private static void Main(string[] args)
{
if (args.Length != 1)
{
Console.WriteLine("Usage: led-matrix-weather <openweathermap.org API key>");
Console.WriteLine();
Console.WriteLine("If wrong key is used or there is no network connection");
Console.WriteLine("example data will be displayed.");
Console.WriteLine();
Console.WriteLine("For the first 30 seconds of execution");
Console.WriteLine("IP addresses will be displayed instead of data.");
return;
}
s_client = new Weather(args[0]);
UpdateWeather();
Task.Run(WeatherUpdater);
Task.Run(IpsGetter);
PinMapping mapping = PinMapping.MatrixBonnetMapping32;
RGBLedMatrix matrix = new RGBLedMatrix(mapping, 64, 64, 2, 2);
Task drawing = Task.Run(() =>
{
matrix.StartRendering();
while (s_scenario is object)
{
Action <RGBLedMatrix> scenario = s_scenario;
Stopwatch sw = Stopwatch.StartNew();
scenario(matrix);
if (sw.ElapsedMilliseconds < 100)
{
Debug.WriteLine("Scenario execution finished in less than 100ms. This is likely due to bug.");
}
}
});
try
{
if (!Console.IsOutputRedirected)
{
while (s_scenario is object && Console.ReadKey(intercept: true).Key != ConsoleKey.Q)
{
Thread.Sleep(10);
}
s_scenario = null;
}
drawing.Wait();
}
finally
{
matrix.Dispose();
}
}
private void ArduinoSetup()
{
ledON = false;
toggleLED.BackColor = Color.Red;
serialPort = new ArduinoSerialPort("COM5", 115200);
serialPort.Open();
cwAnalogPinMapping = new PinMapping(11);
ccwAnalogPinMapping = new PinMapping(10);
pinMapping = new PinMapping(13);
eStop = new PinMapping(8);
serialPort.ComponentMappings.Add(cwAnalogPinMapping);
serialPort.ComponentMappings.Add(ccwAnalogPinMapping);
serialPort.ComponentMappings.Add(pinMapping);
serialPort.ComponentMappings.Add(eStop);
cwAnalogPinMapping.SetPinMode(SetPinModeStateCodes.OutputStateCode);
cwAnalogPinMapping.SetPinMode(SetPinModeStateCodes.OutputStateCode);
pinMapping.SetPinMode(SetPinModeStateCodes.OutputStateCode);
eStop.SetPinMode(SetPinModeStateCodes.OutputStateCode);
pinMapping.FeedbackEvent += new SkynetUtilities.FeedbackRecievedEventHandler(ResponsePackageRecieved);
this.replyPackageTextBox.Text = "0";
eStop.SetPin(true);
stopped = false;
}
public void InitializeArduino()
{
serialPort = new ArduinoSerialPort("COM5", 115200);
serialPort.Open();
cwAnalogPinMapping = new PinMapping(11);
ccwAnalogPinMapping = new PinMapping(10);
eStop = new PinMapping(8);
serialPort.ComponentMappings.Add(cwAnalogPinMapping);
serialPort.ComponentMappings.Add(ccwAnalogPinMapping);
serialPort.ComponentMappings.Add(eStop);
cwAnalogPinMapping.SetPinMode(SetPinModeStateCodes.OutputStateCode);
cwAnalogPinMapping.SetPinMode(SetPinModeStateCodes.OutputStateCode);
eStop.SetPinMode(SetPinModeStateCodes.OutputStateCode);
eStop.SetPin(true);
}
/// <summary>
/// Initialize a new Sn74hc595 device connected through GPIO (uses 3-5 pins)
/// </summary>
/// <param name="pinMapping">The pin mapping to use by the binding.</param>
/// <param name="gpioController">The GPIO Controller used for interrupt handling.</param>
/// <param name="shouldDispose">True (the default) if the GPIO controller shall be disposed when disposing this instance.</param>
/// <param name="deviceCount">Count of (daisy-chained) shift registers. Default/minimum is 1.</param>
public Sn74hc595(PinMapping pinMapping, GpioController gpioController = null, bool shouldDispose = true, int deviceCount = 1)
{
pinMapping.Validate();
if (gpioController == null)
{
gpioController = new GpioController();
}
_controller = gpioController;
_shouldDispose = shouldDispose;
_pinMapping = pinMapping;
_data = _pinMapping.Data;
_srclk = _pinMapping.SrClk;
_rclk = _pinMapping.RClk;
_deviceCount = deviceCount;
SetupPins();
}
/// <summary>
/// Initialize a new Sn74hc595 device connected through both SPI and GPIO (SPI for writing data; GPIO for configuration; use 4-5 pins)
/// </summary>
/// <param name="spiDevice">SpiDevice used for serial communication.</param>
/// <param name="pinMapping">The pin mapping to use by the binding</param>
/// <param name="gpioController">The GPIO Controller used for interrupt handling</param>
/// <param name="shouldDispose">True (the default) if the GPIO controller shall be disposed when disposing this instance</param>
/// <param name="deviceCount">Count of (daisy-chained) shift registers. Default/minimum is 1.</param>
public Sn74hc595(SpiDevice spiDevice, PinMapping pinMapping, GpioController gpioController = null, bool shouldDispose = true, int deviceCount = 1)
: this(pinMapping, gpioController, shouldDispose, deviceCount)
{
_spiDevice = spiDevice;
}
private static void Main(string[] args)
{
Console.WriteLine($"Hello Matrix World!");
// If using 64x64 with Bonnet (https://www.adafruit.com/product/3211), you can just do
// PinMapping mapping = PinMapping.MatrixBonnetMapping64;
// If using 32x32 with Bonnet (https://www.adafruit.com/product/3211), you can just do
PinMapping mapping = PinMapping.MatrixBonnetMapping32;
// If not using Bonnet, will need to provide the manual GPIO mapping using PinMapping
// To create RGBLedMatrix for 32x32 panel, do the following
RGBLedMatrix matrix = new RGBLedMatrix(mapping, 32, 32);
// To create RGBLedMatrix for 64x64 panel, do the following
// RGBLedMatrix matrix = new RGBLedMatrix(mapping, 64, 64);
// PinMapping mapping = PinMapping.MatrixBonnetMapping64;
// RGBLedMatrix matrix = new RGBLedMatrix(mapping, 64, 64);
// If you chain 4 32x32 panels serially, you can do
// RGBLedMatrix matrix = new RGBLedMatrix(mapping, 128, 32);
// If you chain 4 32x32 panels having 2 rows chaining (2 panels in first row an d2 panels in second row).
// RGBLedMatrix matrix = new RGBLedMatrix(mapping, 64, 64, 2, 2);
Task.Run(() =>
{
matrix.StartRendering();
while (scenario != 0)
{
switch (scenario)
{
case 1: Demo1(matrix); break;
case 2: Demo2(matrix); break;
case 3: Demo3(matrix); break;
case 4: Demo4(matrix); break;
case 5: Demo5(matrix); break;
case 6: Demo6(matrix); break;
case 7: Demo7(matrix); break;
case 8: Demo8(matrix); break;
default:
scenario = 2;
break;
}
}
});
ConsoleKeyInfo cki;
Console.WriteLine($"Press q to exit.");
System.Interop.ThreadHelper.SetCurrentThreadHighPriority();
do
{
cki = Console.ReadKey();
if (cki.KeyChar == '+')
{
matrix.PWMDuration = matrix.PWMDuration + 100;
Console.WriteLine($" ({matrix.PWMDuration})");
}
if (cki.KeyChar == '-')
{
matrix.PWMDuration = matrix.PWMDuration - 100;
Console.WriteLine($" ({matrix.PWMDuration})");
}
if (cki.KeyChar == 'f')
{
Console.WriteLine($"Frame Time: {matrix.FrameTime} \u00B5s");
Console.WriteLine($"Duration : { matrix.PWMDuration }");
}
if (cki.KeyChar >= '1' && cki.KeyChar <= '9')
{
play = false;
scenario = cki.KeyChar - '0';
Thread.Sleep(1000);
}
} while (cki.KeyChar != 'q');
play = false;
scenario = 0;
Thread.Sleep(1000);
matrix.Dispose();
}
public void ComputePinMapping()
{
this.pinMap.Clear();
List <string> bankA = new List <string>();
for (int i = 0; i < 16; i++)
{
bankA.Add(this.GPIONames[i].Name);
}
List <string> bankB = new List <string>();
for (int i = 16; i < 32; i++)
{
bankB.Add(this.GPIONames[i].Name);
}
foreach (BoardInfo plank in this.planks)
{
if (!plank.IsConfigured)
{
continue;
}
List <int> usedPins = new List <int>();
plank.PinMap.Clear();
for (int i = 0; i < plank.GPIONames.Count; i++)
{
if (plank.GPIONames[i].Name != "")
{
string lokiPin;
if (i < 16 && i < bankA.Count)
{
lokiPin = bankA[i];
}
else if (i < 32 && i - 16 < bankB.Count)
{
lokiPin = bankB[i - 16];
}
else
{
lokiPin = "N/C";
}
usedPins.Add(i);
PinMapping mapping = new PinMapping(lokiPin, plank, plank.GPIONames[i].Name, plank.GPIONames[i].Type);
plank.PinMap.Add(mapping);
this.pinMap.Add(mapping);
}
}
// Delete used pins
for (int i = plank.GPIONames.Count - 1; i >= 0; i--)
{
if (usedPins.Contains(i))
{
if (i < bankA.Count)
{
bankA.RemoveAt(i);
}
else if (i >= 16 && i - 16 < bankB.Count)
{
bankB.RemoveAt(i - 16);
}
}
}
}
}
public void ComputePinMapping()
{
this.pinMap.Clear();
List<string> bankA = new List<string>();
for (int i = 0; i < 16; i++)
bankA.Add(this.GPIONames[i].Name);
List<string> bankB = new List<string>();
for (int i = 16; i < 32; i++)
bankB.Add(this.GPIONames[i].Name);
foreach (BoardInfo plank in this.planks)
{
if (!plank.IsConfigured)
continue;
List<int> usedPins = new List<int>();
plank.PinMap.Clear();
for (int i = 0; i < plank.GPIONames.Count; i++)
{
if (plank.GPIONames[i].Name != "")
{
string lokiPin;
if (i < 16 && i < bankA.Count)
{
lokiPin = bankA[i];
}
else if (i < 32 && i - 16 < bankB.Count)
{
lokiPin = bankB[i - 16];
}
else
{
lokiPin = "N/C";
}
usedPins.Add(i);
PinMapping mapping = new PinMapping(lokiPin, plank, plank.GPIONames[i].Name, plank.GPIONames[i].Type);
plank.PinMap.Add(mapping);
this.pinMap.Add(mapping);
}
}
// Delete used pins
for (int i = plank.GPIONames.Count - 1; i >= 0; i--)
{
if (usedPins.Contains(i))
{
if (i < bankA.Count)
{
bankA.RemoveAt(i);
}
else if (i >= 16 && i - 16 < bankB.Count)
{
bankB.RemoveAt(i - 16);
}
}
}
}
}
