Ejemplo n.º 1
0
    /// <summary>
    /// Applies the tilt.
    /// </summary>
    /// <param name="inputRoll">roll input</param>
    /// <param name="inputPitch">pitch input</param>
    void ApplyTilt(HandlingInput input, DroneState currentState)
    {
        float offsetRoll, offsetPitch;

        if (StabilizeTiltCom)
        {
            // stabilized

            float targetRoll, targetPitch;

            if (input.breaking)
            {
                GetBreakTilt(out targetRoll, out targetPitch, currentState);
            }
            else
            {
                GetTargetTilt(out targetRoll, out targetPitch, input);
            }

            offsetRoll  = MathHelper.AngularDistance(currentState.rotation.z, targetRoll);
            offsetPitch = MathHelper.AngularDistance(currentState.rotation.x, targetPitch);
        }
        else
        {
            // unstabilized

            offsetRoll  = input.roll * unstabilizedTiltMultiplier;
            offsetPitch = input.pitch * unstabilizedTiltMultiplier;
        }

        // targeted tilt velocity
        float targetVelocityRoll  = MathHelper.Aserp(offsetRoll, tiltVelocityMultiplier, maxTiltSpeed);
        float targetVelocityPitch = MathHelper.Aserp(offsetPitch, tiltVelocityMultiplier, maxTiltSpeed);

        float velocityOffsetRoll  = targetVelocityRoll - currentState.angularVelocityLocal.z;
        float velocityOffsetPitch = targetVelocityPitch - currentState.angularVelocityLocal.x;

        // targeted tilt force
        float targetForceRoll  = MathHelper.Aserp(velocityOffsetRoll, tiltAccelerationMultiplier, maxTiltForce);
        float targetForcePitch = MathHelper.Aserp(velocityOffsetPitch, tiltAccelerationMultiplier, maxTiltForce);

        // apply force
        GetComponent <Rigidbody> ().AddRelativeTorque(targetForcePitch, 0, targetForceRoll);
    }
Ejemplo n.º 2
0
    void FixedUpdate()
    {
        Vector3 currentRotation = transform.rotation.eulerAngles;

        float currentRoll  = currentRotation.z;
        float currentPitch = currentRotation.x;
        float currentYaw   = currentRotation.y;

        Vector3 velocity      = GetComponent <Rigidbody>().velocity;
        Vector3 localVelocity = transform.InverseTransformDirection(velocity);

        float inputRoll  = Input.GetAxis("Roll");
        float inputPitch = Input.GetAxis("Pitch");
        float inputYaw   = Input.GetAxis("Yaw");

        float inputThrust = Input.GetAxis("Thrust");

        bool breaking = Input.GetButton("Break");

        float targetRoll;
        float targetPitch;

        if (!stabilized || !stabilizeTilt || !breaking)
        {
            GetTargetTilt(out targetRoll, out targetPitch,
                          inputRoll, inputPitch,
                          currentRoll, currentPitch);
        }
        else
        {
            Vector3 yawDependantVelocity = Quaternion.AngleAxis(-currentRotation.y, Vector3.up) * velocity;

            GetBreakTilt(out targetRoll, out targetPitch,
                         yawDependantVelocity.x, yawDependantVelocity.z);
        }

        float offsetRoll = MathHelper.AngularDistance(currentRoll, targetRoll);

        MathHelper.Flatten(ref offsetRoll, 0.05f);

        float offsetPitch = MathHelper.AngularDistance(currentPitch, targetPitch);

        MathHelper.Flatten(ref offsetPitch, 0.05f);


        float targetVelocityRoll = MathHelper.NthRoot(offsetRoll, 1) * tiltVelocityMultiplier;
//		MathHelper.Flatten (ref targetVelocityRoll, 0.5f);

        float targetVelocityPitch = MathHelper.NthRoot(offsetPitch, 1) * tiltVelocityMultiplier;
//		MathHelper.Flatten (ref targetVelocityPitch, 0.5f);


        Vector3 localAngularVelocity = GetComponent <Rigidbody>().transform.InverseTransformDirection(GetComponent <Rigidbody>().angularVelocity);

        localAngularVelocity.z = targetVelocityRoll;
        localAngularVelocity.x = targetVelocityPitch;

        GetComponent <Rigidbody>().angularVelocity = transform.TransformDirection(localAngularVelocity);


//		float velocityOffsetRoll = targetVelocityRoll - localAngularVelocity.z;
//		MathHelper.Flatten (ref velocityOffsetRoll, 0.01f);
//
//		float velocityOffsetPitch = targetVelocityPitch - localAngularVelocity.x;
//		MathHelper.Flatten (ref velocityOffsetPitch, 0.01f);
//
//
//		float rollAcceleration = MathHelper.NthRoot (velocityOffsetRoll, 1) * tiltAccelerationMultiplier;
////		MathHelper.Flatten (ref rollAcceleration, 1f);
//
//		float pitchAcceleration = MathHelper.NthRoot (velocityOffsetPitch, 1) * tiltAccelerationMultiplier;
////		MathHelper.Flatten (ref pitchAcceleration, 1f);
//
//
//		rigidbody.AddRelativeTorque (pitchAcceleration, 0, rollAcceleration);

//		GetTiltOffset (out offsetRoll, out offsetPitch, targetRoll, targetPitch, currentRoll, currentPitch);

//		transform.rotation = Quaternion.Euler (targetPitch, currentYaw, targetRoll);

        float targetVelocity;

        if (stabilized && stabilizeVerticalMovement)
        {
            Vector3 worldUp = transform.TransformDirection(Vector3.up);
            worldUp *= -velocity.y;
            Vector3 localUp = transform.InverseTransformDirection(worldUp);

            targetVelocity = localUp.y;
        }
        else
        {
            targetVelocity = -localVelocity.y;
        }

        float idleAcceleration = MathHelper.NthRoot(targetVelocity, 7) + defaultUpAcceleration;

        MathHelper.Clamp(ref idleAcceleration, maxAccelerationDown, maxAccelerationUp);

        float newAcceleration;

        if (inputThrust == 0)
        {
            newAcceleration = idleAcceleration;
        }
        else if (inputThrust > 0)
        {
            newAcceleration = MathHelper.Interpolate(idleAcceleration, maxAccelerationUp, inputThrust);
        }
        else
        {
            newAcceleration = MathHelper.Interpolate(idleAcceleration, maxAccelerationDown, -inputThrust);
        }

        GetComponent <Rigidbody>().AddRelativeForce(0, newAcceleration, 0);

        rotorSound.pitch = newAcceleration * rotorPitchMultiplier + rotorPitchMinimum;

        ApplyYawForce(inputYaw);
    }