Exemple #1
0
task main()
{

	// Setup

	IAmNXT = 0;
	MaxNXT = 2;
	setupHighSpeedLink();

	//
	eraseDisplay();
	bNxtLCDStatusDisplay = true; // Enable top status line display

	nxtDisplayTextLine(2, "IAmNXT: %d MAX: %d", IAmNXT, MaxNXT);

		while(true){

if( HSpeedRxDataLen != 0  )
		{
		 // rec = (int)HSpeedRxData[0];
		  nxtDisplayTextLine(6, "Rx: ID %d Len %d", HSpeedRxHead[0]     , HSpeedRxDataLen);
			nxtDisplayTextLine(7, "Rx: %d "       , (int)HSpeedRxData[0] );
		}

		HSpeedSendByte( (IAmNXT+1) % MaxNXT , status);
	}
}
task main()
{

	eraseDisplay();
	bNxtLCDStatusDisplay = true; // Enable top status line display

  setupHighSpeedLink(true);
	//
	// Configure the link for raw read and write. User program will have complete control over the link.
	// User program will be responsible for managing the half-duplex operation and must prevent collisions!
	//
	nxtHS_Mode = hsRawMode;

	while(true)
	{
    char ILOVEHKK[10] = {'I',' ','L','O','V','E',' ','H','K','K'};
	  transmitList = 'I';
	  count = 1;
	  TransmitASCII();
	  Receive();
	  string receivedcharacters;
	  StringFromChars(receivedcharacters, receiveList);
	  nxtDisplayString(30, receivedcharacters);
	  wait10Msec(100);
	  eraseDisplay();
	}
}
Exemple #3
0
////////////////////////////////////////////////////////////////////////
//                         Main Task
////////////////////////////////////////////////////////////////////////
task main()
{
	eraseDisplay();
	bNxtLCDStatusDisplay = true;
  setupHighSpeedLink();

  //This is the buffer that will hold the bytes to transmit.
  ubyte testBytes[1];
  int xmitCount = 1;

  nMotorEncoder[motorB] = 0;          // Reset the Motor Encoder of Motor B.

  //The test will continue until an error occurs or
  //the enter button on the brick is pressed.
  while(nNxtButtonPressed != kEnterButton)
	{
	  eraseDisplay();

    int motorposn = nMotorEncoder[motorB];

    //This will display the the motor position.
    nxtDisplayTextLine(1, (string)motorposn + " XMIT");

    //Set the bytes of the buffer to the next byte.
    testBytes[0] = motorposn;

    //Transmit the bytes.
    int retVal = TransmitBytes(testBytes, sizeof(testBytes));

    //Format the byte string and display it.
    string tStr0;
    StringFormat(tStr0, "%3d", testBytes[0]);
    string TempStr = tStr0;
    nxtDisplayTextLine(2, TempStr);

    //Delay.  Possibly, this could be used for an ACK.
    wait1Msec(MS_TO_DELAY);
	}
}
Exemple #4
0
task main()
{
	// Setup
	string sFriendlyName;
	IAmNXT = 1;
	MaxNXT = 4;
	setupHighSpeedLink();

	//
	eraseDisplay();
	bNxtLCDStatusDisplay = true; // Enable top status line displayHSpeedRxData[1]





	while(true)
	{
	  while( HSpeedRxDataLen == 0 ) wait1Msec(10);

	if(HSpeedRxData[0] == 1){


	}

	if(HSpeedRxData[0] == 2){


	}



	if(HSpeedRxData[0] == 3){


	}

	}
}
////////////////////////////////////////////////////////////////////////////////////////////////////////
//
//                                        Main Task
//
////////////////////////////////////////////////////////////////////////////////////////////////////////
task main()
{
	// Setup
	string sFriendlyName;
	getFriendlyName(sFriendlyName);
	IAmNXT = sFriendlyName == "HRF2" ? 0 : 1;
	MaxNXT = 2;
	setupHighSpeedLink();

	//
	eraseDisplay();
	bNxtLCDStatusDisplay = true; // Enable top status line display

	nxtDisplayTextLine(2, "IAmNXT: %d MAX: %d", IAmNXT, MaxNXT);

	if ( IAmNXT == 0 )
	{
		send();
	}
	else
	{
		recieve();
	}
}
Exemple #6
0
task main()
{
	// Setup
	string sFriendlyName;
	IAmNXT = 2;
	MaxNXT = 3;
	setupHighSpeedLink();

	//
	eraseDisplay();
	bNxtLCDStatusDisplay = true; // Enable top status line displayHSpeedRxData[1]

int delta = 2;                        // Create int 'delta' to the be Servo Change Rate.

servoChangeRate[servo1] = delta;          // Slow the Servo Change Rate down to only 'delta' positions per update.
    servoChangeRate[servo2] = delta;          // Slow the Servo Change Rate down to only 'delta' positions per update.
    servoChangeRate[servo3] = delta;          // Slow the Servo Change Rate down to only 'delta' positions per update.
    servoChangeRate[servo4] = delta;          // Slow the Servo Change Rate down to only 'delta' positions per update.
    servoChangeRate[servo5] = delta;          // Slow the Servo Change Rate down to only 'delta' positions per update.



	while(true)
	{



	  while( HSpeedRxDataLen == 0 ) wait1Msec(10);

	if(HSpeedRxData[0] == 1){

	   AbsMove(2000,2000, 360);

	  if(ServoValue[servo1] >= 191)             // If servo1 is closer to 255 (than 0):
    {
      while(ServoValue[servo1] > 125)                 // While the ServoValue of servo1 is greater than 0:
      {
        servo[servo1] = 125;                                // Move servo1 to position to 0.
      }
    }

     if(ServoValue[servo2] < 64)              // If servo1 is closer to 0 (than 255):
    {
      while(ServoValue[servo2] < 110)               // While the ServoValue of servo1 is less than 255:
      {
        servo[servo2] = 110;                              // Move servo1 to position to 255.
      }
    }

     if(ServoValue[servo3] < 64)              // If servo1 is closer to 0 (than 255):
    {
      while(ServoValue[servo3] < 110)               // While the ServoValue of servo1 is less than 255:
      {
        servo[servo3] = 110;                              // Move servo1 to position to 255.
      }
    }

     if(ServoValue[servo4] < 64)              // If servo1 is closer to 0 (than 255):
    {
      while(ServoValue[servo4] < 110)               // While the ServoValue of servo1 is less than 255:
      {
        servo[servo4] = 110;                              // Move servo1 to position to 255.
      }
    }

     if(ServoValue[servo5] < 64)              // If servo1 is closer to 0 (than 255):
    {
      while(ServoValue[servo5] < 110)               // While the ServoValue of servo1 is less than 255:
      {
        servo[servo5] = 110;                              // Move servo1 to position to 255.
      }
    }




	}

	if(HSpeedRxData[0] == 2){


	    if(ServoValue[servo1] < 191)              // If servo1 is closer to 0 (than 255):
    {
      while(ServoValue[servo1] < 255)               // While the ServoValue of servo1 is less than 255:
      {
        servo[servo1] = 255;                              // Move servo1 to position to 255.
      }
    }

     if(ServoValue[servo2] >= 64)             // If servo1 is closer to 255 (than 0):
    {
      while(ServoValue[servo2] > 0)                 // While the ServoValue of servo1 is greater than 0:
      {
        servo[servo2] = 0;                                // Move servo1 to position to 0.
      }
    }

     if(ServoValue[servo3] >= 64)             // If servo1 is closer to 255 (than 0):
    {
      while(ServoValue[servo3] > 0)                 // While the ServoValue of servo1 is greater than 0:
      {
        servo[servo3] = 0;                                // Move servo1 to position to 0.
      }
    }

     if(ServoValue[servo4] >= 64)             // If servo1 is closer to 255 (than 0):
    {
      while(ServoValue[servo4] > 0)                 // While the ServoValue of servo1 is greater than 0:
      {
        servo[servo4] = 0;                                // Move servo1 to position to 0.
      }
    }

     if(ServoValue[servo5] >= 64)             // If servo1 is closer to 255 (than 0):
    {
      while(ServoValue[servo5] > 0)                 // While the ServoValue of servo1 is greater than 0:
      {
        servo[servo5] = 0;                                // Move servo1 to position to 0.
      }
    }


    AbsMove(0,0, 0);


	}



	if(HSpeedRxData[0] == 3){


	   AbsMove(0,0, 0);


	}

	}
}