void Start()
{
playMode = true;
storedSpeed = moveSpeed;
moverObject = this.gameObject;
if (newStartNode != null)
{
startNodeInt = moverNodes.IndexOf(newStartNode) + 1;
}
if (!reverseDirection) // if standard direction of movement
{
destinationNode = moverNodes[startNodeInt];
}
else if (reverseDirection) // if reverse direction
{
destinationNode = moverNodes[moverNodes.Count - startNodeInt];
}
if (startNodeInt > 1)
{
moverObject.transform.position = moverNodes[startNodeInt - 1].transform.position;
}
wait = false;
}
public void RefreshNodeList()
{
moverNodes.Clear();
{
foreach (Transform t in nodeContainer.transform)
{
QS_MoverNode node = t.GetComponent <QS_MoverNode>();
if (!moverNodes.Contains(node))
{
moverNodes.Add(node);
}
}
}
}
void RotatePlatform() // Called from Fixed Update
{
// Standard rotation
Quaternion newRotation;
Quaternion lookAtRotation;
if (distanceToNode > 0.1f)
{
newRotation = Quaternion.LookRotation(destinationNode.transform.position - transform.position);
}
else
{
newRotation = transform.rotation;
}
if (previousNode == null)
{
previousNode = moverNodes[0];
}
if (rotationType == rotationEnum.byTurnSpeed)
{
lookAtRotation = Quaternion.Lerp(transform.rotation, newRotation, RotationPercent());
}
else
{
lookAtRotation = Quaternion.Lerp(prevFacingRot, newRotation, RotationPercent());
}
// Lock axis to stay level
if (stayLevel)
{
// Rotate the platform on Y only
// Use our own unchanged x and y rotation to stay level,
// And use the slerped y to rotate around that axis, we also take the new W to prevent gimble shenanigans.
transform.rotation = new Quaternion(transform.rotation.x, lookAtRotation.y, transform.rotation.z, lookAtRotation.w);
}
else
{
//transform.rotation = Quaternion.Slerp (transform.rotation, newRotation, Time.fixedDeltaTime * turnSpeed);
transform.rotation = lookAtRotation;
}
}
void GetPrevNode() // Called at end of Next Node
{
if (reverseDirection)
{
prevNodeInt = moverNodes.IndexOf(destinationNode) + 1;
if (prevNodeInt > moverNodes.Count - 1 && loop)
{
prevNodeInt = 0;
}
}
else if (!reverseDirection)
{
prevNodeInt = moverNodes.IndexOf(destinationNode) - 1;
if (prevNodeInt < 0 && loop)
{
prevNodeInt = moverNodes.Count - 1;
}
}
previousNode = moverNodes[prevNodeInt];
}
void NextNode() // Called when platform reaches its destination node
{
if (!wait && isAtDest && !newDestSet)
{
int currentNode = moverNodes.IndexOf(destinationNode);
prevFacingRot = transform.rotation;
//turnPercent = 0;
if (!loop)
{
if (autoReturn)
{
if (currentNode + 1 == moverNodes.Count)
{
reverseDirection = true;
}
else if (currentNode - 1 == -1)
{
reverseDirection = false;
}
}
if (!reverseDirection && currentNode < moverNodes.Count - 1) // Standard direction && if node is not the last
{
destinationNode = moverNodes[currentNode + 1];
}
else if (reverseDirection && currentNode > 0) // Reverse direction && current node is not the first
{
destinationNode = moverNodes[currentNode - 1];
}
}
else if (loop)
{
if (!reverseDirection)
{
//Ternary Operator
// thisVariable = depending if this statement is true ? will equal this if true : or this if false
destinationNode = currentNode + 1 == moverNodes.Count ? moverNodes[0] : moverNodes[currentNode + 1];
}
else if (reverseDirection)
{
destinationNode = currentNode - 1 == -1 ? moverNodes[moverNodes.Count - 1] : moverNodes[currentNode - 1];
}
}
// Apply speed from destination node
if (destinationNode != null && destinationNode.overrideSpeed)
{
moveSpeed = destinationNode.moveSpeed;
}
else
{
if (moveSpeed != storedSpeed)
{
storedSpeed = moveSpeed;
}
else
{
moveSpeed = storedSpeed;
}
smoothSpeed = storedSpeed;
}
newDestSet = true;
}
GetPrevNode();
}