public void TryToMerge(MergerSolution ssNewMergerSolution)
{
int idx = GetSolutionIndex(ssNewMergerSolution.v3LaserDirection, ssNewMergerSolution.clrLaserColor);
if (idx == -1)
{
if (msMergerSolutions.Count <= MAX_MERGER)
{
AddSolution(ssNewMergerSolution);
}
}
else
{
RefreshSolution(idx);
}
}
public void AddSolution(MergerSolution ssNewMergerSolution)
{
msMergerSolutions.Add(ssNewMergerSolution);
RecalculateSolution();
}
IEnumerator RedrawLaser()
{
//Debug.Log("Running");
int laserSplit = 1; //How many times it got split
int laserReflected = 1; //How many times it got reflected
int vertexCounter = 1; //How many line segments are there
bool loopActive = true; //Is the reflecting loop active?
Vector3 laserDirection = transform.forward; //direction of the next laser
Vector3 lastLaserPosition = transform.position; //origin of the next laser
//TODO
//mLineRenderer.positionCount
mLineRenderer.SetVertexCount(1);
mLineRenderer.SetPosition(0, transform.position);
RaycastHit hit;
while (loopActive)
{
bHit = Physics.Raycast(lastLaserPosition, laserDirection, out hit, laserDistance);
if (bHit)
{
//print("hit.transform.gameObject.tag: " + hit.transform.gameObject.tag);
}
//Debug.Log("Physics.Raycast(" + lastLaserPosition + ", " + laserDirection + ", out hit , " + laserDistance + ")");
if (bHit && ((hit.transform.gameObject.tag == MMConstants.TAG_MIRROR) || IsRayKiller(hit.transform.gameObject.tag)))
{
Vector3 prevDirection = laserDirection;
laserReflected++;
vertexCounter += 3;
mLineRenderer.SetVertexCount(vertexCounter);
mLineRenderer.SetPosition(vertexCounter - 3, Vector3.MoveTowards(hit.point, lastLaserPosition, 0.01f));
mLineRenderer.SetPosition(vertexCounter - 2, hit.point);
mLineRenderer.SetPosition(vertexCounter - 1, hit.point);
mLineRenderer.SetWidth(.15f, .15f);
lastLaserPosition = hit.point;
laserDirection = Vector3.Reflect(laserDirection, hit.normal);
if (hit.transform.gameObject.tag == MMConstants.TAG_SPLITTER)
{
SplitterSolution ss = new SplitterSolution(clrLaser, laserDirection);
hit.transform.GetComponent <Splitter>().TryToSplit(ss, prevDirection, this.gameObject);
loopActive = false;
}
else if (hit.transform.gameObject.tag == MMConstants.TAG_DUPLICATOR)
{
SplitterSolution ss = new SplitterSolution(clrLaser, laserDirection);
hit.transform.GetComponent <Duplicator>().TryToSplit(ss, prevDirection, this.gameObject);
loopActive = false;
}
else if (hit.transform.gameObject.tag == MMConstants.TAG_MERGER)
{
MergerSolution ms = new MergerSolution(clrLaser, laserDirection);
hit.transform.GetComponentInParent <Merger>().TryToMerge(ms);
loopActive = false;
}
else if (IsRayKiller(hit.transform.gameObject.tag))
{
loopActive = false;
}
}
else
{
//Debug.Log("No Bounce");
laserReflected++;
vertexCounter++;
mLineRenderer.SetVertexCount(vertexCounter);
Vector3 lastPos = lastLaserPosition + (laserDirection.normalized * laserDistance);
//Debug.Log("InitialPos " + lastLaserPosition + " Last Pos" + lastPos);
mLineRenderer.SetPosition(vertexCounter - 1, lastLaserPosition + (laserDirection.normalized * laserDistance));
loopActive = false;
}
if (laserReflected > maxBounce)
{
loopActive = false;
}
if (bHit && hit.transform.gameObject.tag == MMConstants.TAG_RECEIVER)
{
if (timeSinceLastTryToSolve >= MMConstants.TIME_TO_TRYTOSOLVE_AGAIN)
{
timeSinceLastTryToSolve = 0;
hit.transform.GetComponentInParent <Receiver>().TryToSolve(clrLaser);
}
}
}
yield return(new WaitForEndOfFrame());
}
