try
{
BBBPin Value = (BBBPin)Enum.Parse(typeof(BBBPin), pinName);
if (Enum.IsDefined(typeof(BBBPin), Value))
{
return(Value);
}
else
{
throw new IndexOutOfRangeException("Not a pin");
}
}
catch
{
TestMain.ErrorExit("Given BBBPin is invalid.");
return(BBBPin.NONE);
}
}
public static void Start(string[] args)
{
if (args.Length < 3)
{
TestMain.ErrorExit("io pi command requires functionality to test.");
}
RaspberryPi.Initialize();
switch (args[2].ToLower())
{
case "digin":
{
if (args.Length < 4)
{
TestMain.ErrorExit("io pi digin command requires pin to test.");
}
int PinNum = int.Parse(args[3]);
Log.Output(Log.Severity.INFO, Log.Source.HARDWAREIO, "Testing digital input on RPi pin " + PinNum);
IDigitalIn Input = new DigitalInPi(PinNum);
while (true)
{
Log.Output(Log.Severity.INFO, Log.Source.HARDWAREIO, "Current pin state: " + (Input.GetInput() ? "HIGH" : "LOW"));
Thread.Sleep(250);
}
}
case "digout":
{
if (args.Length < 4)
{
TestMain.ErrorExit("io pi digout command requires pin to test.");
}
int PinNum = int.Parse(args[3]);
if (args.Length < 5)
{
TestMain.ErrorExit("io pi digout command requires output mode (high/low/blink).");
}
if (args[4] != "high" && args[4] != "low" && args[4] != "blink")
{
TestMain.ErrorExit("Invalid digout test mode supplied.");
}
Log.Output(Log.Severity.INFO, Log.Source.HARDWAREIO, "Testing digital output on RPi pin " + PinNum);
IDigitalOut Output = new DigitalOutPi(PinNum);
if (args[4] == "high")
{
Output.SetOutput(true);
}
else if (args[4] == "low")
{
Output.SetOutput(false);
}
else
{
bool Out = false;
while (true)
{
Output.SetOutput(Out);
Out = !Out;
Thread.Sleep(250);
}
}
break;
}
case "pwm":
{
TestMain.ErrorExit("io pi pwm command not yet implemented."); // TODO: Remove when implementing.
if (args.Length < 4)
{
TestMain.ErrorExit("io pi pwm command requires pin to test.");
}
int PinNum = int.Parse(args[3]);
if (args.Length < 5)
{
TestMain.ErrorExit("io pi pwm command requires frequency.");
}
int Frequency = int.Parse(args[4]);
if (args.Length < 6)
{
TestMain.ErrorExit("io pi pwm command requires output mode.");
}
if (args[5] != "per" && args[5] != "sine")
{
TestMain.ErrorExit("io pi pwm command invalid (per/sine).");
}
if (args[5] == "per" && args.Length < 7)
{
TestMain.ErrorExit("io pi pwm per must be provided duty cycle.");
}
IPWMOutput Output = null; // TODO: Implement RPi PWM output.
Output.SetFrequency(Frequency);
Log.Output(Log.Severity.INFO, Log.Source.HARDWAREIO, "Testing PWM output on RPi pin " + PinNum + " at " + Frequency + "Hz.");
if (args[5] == "per")
{
Output.SetOutput(int.Parse(args[6]) / 100F);
Output.SetEnabled(true);
Thread.Sleep(15000); // Not sure if it stops outputting when the program exits.
}
else
{
int Cycle = 0;
while (true)
{
float Val = (float)((Math.Sin(Cycle * Math.PI / 180.000D) + 1) / 2);
Output.SetOutput(Val);
Thread.Sleep(50);
Cycle += 20;
}
}
break;
}
case "adc": { TestMain.ErrorExit("RPI does not have an ADC."); break; }
case "int":
{
if (args.Length < 4)
{
TestMain.ErrorExit("io pi int command requires pin to test.");
}
int PinNum = int.Parse(args[3]);
if (args.Length < 5)
{
TestMain.ErrorExit("io pi int command requires interrupt mode (rise/fall/both).");
}
if (args[4] != "rise" && args[4] != "fall" && args[4] != "both")
{
TestMain.ErrorExit("Invalid interrupt mode supplied.");
}
IDigitalIn Input = new DigitalInPi(PinNum);
Log.Output(Log.Severity.INFO, Log.Source.HARDWAREIO, "Testing interrupts on RPi pin " + PinNum);
switch (args[4])
{
case "rise": ((IInterruptSource)Input).RegisterInterruptHandler(GetInterrupt, InterruptType.RISING_EDGE); break;
case "fall": ((IInterruptSource)Input).RegisterInterruptHandler(GetInterrupt, InterruptType.FALLING_EDGE); break;
case "both": ((IInterruptSource)Input).RegisterInterruptHandler(GetInterrupt, InterruptType.ANY_EDGE); break;
}
while (true)
{
Thread.Sleep(50);
} // Program needs to be running to receive.
}
case "outperf":
{
if (args.Length < 4)
{
TestMain.ErrorExit("io pi outperf command requires pin to test.");
}
int PinNum = int.Parse(args[3]);
Log.Output(Log.Severity.INFO, Log.Source.HARDWAREIO, "Testing digital output speed on RPi pin " + PinNum);
IDigitalOut Output = new DigitalOutPi(PinNum);
bool Out = false;
while (!Console.KeyAvailable)
{
Output.SetOutput(Out);
Out = !Out;
}
Output.SetOutput(false);
break;
}
}
}
public static void Start(string[] args)
{
if (args.Length < 3)
{
TestMain.ErrorExit("io bbb command requires functionality to test.");
}
BeagleBone.Initialize(SystemMode.DEFAULT, true);
switch (args[2].ToLower())
{
case "digin":
{
if (args.Length < 4)
{
TestMain.ErrorExit("io bbb digin command requires pin to test.");
}
BBBPin InputPin = StringToPin(args[3]);
Log.Output(Log.Severity.INFO, Log.Source.HARDWAREIO, "Testing digital input on BBB pin " + InputPin.ToString());
BBBPinManager.AddMappingGPIO(InputPin, false, ResistorState.PULL_DOWN);
BBBPinManager.ApplyPinSettings(BBBPinManager.ApplicationMode.APPLY_REGARDLESS);
IDigitalIn Input = new DigitalInBBB(InputPin);
while (true)
{
Log.Output(Log.Severity.INFO, Log.Source.HARDWAREIO, "Current pin state: " + (Input.GetInput() ? "HIGH" : "LOW"));
Thread.Sleep(250);
}
}
case "digout":
{
if (args.Length < 4)
{
TestMain.ErrorExit("io bbb digout command requires pin to test.");
}
BBBPin OutputPin = StringToPin(args[3]);
if (args.Length < 5)
{
TestMain.ErrorExit("io bbb digout command requires output mode (high/low/blink).");
}
if (args[4] != "high" && args[4] != "low" && args[4] != "blink")
{
TestMain.ErrorExit("Invalid digout test mode supplied.");
}
Log.Output(Log.Severity.INFO, Log.Source.HARDWAREIO, "Testing digital output on BBB pin " + OutputPin.ToString());
BBBPinManager.AddMappingGPIO(OutputPin, true, ResistorState.PULL_DOWN);
BBBPinManager.ApplyPinSettings(BBBPinManager.ApplicationMode.APPLY_REGARDLESS);
IDigitalOut Output = new DigitalOutBBB(OutputPin);
if (args[4] == "high")
{
Output.SetOutput(true);
}
else if (args[4] == "low")
{
Output.SetOutput(false);
}
else
{
bool Out = false;
while (true)
{
Output.SetOutput(Out);
Out = !Out;
Thread.Sleep(250);
}
}
break;
}
case "pwm":
{
if (args.Length < 4)
{
TestMain.ErrorExit("io bbb pwm command requires pin to test.");
}
BBBPin OutputPin = StringToPin(args[3]);
if (args.Length < 5)
{
TestMain.ErrorExit("io bbb pwm command requires frequency.");
}
int Frequency = int.Parse(args[4]);
if (args.Length < 6)
{
TestMain.ErrorExit("io bbb pwm command requires output mode.");
}
if (args[5] != "per" && args[5] != "sine")
{
TestMain.ErrorExit("io bbb pwm command invalid (per/sine).");
}
if (args[5] == "per" && args.Length < 7)
{
TestMain.ErrorExit("io bbb pwm per must be provided duty cycle.");
}
BBBPinManager.AddMappingPWM(OutputPin);
BBBPinManager.ApplyPinSettings(BBBPinManager.ApplicationMode.APPLY_REGARDLESS);
IPWMOutput Output = PWMBBB.GetFromPin(OutputPin);
Output.SetFrequency(Frequency);
Log.Output(Log.Severity.INFO, Log.Source.HARDWAREIO, "Testing PWM output on BBB pin " + OutputPin.ToString() + " at " + Frequency + "Hz.");
if (args[5] == "per")
{
Output.SetOutput(int.Parse(args[6]) / 100F);
Output.SetEnabled(true);
Thread.Sleep(15000); // Not sure if it stops outputting when the program exits.
}
else
{
int Cycle = 0;
while (true)
{
float Val = (float)((Math.Sin(Cycle * Math.PI / 180.000D) + 1) / 2);
Output.SetOutput(Val);
Thread.Sleep(50);
Cycle += 20;
}
}
break;
}
case "adc":
{
if (args.Length < 4)
{
TestMain.ErrorExit("io bbb adc command requires pin to test.");
}
BBBPin InputPin = StringToPin(args[3]);
BBBPinManager.AddMappingADC(InputPin);
BBBPinManager.ApplyPinSettings(BBBPinManager.ApplicationMode.APPLY_REGARDLESS);
IAnalogueIn Input = new AnalogueInBBB(InputPin);
Log.Output(Log.Severity.INFO, Log.Source.HARDWAREIO, "Testing analogue input on BBB pin " + InputPin.ToString());
while (true)
{
Log.Output(Log.Severity.INFO, Log.Source.HARDWAREIO, "ADC Input: " + Input.GetInput() + " (Raw: " + Input.GetRawInput() + ")");
Thread.Sleep(250);
}
}
case "int":
{
if (args.Length < 4)
{
TestMain.ErrorExit("io bbb int command requires pin to test.");
}
BBBPin InputPin = StringToPin(args[3]);
if (args.Length < 5)
{
TestMain.ErrorExit("io bbb int command requires interrupt mode (rise/fall/both).");
}
if (args[4] != "rise" && args[4] != "fall" && args[4] != "both")
{
TestMain.ErrorExit("Invalid interrupt mode supplied.");
}
BBBPinManager.AddMappingGPIO(InputPin, true, ResistorState.PULL_DOWN);
BBBPinManager.ApplyPinSettings(BBBPinManager.ApplicationMode.APPLY_REGARDLESS);
IDigitalIn Input = new DigitalInBBB(InputPin);
Log.Output(Log.Severity.INFO, Log.Source.HARDWAREIO, "Testing interrupts on BBB pin " + InputPin.ToString());
switch (args[4])
{
case "rise": ((IInterruptSource)Input).RegisterInterruptHandler(GetInterrupt, InterruptType.RISING_EDGE); break;
case "fall": ((IInterruptSource)Input).RegisterInterruptHandler(GetInterrupt, InterruptType.FALLING_EDGE); break;
case "both": ((IInterruptSource)Input).RegisterInterruptHandler(GetInterrupt, InterruptType.ANY_EDGE); break;
}
while (true)
{
Thread.Sleep(50);
} // Program needs to be running to receive.
}
case "mtk3339":
{
BBBPinManager.AddMappingUART(BBBPin.P9_24);
BBBPinManager.AddMappingUART(BBBPin.P9_26);
BBBPinManager.ApplyPinSettings(BBBPinManager.ApplicationMode.APPLY_REGARDLESS);
IUARTBus UART = UARTBBB.UARTBus1;
Log.Output(Log.Severity.INFO, Log.Source.HARDWAREIO, "Press any key to stop.");
while (Console.KeyAvailable)
{
Console.ReadKey();
}
byte[] Buffer = new byte[32];
while (true)
{
Thread.Sleep(10);
if (UART.BytesAvailable() > 0)
{
int Count = UART.Read(32, Buffer);
Console.Write(System.Text.Encoding.ASCII.GetString(UtilMain.SubArray(Buffer, 0, Count)));
}
if (Console.KeyAvailable)
{
break;
}
}
break;
}
}
}
public static void Start(string[] args)
{
if (args.Length < 2)
{
TestMain.ErrorExit("Device testing needs device to test.");
}
switch (args[1].ToLower())
{
case "hx711":
{
if (args.Length < 5)
{
TestMain.ErrorExit("Insufficient info to run HX711 test. See help.");
}
IDigitalIn DataPin = null;
IDigitalOut ClockPin = null;
if (args[2].Equals("pi", StringComparison.InvariantCultureIgnoreCase))
{
RaspberryPi.Initialize();
DataPin = new DigitalInPi(int.Parse(args[3]));
ClockPin = new DigitalOutPi(int.Parse(args[4]));
}
else if (args[2].Equals("bbb", StringComparison.InvariantCultureIgnoreCase))
{
BeagleBone.Initialize(SystemMode.DEFAULT, true);
BBBPin DataBBBPin = IOBBB.StringToPin(args[3]);
BBBPin ClockBBBPin = IOBBB.StringToPin(args[4]);
BBBPinManager.AddMappingGPIO(DataBBBPin, false, ResistorState.NONE);
BBBPinManager.AddMappingGPIO(ClockBBBPin, true, ResistorState.NONE);
BBBPinManager.ApplyPinSettings(BBBPinManager.ApplicationMode.APPLY_IF_NONE);
DataPin = new DigitalInBBB(DataBBBPin);
ClockPin = new DigitalOutBBB(ClockBBBPin);
}
else
{
TestMain.ErrorExit("HX711 test: Unknown platform. See help.");
}
HX711 DUT = new HX711(ClockPin, DataPin);
while (Console.KeyAvailable)
{
Console.ReadKey();
}
Log.Output(Log.Severity.INFO, Log.Source.GUI, "[w] to increase gain, [s] to decrease. [z] to zero.");
Log.Output(Log.Severity.INFO, Log.Source.GUI, "Press any other key to exit.");
HX711.Gain Gain = HX711.Gain.GAIN_128x;
bool Continue = true;
while (Continue)
{
if (Console.KeyAvailable)
{
char Key = Console.ReadKey().KeyChar;
switch (Key)
{
case 'w':
{
if (Gain == HX711.Gain.GAIN_32x)
{
Gain = HX711.Gain.GAIN_64x;
}
else if (Gain == HX711.Gain.GAIN_64x)
{
Gain = HX711.Gain.GAIN_128x;
}
else
{
Log.Output(Log.Severity.ERROR, Log.Source.SENSORS, "Gain at maximum already.");
}
DUT.SetGain(Gain);
Log.Output(Log.Severity.INFO, Log.Source.SENSORS, "Gain now at " + Gain);
break;
}
case 's':
{
if (Gain == HX711.Gain.GAIN_128x)
{
Gain = HX711.Gain.GAIN_64x;
}
else if (Gain == HX711.Gain.GAIN_64x)
{
Gain = HX711.Gain.GAIN_32x;
}
else
{
Log.Output(Log.Severity.ERROR, Log.Source.SENSORS, "Gain at minimum already.");
}
DUT.SetGain(Gain);
Log.Output(Log.Severity.INFO, Log.Source.SENSORS, "Gain now at " + Gain);
break;
}
case 'z':
{
DUT.Tare();
Log.Output(Log.Severity.INFO, Log.Source.SENSORS, "Tared.");
break;
}
default:
{
Continue = false;
break;
}
}
}
DUT.UpdateState();
Log.Output(Log.Severity.INFO, Log.Source.SENSORS, "HX711 readings: Raw: " + DUT.GetRawReading() + ", Adjusted: " + DUT.GetAdjustedReading());
Thread.Sleep(250);
}
break;
}
default:
{
TestMain.ErrorExit("Unknown device.");
break;
}
}
}
public static void Start(string[] args)
{
if (args.Length < 2)
{
TestMain.ErrorExit("perf command requires functionality to test.");
}
switch (args[1].ToLower())
{
case "dataunit":
{
if (args.Length < 3)
{
TestMain.ErrorExit("perf dataunit command requires # of elements to test.");
}
int TestLength = int.Parse(args[2]);
Log.Output(Log.Severity.INFO, Log.Source.OTHER, "Testing DataUnit performance, " + TestLength.ToString("N0", CultureInfo.InvariantCulture) + " iterations.");
Log.Output(Log.Severity.INFO, Log.Source.OTHER, "Generating keyset...");
string[] Values = { "Erza", "Homura", "Reika", "Jibril", "Aqua", "Kurisu" };
byte[] IDs = new byte[TestLength];
Random Random = new Random();
for (int i = 0; i < IDs.Length; i++)
{
IDs[i] = (byte)Random.Next(Values.Length);
}
DataUnit DUT = new DataUnit("Testing Structure"); // DataUnit under Test
Log.Output(Log.Severity.INFO, Log.Source.OTHER, "Writing to DataUnit...");
Stopwatch Stopwatch = Stopwatch.StartNew();
for (int i = 0; i < IDs.Length; i++)
{
DUT.Add(i.ToString(), Values[IDs[i]]);
}
Stopwatch.Stop();
Log.Output(Log.Severity.INFO, Log.Source.OTHER, " Took " + Math.Round(Stopwatch.ElapsedTicks * 1000F / Stopwatch.Frequency, 5) + "ms.");
Log.Output(Log.Severity.INFO, Log.Source.OTHER, "Reading from DataUnit...");
Stopwatch = Stopwatch.StartNew();
for (int i = 0; i < IDs.Length; i++)
{
DUT.GetValue <string>(i.ToString());
}
Stopwatch.Stop();
Log.Output(Log.Severity.INFO, Log.Source.OTHER, " Took " + Math.Round(Stopwatch.ElapsedTicks * 1000F / Stopwatch.Frequency, 5) + "ms.");
break;
}
case "filter":
{
if (args.Length < 3)
{
TestMain.ErrorExit("perf filter command requires filter type to test.");
}
if (args[2] != "lowpass" && args[2] != "average")
{
TestMain.ErrorExit("Invalid filter type supplied.");
}
if (args.Length < 4)
{
TestMain.ErrorExit("perf filter command requires # of cycles to test.");
}
IFilter <double> FUT = null;
switch (args[2].ToLower())
{
case "lowpass": { FUT = new LowPass <double>(); break; }
case "average": { FUT = new Average <double>(); break; }
}
int TestLength = int.Parse(args[3]);
Log.Output(Log.Severity.INFO, Log.Source.OTHER, "Testing Filter performance, " + TestLength.ToString("N0", CultureInfo.InvariantCulture) + " iterations.");
Log.Output(Log.Severity.INFO, Log.Source.OTHER, "Generating inputs...");
double[] Inputs = new double[TestLength];
Random Random = new Random();
for (int i = 0; i < Inputs.Length; i++)
{
Inputs[i] = Random.NextDouble();
}
Log.Output(Log.Severity.INFO, Log.Source.OTHER, "Cycling Filter...");
Stopwatch Stopwatch = Stopwatch.StartNew();
for (int i = 0; i < Inputs.Length; i++)
{
FUT.Feed(Inputs[i]);
double Output = FUT.GetOutput();
}
Stopwatch.Stop();
Log.Output(Log.Severity.INFO, Log.Source.OTHER, " Took " + Math.Round(Stopwatch.ElapsedTicks * 1000F / Stopwatch.Frequency, 5) + "ms.");
break;
}
}
}
