Esempio n. 1
0
        /// <summary>
        /// Initialization function for PL1167
        /// 
        /// </summary>
        /// <param name="ui8CS"></param>
        public void Initialize(byte ui8CS)
        {
            //CS_Pin = ui8CS;

            //Init SPI
            //pinMode(ui8CS_Pin, OUTPUT);
            spiConnection = new NativeSpiConnection("/dev/spidev0.0", new SpiConnectionSettings() {
                Mode = SpiMode.Mode1
            });

            //Init PL1167
            #if PL1167_EXPLICIT_RESET
            //pinMode(PL1167_EXPLICIT_RESET_PIN, OUTPUT);
            //digitalWrite(PL1167_EXPLICIT_RESET_PIN, LOW);
            //delay(50);
            //digitalWrite(PL1167_EXPLICIT_RESET_PIN, HIGH);
            #endif
            //delay(10);                                          // Delay for oscillator locking
            //pinMode(PL1167_PKT_PIN, INPUT);
            //attachInterrupt(0, vfISR, RISING);                  // Initialize Arduino interrupt
            InitRadioModule();                                // Initialize registers of PL1167
            //delay(50);
            SetRadioChannel(channel);  // Set RF channel

            ResetFIFOPointerReg(C_RXFIFOPOINTER);
            SetRXMode();
        }
Esempio n. 2
0
        public static void Main(string[] args)
        {
            try
            {
                Console.WriteLine("Starting application");
                var driver = new MemoryGpioConnectionDriver();

                var lcdSpiSettings = new SpiConnectionSettings();
                lcdSpiSettings.BitsPerWord = 8;
                lcdSpiSettings.MaxSpeed = 3932160;
                lcdSpiSettings.Delay = 0;
                lcdSpiSettings.Mode = SpiMode.Mode0;

                var adsSpiSettings = new SpiConnectionSettings();
                adsSpiSettings.BitsPerWord = 8;
                adsSpiSettings.MaxSpeed = 3932160;
                adsSpiSettings.Delay = 0;
                adsSpiSettings.Mode = SpiMode.Mode1;

                var spi0 = new NativeSpiConnection("/dev/spidev0.0", lcdSpiSettings);
                var spi1 = new NativeSpiConnection("/dev/spidev0.1", adsSpiSettings);

                var lcdRegisterSelectGpio = ConnectorPin.P1Pin11;
                driver.In(lcdRegisterSelectGpio).Read();
                var lcdRegisterSelectOut = driver.Out(lcdRegisterSelectGpio);

                var lcdResetGpio = ConnectorPin.P1Pin16;
                var lcdResetOut = driver.Out(lcdResetGpio);

                using (var deviceConnection = new Ti430BoostAds1118Connection(spi0, spi1, lcdRegisterSelectOut, lcdResetOut))
                {
                    deviceConnection.InitializeLcd();
                    deviceConnection.DisplayStringOnLcd(LcdLine.FirstLine, "Hello!");
                    Thread.Sleep(500);

                    deviceConnection.ClearLcd();

                    var temp = deviceConnection.GetMeasurement();
                    deviceConnection.DisplayStringOnLcd(LcdLine.SecondLine, string.Format("TEMP: {0} C", temp));
                }
            }
            catch (Exception ex)
            {
                Console.WriteLine("Exception caught!");
                Console.WriteLine("Exception Message: {0}", ex.Message);
                Console.WriteLine("Stack Trace: {0}", ex.StackTrace);
            }
        }
        protected override void EstablishContext()
        {
            // SPI control structure we expect to see during the P/Invoke call
            controlStructure = new SpiTransferControlStructure {
                BitsPerWord = BITS_PER_WORD,
                Length = 5,
                Delay = DELAY,
                ChipSelectChange = 1,
                Speed = SPEED_IN_HZ
            };

            controlDevice = A.Fake<ISpiControlDevice>();
            controlDevice
                .CallsTo(device => device.Control(A<uint>.Ignored, ref controlStructure))
                .WithAnyArguments()
                .Returns(IOCTL_PINVOKE_RESULT_CODE);

            connection = new NativeSpiConnection(controlDevice);

            buffer = A.Fake<ISpiTransferBuffer>();
            buffer
                .CallsTo(b => b.ControlStructure)
                .Returns(controlStructure);
        }
        protected override void EstablishContext()
        {
            controlDevice = A.Fake<ISpiControlDevice>();
            controlDevice
                .CallsTo(device => device.Control(A<uint>.Ignored, A<SpiTransferControlStructure[]>.Ignored))
                .Returns(IOCTL_PINVOKE_RESULT_CODE);

            connection = new NativeSpiConnection(controlDevice);

            // SPI control structure we expect to see during the P/Invoke call
            controlStructure = new SpiTransferControlStructure {
                BitsPerWord = BITS_PER_WORD,
                Length = 5,
                Delay = DELAY,
                ChipSelectChange = 1,
                Speed = SPEED_IN_HZ
            };

            buffer = A.Fake<ISpiTransferBuffer>();
            buffer
                .CallsTo(b => b.ControlStructure)
                .Returns(controlStructure);

            // setup fake collection to return our "prepared" fake buffer
            collection = A.Fake<ISpiTransferBufferCollection>();
            collection
                .CallsTo(c => c.Length)
                .Returns(1);
            collection
                .CallsTo(c => c.GetEnumerator())
                .ReturnsLazily(call => new List<ISpiTransferBuffer>{buffer}.GetEnumerator());
        }
        protected override void EstablishContext()
        {
            settings = new SpiConnectionSettings {
                BitsPerWord = BITS_PER_WORD,
                Delay = DELAY,
                Mode = SPI_MODE,
                MaxSpeed = SPEED_IN_HZ
            };

            controlDevice = A.Fake<ISpiControlDevice>();
            connection = new NativeSpiConnection(controlDevice, settings);
        }
 protected override void BecauseOf()
 {
     connection = new NativeSpiConnection(controlDevice, settings);
 }