/// <summary>Executes the command.</summary>
/// <returns>The command's exit code.</returns>
/// <remarks>
/// NOTE: This test app uses the base class's <see cref="CreateI2cDevice"/> method to create a device.<br/>
/// Real-world usage would simply create an instance of an <see cref="I2cDevice"/> implementation:
/// <code>using (var i2cDevice = new UnixI2cDevice(connectionSettings))</code>
/// </remarks>
public int Execute()
{
if (FirstRegister == null)
{
Console.WriteLine($"Device={Device}, BusId={BusId}, DeviceAddress={DeviceAddress} (0x{DeviceAddress:X2}), ByteCount={ByteCount}");
}
else
{
Console.WriteLine($"Device={Device}, BusId={BusId}, DeviceAddress={DeviceAddress} (0x{DeviceAddress:X2}), FirstRegister={ FirstRegister} (0x{FirstRegister:X2}), ByteCount={ByteCount}");
}
var connectionSettings = new I2cConnectionSettings(BusId, DeviceAddress);
using (var i2cDevice = CreateI2cDevice(connectionSettings))
{
// Set to first address if needed.
if (FirstRegister != null)
{
i2cDevice.WriteByte((byte)FirstRegister);
}
// Read bytes of data.
var buffer = new byte[ByteCount];
i2cDevice.Read(buffer.AsSpan());
Console.WriteLine($"Bytes Read:{Environment.NewLine}{HexStringUtilities.FormatByteData(buffer)}");
}
return(0);
}
/// <summary>Executes the command.</summary>
/// <returns>The command's exit code.</returns>
/// <remarks>
/// NOTE: This test app uses the base class's <see cref="CreateI2cDevice"/> method to create a device.<br/>
/// Real-world usage would simply create an instance of an <see cref="I2cDevice"/> implementation:
/// <code>using (var i2c = new UnixI2cDevice(connectionSettings))</code>
/// </remarks>
public int Execute()
{
Console.WriteLine($"ByteCount={ByteCount}, BusId={BusId}, DeviceAddress={DeviceAddress}, Device={Device}");
var connectionSettings = new I2cConnectionSettings(BusId, DeviceAddress);
using (var i2c = CreateI2cDevice(connectionSettings))
{
// Read bytes of data
var buffer = new byte[ByteCount];
i2c.Read(buffer.AsSpan());
Console.WriteLine($"Bytes read:{Environment.NewLine}{HexStringUtilities.FormatByteData(buffer)}");
}
return(0);
}
/// <summary>Executes the command.</summary>
/// <returns>The command's exit code.</returns>
/// <remarks>
/// NOTE: This test app uses the base class's <see cref="CreateI2cDevice"/> method to create a device.<br/>
/// Real-world usage would simply create an instance of an <see cref="I2cDevice"/> implementation:
/// <code>using (var i2cDevice = new UnixI2cDevice(connectionSettings))</code>
/// </remarks>
public int Execute()
{
Console.WriteLine($"Device={Device}, BusId={BusId}, DeviceAddress={DeviceAddress} (0x{DeviceAddress:X2}), ByteCount={ByteCount}");
var connectionSettings = new I2cConnectionSettings(BusId, DeviceAddress);
using (var i2cDevice = CreateI2cDevice(connectionSettings))
{
// Write random bytes of data
var buffer = new byte[ByteCount];
new Random().NextBytes(buffer);
Console.WriteLine($"Writing Random Bytes:{Environment.NewLine}{HexStringUtilities.FormatByteData(buffer)}");
i2cDevice.Write(buffer.AsSpan());
}
return(0);
}
/// <summary>Executes the command.</summary>
/// <returns>The command's exit code.</returns>
/// <remarks>
/// NOTE: This test app uses the base class's <see cref="CreateSpiDevice"/> method to create a device.<br/>
/// Real-world usage would simply create an instance of a <see cref="SpiDevice"/> implementation:
/// <code>using (var spi = new UnixSpiDevice(connectionSettings))</code>
/// </remarks>
public int Execute()
{
Console.WriteLine($"ByteCount={ByteCount}, BusId={BusId}, ChipSelectLine={ChipSelectLine}, Mode={Mode}, DataBitLength={DataBitLength}, ClockFrequency={ClockFrequency}, Device={Device}");
var connectionSettings = new SpiConnectionSettings(BusId, ChipSelectLine)
{
ClockFrequency = ClockFrequency,
DataBitLength = DataBitLength,
Mode = Mode,
};
using (var spiDevice = CreateSpiDevice(connectionSettings))
{
// Read bytes of data
var buffer = new byte[ByteCount];
spiDevice.Read(buffer.AsSpan());
Console.WriteLine($"Bytes read:{Environment.NewLine}{HexStringUtilities.FormatByteData(buffer)}");
}
return(0);
}