/// <summary>
/// Constructor for a single Expand click.
/// </summary>
/// <param name="socknum">mikroBUS socket number.</param>
/// <param name="remdev">Remote I/O server device object.</param>
public Board(int socknum, IO.Remote.Device remdev = null)
{
// Create Remote I/O server device object, if one wasn't supplied
if (remdev == null)
{
remdev = new IO.Remote.Device();
}
// Create a mikroBUS socket object
IO.Remote.mikroBUS.Socket S =
new IO.Remote.mikroBUS.Socket(socknum);
// Configure hardware reset GPIO pin
myrst = remdev.GPIO_Create(S.RST,
IO.Interfaces.GPIO.Direction.Output, true);
// Issue hardware reset
Reset();
// Create MCP23S17 device object
mydev = new IO.Devices.MCP23S17.Device(remdev.SPI_Create(S.SPIDev,
IO.Devices.MCP23S17.Device.SPI_Mode,
IO.Devices.MCP23S17.Device.SPI_WordSize,
IO.Devices.MCP23S17.Device.SPI_Frequency));
}
static void Main(string[] args)
{
Console.WriteLine("\nGrove I2C A/D Converter Test\n");
IO.Interfaces.Message64.Messenger m =
new IO.Objects.libsimpleio.HID.Messenger();
IO.Remote.Device dev = new IO.Remote.Device(m);
IO.Interfaces.I2C.Bus bus =
new IO.Remote.I2C(dev, 0);
IO.Interfaces.ADC.Sample adc =
new IO.Devices.ADC121C021.Sample(bus, 0x50);
IO.Interfaces.ADC.Input inp =
new IO.Interfaces.ADC.Input(adc, 3.0, 0.5);
Console.WriteLine("Resolution: " + adc.resolution.ToString() + " bits\n");
for (;;)
{
Console.WriteLine("Voltage => " + inp.voltage.ToString("F2"));
Thread.Sleep(1000);
}
}
/// <summary>
/// Constructor for a single PWM click.
/// </summary>
/// <param name="socknum">mikroBUS socket number.</param>
/// <param name="freq">PWM pulse frequency in Hz.</param>
/// <param name="addr">I<sup>2</sup>C slave address.</param>
/// <param name="remdev">Remote I/O device object.</param>
public Board(int socknum, int freq, int addr = DefaultAddress,
IO.Remote.Device remdev = null)
{
// Create Remote I/O server device object, if one wasn't supplied
if (remdev == null)
{
remdev = new IO.Remote.Device();
}
// Create a mikroBUS socket object
IO.Remote.mikroBUS.Socket S =
new IO.Remote.mikroBUS.Socket(socknum);
IO.Interfaces.I2C.Bus bus;
if (IO.Remote.mikroBUS.Shield.I2CBus is null)
{
bus = remdev.I2C_Create(S.I2CBus);
}
else
{
bus = IO.Remote.mikroBUS.Shield.I2CBus;
}
mydev = new IO.Devices.PCA9685.Device(bus, addr, freq);
}
static void Main(string[] args)
{
Console.WriteLine("\nHDC1080 Temperature/Humidity Sensor Test\n");
IO.Remote.Device remdev =
new IO.Remote.Device(new IO.Objects.USB.HID.Messenger());
IO.Interfaces.I2C.Bus bus = new IO.Remote.I2C(remdev, 0);
IO.Devices.HDC1080.Device dev = new IO.Devices.HDC1080.Device(bus);
Console.Write("Manufacturer ID: 0x" + dev.ManufacturerID.ToString("X4"));
Console.Write(" ");
Console.WriteLine("Device ID: 0x" + dev.DeviceID.ToString("X4"));
Console.WriteLine();
for (;;)
{
Console.Write("Temperature: " + dev.Temperature.ToString("F1"));
Console.Write(" ");
Console.Write("Humidity: " + dev.Humidity.ToString("F1"));
Console.WriteLine();
System.Threading.Thread.Sleep(1000);
}
}
static void Main(string[] args)
{
Console.WriteLine("\nTH02 Temperature/Humidity Sensor Test\n");
IO.Interfaces.Message64.Messenger msg =
new IO.Objects.libsimpleio.HID.Messenger();
IO.Remote.Device remdev = new IO.Remote.Device(msg);
IO.Interfaces.I2C.Bus bus = new IO.Remote.I2C(remdev, 0);
IO.Devices.TH02.Device dev = new IO.Devices.TH02.Device(bus);
Console.WriteLine("Device ID: 0x" + dev.DeviceID.ToString("X2"));
Console.WriteLine();
for (;;)
{
Console.Write("Temperature: " + dev.Temperature.ToString("F1"));
Console.Write(" ");
Console.Write("Humidity: " + dev.Humidity.ToString("F1"));
Console.WriteLine();
System.Threading.Thread.Sleep(1000);
}
}
static void Main(string[] args)
{
Console.WriteLine("\nmikroBUS Analog Input Test\n");
// Get mikroBUS socket number
Console.Write("Socket number? ");
var num = int.Parse(Console.ReadLine());
// Create objects
var socket = new IO.Remote.mikroBUS.Socket(num);
var remdev = new IO.Remote.Device();
IO.Interfaces.ADC.Sample AIN = remdev.ADC_Create(socket.AIN);
Console.WriteLine("\nADC Resolution => " + AIN.resolution.ToString() +
" bits\n");
// Display analog input samples
for (;;)
{
Console.WriteLine("Sample => " + AIN.sample.ToString());
System.Threading.Thread.Sleep(1000);
}
}
static void Main(string[] args)
{
Console.WriteLine("\nGPIO Pin Toggle Test\n");
IO.Interfaces.Message64.Messenger m =
new IO.Objects.libsimpleio.HID.Messenger();
IO.Remote.Device dev = new IO.Remote.Device(m);
// Create GPIO pin object
Console.Write("GPIO channel number? ");
IO.Interfaces.GPIO.Pin Output =
new IO.Remote.GPIO(dev, int.Parse(Console.ReadLine()),
IO.Interfaces.GPIO.Direction.Output);
// Toggle the GPIO output
Console.WriteLine("\nPress CONTROL-C to exit");
for (;;)
{
Output.state = !Output.state;
}
}
static void Main(string[] args)
{
Console.WriteLine("\nRemote I/O Digilent Pmod-HYGRO Temperature/Humidity Sensor Test\n");
IO.Remote.Device remdev = new IO.Remote.Device();
IO.Interfaces.I2C.Bus bus = new IO.Remote.I2C(remdev, 0);
IO.Devices.Pmod.HYGRO.Device dev =
new IO.Devices.Pmod.HYGRO.Device(bus);
Console.Write("Manufacturer ID: 0x" + dev.ManufacturerID.ToString("X4"));
Console.Write(" ");
Console.WriteLine("Device ID: 0x" + dev.DeviceID.ToString("X4"));
Console.WriteLine();
for (;;)
{
Console.Write("Temperature: " + dev.Celsius.ToString("F1"));
Console.Write(" ");
Console.Write("Humidity: " + dev.Humidity.ToString("F1"));
Console.WriteLine();
System.Threading.Thread.Sleep(1000);
}
}
public static Int32 Main(string[] args)
{
Console.WriteLine("\nRemote I/O Protocol Client\n");
IO.Remote.Device dev =
new IO.Remote.Device(new IO.Objects.USB.HID.Messenger());
Console.WriteLine(dev.Version);
Console.WriteLine(dev.Capabilities);
return(0);
}
/// <summary>
/// Constructor for a single 7seg click.
/// </summary>
/// <param name="socket">mikroBUS socket number.</param>
/// <param name="radix">Numerical base or radix. Allowed values are
/// <c>Decimal</c> and <c>Hexadecimal</c>.</param>
/// <param name="blanking">Zero blanking. Allowed values are
/// <c>None</c>, <c>Leading</c>, and <c>Full</c>.</param>
/// <param name="pwmfreq">PWM frequency. Set to zero to use GPIO
/// instead of PWM.</param>
/// <param name="remdev">Remote I/O server device object.</param>
public Board(int socket, Base radix = Base.Decimal,
ZeroBlanking blanking = ZeroBlanking.None, int pwmfreq = 100,
IO.Remote.Device remdev = null)
{
// Create Remote I/O server device object, if one wasn't supplied
if (remdev == null)
{
remdev = new IO.Remote.Device();
}
// Create a mikroBUS socket object
IO.Remote.mikroBUS.Socket S =
new IO.Remote.mikroBUS.Socket(socket);
// Configure hardware reset GPIO pin
myRSTgpio = remdev.GPIO_Create(S.RST,
IO.Interfaces.GPIO.Direction.Output, true);
// Issue hardware reset
Reset();
// Configure PWM pin -- Prefer PWM over GPIO, if possible, and
// assume full brightness until otherwise changed.
myPWMgpio = null;
myPWMout = null;
if ((pwmfreq > 0) && (S.PWMOut != IO.Remote.Device.Unavailable))
{
myPWMout = remdev.PWM_Create(S.PWMOut, pwmfreq, 100.0);
}
else if (S.PWM != IO.Remote.Device.Unavailable)
{
myPWMgpio = remdev.GPIO_Create(S.PWM,
IO.Interfaces.GPIO.Direction.Output, true);
}
// Configure 74HC595 shift register chain
mychain = new SN74HC595.Device(remdev.SPI_Create(S.SPIDev,
IO.Devices.SN74HC595.Device.SPI_Mode, 8,
IO.Devices.SN74HC595.Device.SPI_MaxFreq), 2);
myradix = radix;
myblanking = blanking;
Clear();
}
static void Main(string[] args)
{
Console.WriteLine("\nLED Toggle Test\n");
IO.Remote.Device dev = new IO.Remote.Device(new IO.Objects.USB.HID.Messenger());
IO.Interfaces.GPIO.Pin LED = dev.GPIO_Create(0, IO.Interfaces.GPIO.Direction.Output);
for (;;)
{
LED.state = !LED.state;
Thread.Sleep(500);
}
}
static void Main(string[] args)
{
Console.WriteLine("\nRemote I/O LED Toggle Test\n");
IO.Remote.Device remdev = new IO.Remote.Device();
IO.Interfaces.GPIO.Pin LED =
remdev.GPIO_Create(0, IO.Interfaces.GPIO.Direction.Output);
for (;;)
{
LED.state = !LED.state;
System.Threading.Thread.Sleep(500);
}
}
static void Main(string[] args)
{
Console.WriteLine("\nRemote I/O PCA8574 GPIO Port Toggle Test\n");
IO.Remote.Device remdev = new IO.Remote.Device();
IO.Interfaces.I2C.Bus bus = new IO.Remote.I2C(remdev, 0);
IO.Devices.PCA8574.Device dev = new IO.Devices.PCA8574.Device(bus, 0x38);
for (;;)
{
dev.Write(0x55);
dev.Write(0xAA);
}
}
static void Main(string[] args)
{
Console.WriteLine("\nDAC Output Test using libsimpleio\n");
IO.Interfaces.Message64.Messenger m =
new IO.Objects.libsimpleio.HID.Messenger();
IO.Remote.Device dev = new IO.Remote.Device(m);
Console.Write("Channels: ");
foreach (int output in dev.DAC_Available())
{
Console.Write(" " + output.ToString());
}
Console.WriteLine();
ArrayList S = new ArrayList();
foreach (int c in dev.DAC_Available())
{
S.Add(new IO.Remote.DAC(dev, c));
}
Console.Write("Resolutions: ");
foreach (IO.Interfaces.DAC.Sample output in S)
{
Console.Write(" " + output.resolution.ToString());
}
Console.WriteLine();
for (;;)
{
int n;
for (n = 0; n < 4096; n++)
{
foreach (IO.Interfaces.DAC.Sample output in S)
{
output.sample = n;
}
}
}
}
static void Main(string[] args)
{
Console.WriteLine("\nUSB HID Remote I/O Button and LED Test\n");
IO.Interfaces.Message64.Messenger m =
new IO.Objects.libsimpleio.HID.Messenger();
IO.Remote.Device d = new IO.Remote.Device(m);
// Configure LED output
IO.Interfaces.GPIO.Pin LD1 =
new IO.Remote.GPIO(d, 0, IO.Interfaces.GPIO.Direction.Output);
// Configure button input
IO.Interfaces.GPIO.Pin SW1 =
new IO.Remote.GPIO(d, 1, IO.Interfaces.GPIO.Direction.Input);
bool OldState = !SW1.state;
bool NewState = OldState;
// Read the button and write the LED
for (;;)
{
NewState = SW1.state;
if (NewState != OldState)
{
if (NewState)
{
Console.WriteLine("PRESSED");
LD1.state = true;
}
else
{
Console.WriteLine("RELEASED");
LD1.state = false;
}
OldState = NewState;
}
System.Threading.Thread.Sleep(100);
}
}
static void Main(string[] args)
{
Console.WriteLine("\nUSB HID Remote I/O Analog Input Test\n");
IO.Interfaces.Message64.Messenger m =
new IO.Objects.libsimpleio.HID.Messenger();
IO.Remote.Device dev = new IO.Remote.Device(m);
Console.Write("Channels: ");
foreach (int input in dev.ADC_Available())
{
Console.Write(" " + input.ToString());
}
Console.WriteLine();
ArrayList S = new ArrayList();
foreach (int c in dev.ADC_Available())
{
S.Add(new IO.Remote.ADC(dev, c));
}
Console.Write("Resolutions: ");
foreach (IO.Interfaces.ADC.Sample inp in S)
{
Console.Write(" " + inp.resolution.ToString());
}
Console.WriteLine();
for (;;)
{
Console.Write("Samples: ");
foreach (IO.Interfaces.ADC.Sample inp in S)
{
Console.Write(String.Format(" {0:00000}", inp.sample));
}
Console.WriteLine();
Thread.Sleep(2000);
}
}
static void Main(string[] args)
{
Console.WriteLine("\nPWM Output Test\n");
IO.Interfaces.Message64.Messenger m =
new IO.Objects.libsimpleio.HID.Messenger();
IO.Remote.Device dev = new IO.Remote.Device(m);
Console.Write("Channels:");
foreach (int output in dev.PWM_Available())
{
Console.Write(" " + output.ToString());
}
Console.WriteLine();
ArrayList S = new ArrayList();
foreach (int c in dev.PWM_Available())
{
S.Add(new IO.Remote.PWM(dev, c, 1000));
}
for (;;)
{
int n;
for (n = 0; n < 500; n++)
{
foreach (IO.Interfaces.PWM.Output output in S)
{
output.dutycycle = n / 5.0;
}
}
for (n = 500; n >= 0; n--)
{
foreach (IO.Interfaces.PWM.Output output in S)
{
output.dutycycle = n / 5.0;
}
}
}
}
/// <summary>
/// Constructor for a single ADAC click.
/// </summary>
/// <param name="socknum">mikroBUS socket number.</param>
/// <param name="addr">I<sup>2</sup>C slave address.</param>
/// <param name="remdev">Remote I/O server device object.</param>
public Board(int socknum, int addr = DefaultAddress,
IO.Remote.Device remdev = null)
{
// Create Remote I/O server device object, if one wasn't supplied
if (remdev == null)
{
remdev = new IO.Remote.Device();
}
// Create a mikroBUS socket object
IO.Remote.mikroBUS.Socket S =
new IO.Remote.mikroBUS.Socket(socknum);
// Configure hardware reset GPIO pin
myrst = remdev.GPIO_Create(S.RST,
IO.Interfaces.GPIO.Direction.Output, true);
// Issue hardware reset
Reset();
// Configure I2C bus
IO.Interfaces.I2C.Bus bus;
if (IO.Remote.mikroBUS.Shield.I2CBus is null)
{
bus = remdev.I2C_Create(S.I2CBus);
}
else
{
bus = IO.Remote.mikroBUS.Shield.I2CBus;
}
// Configure AD5593R
mydev = new IO.Devices.AD5593R.Device(bus, addr);
// The ADAC click is wired for 0-5.0V on both ADC and DAC
mydev.ADC_Reference = IO.Devices.AD5593R.ReferenceMode.Internalx2;
mydev.DAC_Reference = IO.Devices.AD5593R.ReferenceMode.Internalx2;
}
static void Main(string[] args)
{
Console.WriteLine("\nServo Output Test\n");
IO.Interfaces.Message64.Messenger m =
new IO.Objects.libsimpleio.HID.Messenger();
IO.Remote.Device dev = new IO.Remote.Device(m);
Console.Write("Channels:");
foreach (int output in dev.PWM_Available())
{
Console.Write(" " + output.ToString());
}
Console.WriteLine();
ArrayList S = new ArrayList();
foreach (int c in dev.PWM_Available())
{
S.Add(new IO.Objects.Servo.PWM.Output(new IO.Remote.PWM(dev, c, 50), 50));
}
for (;;)
{
int n;
for (n = -300; n <= 300; n++)
{
foreach (IO.Interfaces.Servo.Output output in S)
{
output.position = n / 300.0;
}
}
for (n = 300; n >= -300; n--)
{
foreach (IO.Interfaces.Servo.Output output in S)
{
output.position = n / 300.0;
}
}
}
}
static void Main(string[] args)
{
Console.WriteLine("\nA4988 Stepper Motor Driver Test\n");
IO.Remote.Device remdev = new IO.Remote.Device();
// Get the number of descrete steps the motor under test has
Console.Write("Number of steps? ");
int numsteps = int.Parse(Console.ReadLine());
// Create STEP signal GPIO pin object
Console.Write("STEP signal GPIO pin number? ");
IO.Interfaces.GPIO.Pin Step_Pin =
new IO.Remote.GPIO(remdev, int.Parse(Console.ReadLine()),
IO.Interfaces.GPIO.Direction.Output);
// Create DIR signal GPIO pin object
Console.Write("DIR signal GPIO pin number? ");
IO.Interfaces.GPIO.Pin Dir_Pin =
new IO.Remote.GPIO(remdev, int.Parse(Console.ReadLine()),
IO.Interfaces.GPIO.Direction.Output);
Console.WriteLine();
// Create A4988 device object
IO.Interfaces.Stepper.Output outp =
new IO.Devices.A4988.Device(numsteps, Step_Pin, Dir_Pin);
for (;;)
{
Console.Write("Steps? ");
int steps = int.Parse(Console.ReadLine());
Console.Write("Rate? ");
float rate = float.Parse(Console.ReadLine());
outp.Move(steps, rate);
}
}
static void Main(string[] args)
{
Console.WriteLine("\nUSB HID Remote I/O Device LED Test\n");
IO.Interfaces.Message64.Messenger m =
new IO.Objects.libsimpleio.HID.Messenger();
IO.Remote.Device dev = new IO.Remote.Device(m);
IO.Interfaces.GPIO.Pin LED =
dev.GPIO_Create(0, IO.Interfaces.GPIO.Direction.Output);
for (;;)
{
LED.state = !LED.state;
Thread.Sleep(500);
}
}
static void Main(string[] args)
{
Console.WriteLine("\nRemote I/O PCA8574 GPIO Pin Toggle Test\n");
IO.Remote.Device remdev = new IO.Remote.Device();
IO.Interfaces.I2C.Bus bus = new IO.Remote.I2C(remdev, 0);
IO.Devices.PCA8574.Device dev = new IO.Devices.PCA8574.Device(bus, 0x38);
IO.Interfaces.GPIO.Pin GPIO0 = new IO.Devices.PCA8574.GPIO.Pin(dev, 0,
IO.Interfaces.GPIO.Direction.Output, false);
for (;;)
{
GPIO0.state = !GPIO0.state;
}
}
static void Main(string[] args)
{
Console.WriteLine("\nRemote I/O Grove ADC Test\n");
IO.Remote.Device remdev = new IO.Remote.Device();
IO.Interfaces.I2C.Bus bus =
new IO.Remote.I2C(remdev, 0);
IO.Devices.Grove.ADC.Device ain =
new IO.Devices.Grove.ADC.Device(bus);
for (;;)
{
Console.WriteLine("Voltage => " + ain.voltage.ToString("F2"));
System.Threading.Thread.Sleep(1000);
}
}
static void Main(string[] args)
{
Console.WriteLine("\nPCA9534 GPIO Port Toggle Test\n");
IO.Remote.Device remdev =
new IO.Remote.Device(new IO.Objects.USB.HID.Messenger());
IO.Interfaces.I2C.Bus bus = new IO.Remote.I2C(remdev, 0);
IO.Devices.PCA9534.Device dev = new IO.Devices.PCA9534.Device(bus, 0x27,
IO.Devices.PCA9534.Device.AllOutputs);
for (;;)
{
dev.Write(0x55);
dev.Write(0xAA);
}
}
static void Main(string[] args)
{
Console.WriteLine("\nRemote I/O Analog Output Test\n");
IO.Remote.Device remdev = new IO.Remote.Device();
Console.Write("Channels: ");
foreach (int output in remdev.DAC_Available())
{
Console.Write(" " + output.ToString());
}
Console.WriteLine();
ArrayList S = new ArrayList();
foreach (int c in remdev.DAC_Available())
{
S.Add(new IO.Remote.DAC(remdev, c));
}
Console.Write("Resolutions: ");
foreach (IO.Interfaces.DAC.Sample output in S)
{
Console.Write(" " + output.resolution.ToString());
}
Console.WriteLine();
for (;;)
{
int n;
for (n = 0; n < 4096; n++)
{
foreach (IO.Interfaces.DAC.Sample output in S)
{
output.sample = n;
}
}
}
}
static void Main(string[] args)
{
Console.WriteLine("\nRemote I/O GPIO Button and LED Test\n");
IO.Remote.Device remdev = new IO.Remote.Device();
// Configure LED output
IO.Interfaces.GPIO.Pin LD1 =
new IO.Remote.GPIO(remdev, 0, IO.Interfaces.GPIO.Direction.Output);
// Configure button input
IO.Interfaces.GPIO.Pin SW1 =
new IO.Remote.GPIO(remdev, 1, IO.Interfaces.GPIO.Direction.Input);
bool OldState = !SW1.state;
bool NewState = OldState;
// Read the button and write the LED
for (;;)
{
NewState = SW1.state;
if (NewState != OldState)
{
if (NewState)
{
Console.WriteLine("PRESSED");
LD1.state = true;
}
else
{
Console.WriteLine("RELEASED");
LD1.state = false;
}
OldState = NewState;
}
System.Threading.Thread.Sleep(100);
}
}
static void Main(string[] args)
{
Console.WriteLine("\nRemote I/O Analog Input Test\n");
IO.Remote.Device remdev = new IO.Remote.Device();
Console.Write("Channels: ");
foreach (int input in remdev.ADC_Available())
{
Console.Write(" " + input.ToString());
}
Console.WriteLine();
ArrayList S = new ArrayList();
foreach (int c in remdev.ADC_Available())
{
S.Add(new IO.Remote.ADC(remdev, c));
}
Console.Write("Resolutions: ");
foreach (IO.Interfaces.ADC.Sample inp in S)
{
Console.Write(" " + inp.resolution.ToString());
}
Console.WriteLine();
for (;;)
{
Console.Write("Samples: ");
foreach (IO.Interfaces.ADC.Sample inp in S)
{
Console.Write(String.Format(" {0:00000}", inp.sample));
}
Console.WriteLine();
System.Threading.Thread.Sleep(2000);
}
}
static void Main(string[] args)
{
Console.WriteLine("\nPCA9534 GPIO Pin Toggle Test\n");
IO.Remote.Device remdev =
new IO.Remote.Device(new IO.Objects.USB.HID.Messenger());
IO.Interfaces.I2C.Bus bus = new IO.Remote.I2C(remdev, 0);
IO.Devices.PCA9534.Device dev = new IO.Devices.PCA9534.Device(bus, 0x27);
IO.Interfaces.GPIO.Pin GPIO0 = new IO.Devices.PCA9534.GPIO.Pin(dev, 0,
IO.Interfaces.GPIO.Direction.Output, false);
for (;;)
{
GPIO0.state = !GPIO0.state;
}
}
static void Main(string[] args)
{
Console.WriteLine("\nRemote I/O PWM Output Test\n");
IO.Remote.Device remdev = new IO.Remote.Device();
Console.Write("Channels:");
foreach (int output in remdev.PWM_Available())
{
Console.Write(" " + output.ToString());
}
Console.WriteLine();
ArrayList S = new ArrayList();
foreach (int c in remdev.PWM_Available())
{
S.Add(new IO.Remote.PWM(remdev, c, 1000));
}
for (;;)
{
int n;
for (n = 0; n < 500; n++)
{
foreach (IO.Interfaces.PWM.Output output in S)
{
output.dutycycle = n / 5.0;
}
}
for (n = 500; n >= 0; n--)
{
foreach (IO.Interfaces.PWM.Output output in S)
{
output.dutycycle = n / 5.0;
}
}
}
}
static void Main(string[] args)
{
Console.WriteLine("\nRemote I/O Grove Temperature Sensor (thermistor) Test\n");
IO.Remote.Device remdev = new IO.Remote.Device();
IO.Interfaces.ADC.Sample S = new IO.Remote.ADC(remdev, 0);
IO.Interfaces.ADC.Input V = new IO.Interfaces.ADC.Input(S, 3.3);
IO.Devices.Grove.Temperature.Device T =
new IO.Devices.Grove.Temperature.Device(V);
for (;;)
{
Console.WriteLine("Temperature => " + T.Celsius.ToString("F2"));
System.Threading.Thread.Sleep(1000);
}
}
