bool ConvertCountries()
{
List <CNode> foundNodes = new List <CNode> ();
ConnectedNodes(nodes [0], foundNodes);
if (foundNodes.Count == nodes.Count && nodes.FindAll(x => x.links.Count < 2).Count == 0)
{
//Debug.Log ("All nodes are connected by two links");
List <List <CNode> > nodeShapes = new List <List <CNode> > ();
List <CNode> multiNodes = nodes.FindAll(x => x.links.Count > 2);
/*if(multiNodes.Count == 0) {
* nodeShapes.Add(nodes);
* }*/
List <CNode[]> doneNodes = new List <CNode[]> ();
foreach (CNode junction in multiNodes) //we loop through each junction to catch all the shapes
{
List <CNode> cwNodes = junction.CClockwiseConnected();
foreach (CNode node in cwNodes) //we go around each node, looking for its clockwise next point
{
if (doneNodes.Find(x => x [0] == node && x [1] == junction) != null)
{
continue;
}
float angleSum = 0f;
doneNodes.Add(new CNode[2] {
node, junction
}); //we start by adding the node so we don't go around it clockwise again
CNode currentNode = junction;
CNode lastNode = node;
//Debug.Log ("Started from " + lastNode.gameObject.name + " and " + currentNode.gameObject.name);
List <CNode> currentShape = new List <CNode> ();
currentShape.Add(node);
do
{
CNode temp = currentNode;
currentShape.Add(currentNode);
currentNode = currentNode.CClockwiseFrom(lastNode);
float addAngle = MeshMaker.GetCWAngle(temp.gameObject.transform.position,
lastNode.gameObject.transform.position,
currentNode.gameObject.transform.position) - Mathf.PI; //we look at the exterior angle, which is why we subtract Pi
//Debug.Log ("Angle between " + lastNode.gameObject.name + " and " + currentNode.gameObject.name + " is " + addAngle.ToString());
angleSum += addAngle;
lastNode = temp;
//Debug.Log ("Added " + currentNode.gameObject.name);
if (currentNode.links.Count > 2) //if it's a node before a junction, we might loop through it in the future and want to avoid it now
{
doneNodes.Add(new CNode[2] {
lastNode, currentNode
});
}
} while(currentNode != node);
//Debug.Log (angleSum.ToString());
if (angleSum < 0) //This is true for shapes we've gone around the inside of - otherwise, we can include a negative shape
{
nodeShapes.Add(currentShape);
}
}
}
for (int nodeIndex = 0; nodeIndex < nodeShapes.Count; nodeIndex++) //we generate the shapes out of the list of CNodes
{
List <CNode> nodeList = nodeShapes [nodeIndex];
Vector3[] vertices = new Vector3[nodeList.Count];
Vector3 averageVert = new Vector3();
for (int i = 0; i < nodeList.Count; i++)
{
averageVert += nodeList [i].gameObject.transform.position;
}
averageVert /= nodeList.Count;
for (int i = 0; i < nodeList.Count; i++)
{
vertices[i] = nodeList [i].gameObject.transform.position - averageVert;
}
Triangulator triangulator = new Triangulator(vertices);
triangulator.Triangulate();
GameObject newObject = new GameObject();
MeshFilter newFilter = newObject.AddComponent <MeshFilter> ();
newFilter.mesh.vertices = vertices;
newFilter.mesh.triangles = triangulator.Triangulate();
newFilter.mesh.RecalculateBounds();
newFilter.mesh.RecalculateNormals();
MeshRenderer newRenderer = newObject.AddComponent <MeshRenderer> ();
newRenderer.material.shader = Shader.Find("UI/Default");
float colorFraction = nodeIndex / (nodeShapes.Count * 1.0f);
//Debug.Log ("Coloring at " + colorFraction.ToString ());
newRenderer.material.color = new Color(colorFraction, colorFraction, colorFraction, 1f);
newObject.AddComponent <MeshCollider>();
newObject.AddComponent <CountryObject>();
newObject.transform.Translate(averageVert + new Vector3(0f, 0f, 1f));
MeshMaker.GenerateOutline(newObject);
}
return(true);
}
return(false);
}
