| public CalculatePositionAndRotationOnMesh ( float progressionOnMesh, float widthOffset, Vector3 &calculatedPos, Quaternion &calculatedRot, float &calculatedHeightValue ) : void | ||
| progressionOnMesh | float | |
| widthOffset | float | |
| calculatedPos | Vector3 | |
| calculatedRot | Quaternion | |
| calculatedHeightValue | float | |
| return | void | |
void Update()
{
Vector3 tempPos = transform.position;
Vector3 calPos = Vector3.zero;
Quaternion calRot = Quaternion.identity;
float newHeightOffset = 0;
// updated based on velocities
widthOffset += relativeVelocity.x * Time.deltaTime;
widthOffset = Mathf.Clamp(widthOffset, -meshlineWidth * 0.5f, meshlineWidth * 0.5f);
float relativeLocationOnLine = 0.5f + widthOffset / meshlineWidth;
// move rider forward before looking for closest meshline
progressionOnMesh += relativeVelocity.z * Time.deltaTime;
progressionOnMesh = Mathf.Clamp(progressionOnMesh, 0, 0.9f);
meshlinesGenerator.CalculatePositionAndRotationOnMesh(progressionOnMesh, relativeLocationOnLine, out calPos, out calRot, out newHeightOffset);
HandleNewHeight(newHeightOffset);
transform.position = calPos; // set base meshline postion
transform.rotation = calRot;
transform.position += transform.right * widthOffset;
transform.position += transform.up * heightOffset;
// apply friction to velocities
//relativeVelocity -= linearVelocityDecay * relativeVelocity * Time.deltaTime;
if (wasSidePressed == false)
{
relativeVelocity.x -= linearVelocityDecay * relativeVelocity.x * Time.deltaTime;
if (Mathf.Abs(relativeVelocity.x) < 0.01f)
{
relativeVelocity.x = 0;
}
}
if (wasForwardPressed == false)
{
relativeVelocity.z -= linearVelocityDecay * relativeVelocity.z * Time.deltaTime;
}
wasSidePressed = false;
wasForwardPressed = false;
}
