C++ ArActionDesired::reset方法代码示例

ArActionDesired *Acquire::fire(ArActionDesired currentDesired)
{
  myDesired.reset();
  switch (myState) {
  case STATE_START_LOOKING:
    myFirstTurn.clear();
    mySecondTurn.clear();
    myState = STATE_LOOKING;
  case STATE_LOOKING:
    if (myActs->getNumBlobs(myChannel) > 0)
    {
      myDesired.setDeltaHeading(0);
      myState = STATE_SUCCEEDED;
      printf("Acquire: Succeeded!\n");
    }
    else if (myFirstTurn.didAll() && mySecondTurn.didAll())
    {
      myDesired.setDeltaHeading(0);
      myState = STATE_FAILED;
      printf("Acquire: Did two revolutions, didn't see the blob, Failed!\n");
    } 
    else
    {
      myFirstTurn.update(myRobot->getTh());
      if (myFirstTurn.didAll())
	mySecondTurn.update(myRobot->getTh());
      myDesired.setDeltaHeading(8);
    }
    return &myDesired;
  default:
    return NULL;
  }
}

ArActionDesired *ArActionTableSensorLimiter::fire(
	ArActionDesired currentDesired)
{
  myDesired.reset();

// Note the following commented out section will not work with IR's that
// are sent through byte 4 of the IO packet.
// Reference the NewTableSensingIR parameter
  /*
  printf("%d ", myRobot->getDigIn());
  if (!(myRobot->getDigIn() & ArUtil::BIT0))
    printf("leftTable ");
  if (!(myRobot->getDigIn() & ArUtil::BIT1))
    printf("rightTable ");
  if (!(myRobot->getDigIn() & ArUtil::BIT3))
    printf("leftBREAK ");
  if (!(myRobot->getDigIn() & ArUtil::BIT2))
    printf("rightBREAK ");
  printf("\n");
  */

  if (myRobot->isLeftTableSensingIRTriggered() ||
      myRobot->isRightTableSensingIRTriggered())
  {
    myDesired.setMaxVel(0);
    return &myDesired;
  }
  return NULL;  
}

ArActionDesired *Acquire::fire(ArActionDesired currentDesired)
{
  myDesired.reset();
  myDesired.setVel(0);
  switch (myState) {
  case STATE_START_LOOKING:
    myFirstTurn.clear();
    mySecondTurn.clear();
    myState = STATE_LOOKING;
    myGripper->liftUp();
    myGripper->gripClose();
    printf("Acquire: Raising lift\n");
    myStartUp.setToNow();
    myTryingGripper = true;
  case STATE_LOOKING:
    if (myTryingGripper && (myStartUp.mSecSince() < 600 ||
			    ((!myGripper->isLiftMaxed() ||
			      myGripper->getGripState() != 2) && 
			     myStartUp.mSecSince() < 5000)))
    {
      myGripper->liftUp();
      myGripper->gripClose();
      myDesired.setVel(0);
      myDesired.setDeltaHeading(0);
      return &myDesired;
    } 
    else if (myTryingGripper)
    {
      printf("Acquire: Done raising lift %ld after started.\n", 
	     myStartUp.mSecSince());
      myTryingGripper = false;
    }
    if (myActs->getNumBlobs(myChannel) > 0)
    {
      myDesired.setDeltaHeading(0);
      myState = STATE_SUCCEEDED;
      printf("Acquire: Succeeded!\n");
    }
    else if (myFirstTurn.didAll() && mySecondTurn.didAll())
    {
      myDesired.setDeltaHeading(0);
      myState = STATE_FAILED;
      printf("Acquire: Did two revolutions, didn't see the blob, Failed!\n");
    } 
    else
    {
      myFirstTurn.update(myRobot->getTh());
      if (myFirstTurn.didAll())
	mySecondTurn.update(myRobot->getTh());
      myDesired.setDeltaHeading(8);
    }
    return &myDesired;
  default:
    myDesired.setVel(0);
    myDesired.setDeltaHeading(0);
    return &myDesired;
  }
}

ArActionDesired *ActionTest::fire(ArActionDesired currentDesired)
{
  myActionDesired.reset();
  if (fabs(mySpeed) > 1)
    myActionDesired.setVel(mySpeed);
  if (fabs(myTurnAmount) > 1)
    myActionDesired.setDeltaHeading(myTurnAmount);
  return &myActionDesired;  
}

/*
  This is the guts of the action.
*/
ArActionDesired *ActionTurn::fire(ArActionDesired currentDesired)
{
  double leftRange, rightRange;

  // reset the actionDesired (must be done)
  myDesired.reset();

  // if the sonar is null we can't do anything, so deactivate
  if (mySonar == NULL)
  {
    deactivate();
    return NULL;
  }

  // Get the left readings and right readings off of the sonar
  leftRange = (mySonar->currentReadingPolar(0, 100) - 
	       myRobot->getRobotRadius());
  rightRange = (mySonar->currentReadingPolar(-100, 0) - 
		myRobot->getRobotRadius());

  // if neither left nor right range is within the turn threshold,
  // reset the turning variable and don't turn
  if (leftRange > myTurnThreshold && rightRange > myTurnThreshold)
  {
    myTurning = 0;
    myDesired.setRotVel(0);
  }
  // if we're already turning some direction, keep turning that direction
  else if (myTurning)
  {
    myDesired.setRotVel(myTurnAmount * myTurning);
  }
  // if we're not turning already, but need to, and left is closer, turn right
  // and set the turning variable so we turn the same direction for as long as
  // we need to
  else if (leftRange < rightRange)
  {
    myTurning = -1;
    myDesired.setRotVel(myTurnAmount * myTurning);
  }
  // if we're not turning already, but need to, and right is closer, turn left
  // and set the turning variable so we turn the same direction for as long as
  // we need to
  else 
  {
    myTurning = 1;
    myDesired.setRotVel(myTurnAmount * myTurning);
  }
  // return a pointer to the actionDesired, so resolver knows what to do
  return &myDesired;
}

/*
  This is the guts of the Turn action.
*/
ArActionDesired *ActionTurns::fire(ArActionDesired currentDesired)
{
  double leftRange, rightRange;
  // reset the actionDesired (must be done)
  myDesired.reset();
  // if the sonar is null we can't do anything, so deactivate
  if (mySonar == NULL)
  {
    deactivate();
    return NULL;
  }
  // Get the left readings and right readings off of the sonar
  leftRange = (mySonar->currentReadingPolar(0, 100) - 
        myRobot->getRobotRadius());
  rightRange = (mySonar->currentReadingPolar(-100, 0) - 
        myRobot->getRobotRadius());

  // si es que el activador esta en cero que resetee el turn y que no se mueva
  if (myActivate == 0)
  {
	  myTurning = 0;
	  myDesired.setDeltaHeading(0);
  }
  // if we're already turning some direction, keep turning that direction
  else if (myTurning)
  {
    myDesired.setDeltaHeading(myTurnAmount * myTurning);
  }
  // Gira a la izquierda
  else if (myDirection == 2)
  {
    myTurning = -1;
    myDesired.setDeltaHeading(myTurnAmount * myTurning);
  }
  // Gira a la derecha
  else if (myDirection == 1)
  {
    myTurning = 1;
    myDesired.setDeltaHeading(myTurnAmount * myTurning);
  }

  // return a pointer to the actionDesired, so resolver knows what to do
  return &myDesired;
}

/*
  This fire is the whole point of the action.
  currentDesired is the combined desired action from other actions
  previously processed by the action resolver.  In this case, we're
  not interested in that, we will set our desired 
  forward velocity in the myDesired member, and return it.

  Note that myDesired must be a class member, since this method
  will return a pointer to myDesired to the caller. If we had
  declared the desired action as a local variable in this method,
  the pointer we returned would be invalid after this method
  returned.
*/
ArActionDesired *ActionGos::fire(ArActionDesired currentDesired)
{
  double range;
  double speed;

  // reset the actionDesired (must be done), to clear
  // its previous values.
  myDesired.reset();

  // if the sonar is null we can't do anything, so deactivate
  if (mySonar == NULL)
  {
    deactivate();
    return NULL;
  }
  // get the range of the sonar
  range = mySonar->currentReadingPolar(-70, 70) - myRobot->getRobotRadius();
  // if the range is greater than the stop distance, find some speed to go
  if (range > myStopDistance)
  {
    // just an arbitrary speed based on the range
    speed = range * .3;
    // if that speed is greater than our max, cap it
    if (speed > myMaxSpeed)
      speed = myMaxSpeed;
    // now set the velocity
    myDesired.setVel(speed);
  }
  // the range was less than the stop distance, so request stop
  else
  {
    myDesired.setVel(0);
	myFound = 1;
  }
  // return a pointer to the actionDesired to the resolver to make our request
  return &myDesired;
}

ArActionDesired *DropOff::fire(ArActionDesired currentDesired)
{
  ArPose pose;
  ArACTSBlob blob;
  bool blobSeen = false;
  double xRel, yRel;
  double dist;


  myDesired.reset();
  if (myState == STATE_SUCCEEDED)
  {
    printf("DropOff: Succeeded\n");
    myDesired.setVel(0);
    myDesired.setDeltaHeading(0);
    return &myDesired;
  }
  else if (myState == STATE_FAILED)
  {
    printf("DropOff: Failed\n");
    myDesired.setVel(0);
    myDesired.setDeltaHeading(0);
    return &myDesired;
  }

  if (myActs->getNumBlobs(myChannel) > 0 &&
      (blobSeen = myActs->getBlob(myChannel, 1, &blob)))
  {
    myLastSeen.setToNow();
  }

  // this if the stuff we want to do if we're not going to just drive forward
  // and home in on the color, ie the pickup-specific stuff
  if (myState == STATE_START_LOOKING)
  {
    mySentGripper.setToNow();
    myPointedDown = false;
    myState = STATE_LOOKING;
    myLastSeen.setToNow();
    myTried = false;
    myLastMoved.setToNow();
    myLastPose = myRobot->getPose();
    //myWaitingOnGripper = true;
    myWaitingOnLower = false;
    myLowered = false;
    myWaitingOnRaised = false;
    myStartRaised = false;
    printf("@@@@@ DropOff: Starting\n");
  }

  // we want to sit still until the lift is down or for a second and a half
  /*
  if (myWaitingOnGripper) 
  {
    if (mySentGripper.mSecSince() < 500 || 
	(myGripper->getGripState() != 1
	 && mySentGripper.mSecSince() < 4000))
    {
      myDesired.setVel(0);
      myDesired.setDeltaHeading(0);
      myLastMoved.setToNow();
      myLastPose = myRobot->getPose();
      return &myDesired;
    }
    else
    {
      myWaitingOnGripper = false;
    }
    myLastMoved.setToNow();
    myLastPose = myRobot->getPose();
  } 
  */
  //printf("sensors %d %d stall %d %d\n",!(myRobot->getDigIn() & ArUtil::BIT2),
  //!(myRobot->getDigIn() & ArUtil::BIT3),
  //myRobot->isLeftMotorStalled(), myRobot->isRightMotorStalled());
  if ((myRobot->isLeftBreakBeamTriggered() &&
       myRobot->isRightBreakBeamTriggered()) ||
       myRobot->isLeftMotorStalled() || myRobot->isRightMotorStalled())
  {
    if (!myWaitingOnLower && !myLowered && !myWaitingOnRaised)
    {
      myWaitingOnLower = true;
      printf("DropOff: Lowering gripper\n");
      mySentGripper.setToNow();
    }
  }
  if (myWaitingOnLower)
  {
    /// TODO
    if (mySentGripper.mSecSince() < 600 || 
	(!myGripper->isLiftMaxed() && mySentGripper.mSecSince() < 20000))
    {
      myGripper->liftDown();
      myDesired.setVel(0);
      myDesired.setDeltaHeading(0);
      myLastMoved.setToNow();
      myLastPose = myRobot->getPose();
      return &myDesired;
    }
    else
//.........这里部分代码省略.........

ArActionDesired *DriveTo::fire(ArActionDesired currentDesired)
{
  ArACTSBlob blob;
  double xRel, yRel;

  if (myState == STATE_SUCCEEDED || myState == STATE_FAILED)
  {
    myDesired.setVel(0);
    myDesired.setDeltaHeading(0);
    return &myDesired;
  }

  if (myState == STATE_START_LOOKING)
  {
    myState = STATE_LOOKING;
    myLastSeen.setToNow();
  }

  if (myActs->getNumBlobs(myChannel) == 0 || 
      !myActs->getBlob(myChannel, 1, &blob))
  {
    if (myLastSeen.mSecSince() > 1000)
    {
      printf("DriveTo:  Lost the blob, failed.\n");
      myState = STATE_FAILED;
      myDesired.setVel(0);
      myDesired.setDeltaHeading(0);
      return &myDesired;
    }
  }
  else
  {
    myLastSeen.setToNow();
  }

  xRel = (double)(blob.getXCG() - WIDTH/2.0) / (double)WIDTH;
  yRel = (double)(blob.getYCG() - HEIGHT/2.0) / (double)HEIGHT;
  
  //printf("xRel %.3f yRel %.3f\n", xRel, yRel);

  myDesired.reset();
  // this if the stuff we want to do if we're not going to just drive forward
  // and home in on the color, ie the pickup-specific stuff
  if (currentDesired.getMaxVelStrength() > 0 &&
      currentDesired.getMaxVel() < 125)
  {
    printf("DriveTo:  Close to a wall of some sort, succeeded.\n");
    myState = STATE_SUCCEEDED;
    myDesired.setVel(0);
    myDesired.setDeltaHeading(0);
    return &myDesired;
  }
  
  if (ArMath::fabs(xRel) < .10)
  {
    //printf("Going straight ahead\n");
    myDesired.setDeltaHeading(0);
  }
  else
  {
    //printf("Turning %.2f\n", -xRel * 10);
    myDesired.setDeltaHeading(-xRel * 10);
  }
  myDesired.setVel(300);
  return &myDesired;
}

AREXPORT ArActionDesired *ArPriorityResolver::resolve(
	ArResolver::ActionMap *actions, ArRobot *robot, bool logActions)
{
  ArResolver::ActionMap::reverse_iterator it;
  ArAction *action;
  ArActionDesired *act;
  ArActionDesired averaging;
  bool first = true;
  int lastPriority=0;
  bool printedFirst = true;
  int printedLast=0;

  if (actions == NULL)
    return NULL;

  myActionDesired.reset();
  averaging.reset();
  averaging.startAverage();
  for (it = actions->rbegin(); it != actions->rend(); ++it)
  {
    action = (*it).second;
    if (action != NULL && action->isActive())
    {
      act = action->fire(myActionDesired);
      if (robot != NULL && act != NULL)
	act->accountForRobotHeading(robot->getTh());
      if (first || (*it).first != lastPriority)
      {
	averaging.endAverage();
	myActionDesired.merge(&averaging);

	averaging.reset();
	averaging.startAverage();
	first = false;
	lastPriority = (*it).first;
      }
      averaging.addAverage(act);
      if (logActions && act != NULL && act->isAnythingDesired())
      {
	if (printedFirst || printedLast != (*it).first)
	{
	  ArLog::log(ArLog::Terse, "Priority %d:", (*it).first);
	  printedLast = (*it).first;
	  printedFirst = false;
	}
	ArLog::log(ArLog::Terse, "Action: %s", action->getName());
	act->log();
      }


    }
  }
  averaging.endAverage();
  myActionDesired.merge(&averaging);
  /*
  printf(
      "desired delta %.0f strength %.3f, desired speed %.0f strength %.3f\n",
      myActionDesired.getDeltaHeading(), myActionDesired.getHeadingStrength(),
      myActionDesired.getVel(), myActionDesired.getVelStrength());
  */
  return &myActionDesired;
}