private void Draw()
{
for (int k = 0; k < currentPath.Length; k++)
{
switch (currentPath[k])
{
// 'F' Means a straight line-- continue on. In this particular implementation, it uses a fancy algorith to
case 'F':
initalPosition = transform.position;
// By default, elements are NOT leaves
bool isLeaf = false;
GameObject currentElement;
// I have no idea how this works, but it determines if the next element to draw should be a leaf or a branch.
if (currentPath[k + 1] % currentPath.Length == 'X' || currentPath[k + 3] % currentPath.Length == 'F' && currentPath[k + 4] % currentPath.Length == 'X')
{
currentElement = Instantiate(leaf);
isLeaf = true;
}
else
{
currentElement = Instantiate(branch);
}
// Make the newest element drawn inherit from the tree prefab (???)
currentElement.transform.SetParent(tree.transform);
TreeElement currentTreeElement = currentElement.GetComponent <TreeElement>();
if (isLeaf)
{
transform.Translate(Vector3.up * 2f * Random.Range(minLeafLength, maxLeafLength));
currentTreeElement.GetComponent <LineRenderer>().startWidth = 0;
currentTreeElement.GetComponent <LineRenderer>().endWidth = leafWidth;
leafCount++;
}
else
{
transform.Translate(Vector3.up * 2f * Random.Range(minBranchLength, maxBranchLength));
currentTreeElement.lineRenderer.startWidth = branchWidth;
currentTreeElement.lineRenderer.endWidth = branchWidth;
branchCount++;
}
currentTreeElement.lineRenderer.SetPosition(0, initalPosition);
currentTreeElement.lineRenderer.SetPosition(1, transform.position);
currentTreeElement.lineRenderer.sharedMaterial = currentTreeElement.material;
break;
case 'X':
break;
case '+':
transform.Rotate(Vector3.forward * angle * (1f + variance / 10f * randomRotations[k % randomRotations.Length]));
break;
case '-':
transform.Rotate(Vector3.back * angle * (1f + variance / 10f * randomRotations[k % randomRotations.Length]));
break;
case '*':
transform.Rotate(Vector3.up * 120f * (1f + variance / 10f * randomRotations[k % randomRotations.Length]));
break;
case '/':
transform.Rotate(Vector3.down * 120f * (1f + variance / 10f * randomRotations[k % randomRotations.Length]));
break;
case '[':
SavedTransform savedTransformPush = new SavedTransform();
savedTransformPush.position = transform.position;
savedTransformPush.rotation = transform.rotation;
savedTransforms.Push(savedTransformPush);
break;
case ']':
SavedTransform savedTransformPop = savedTransforms.Pop();
transform.position = savedTransformPop.position;
transform.rotation = savedTransformPop.rotation;
break;
}
}
Debug.Log("leafCount : " + leafCount + " , branchCount : " + branchCount);
}