public void Steer(Vector3 target, Vector3 velocity)
{
//TODO Homework
float prediction_multiplier = Vector3.Distance(move.target.transform.position, move.transform.position) / max_prediction;
Vector3 prediction_pos = target_move.transform.position + target_move.movement * prediction_multiplier;
flee.Steer(prediction_pos);
/* float prediction_multiplier = Vector3.Distance(transform.position, target_move.transform.position) / move.max_mov_velocity;
* Vector3 prediction_pos = target_move.transform.position + target_move.movement * prediction_multiplier;
*
*
* GetComponent<SteeringArrive>().Steer(prediction_pos);
*/
}
public void Steer(Vector3 target, Vector3 velocity)
{
// TODO 6: Create a fake position to represent
// enemies predicted movement. Then call Steer()
// on our Steering Arrive
Vector3 predictedPosition = Vector3.zero;
// Prediction 1 (simple)
predictedPosition = target + velocity * max_prediction;
// Prediction 2 (improved. The acceleration decreases depending on how close the target is)
float distanceToTarget = Vector3.Distance(transform.position, target);
float prediction = distanceToTarget / max_prediction;
predictedPosition = target + velocity * prediction;
flee.Steer(predictedPosition);
}
public void Steer(Vector3 target, Vector3 target_velocity)
{
// HOMEWORK: Create a fake position to represent
// enemies predicted movement. Then call Steer()
// on our Steering Flee
Vector3 diff = transform.position - move.target.transform.position;
float distance = diff.magnitude;
float speed = move.movement.magnitude;
float fake_prediction;
if (speed < distance / max_seconds_prediction)
{
fake_prediction = max_seconds_prediction;
}
else
{
fake_prediction = distance / speed;
}
flee.Steer(move.target.transform.position + (target_velocity * fake_prediction));
}
