public void UpdatePointWidthHeight()
{
if (pointWidthHeightChanged)
{
// Series line point dimensions
if (theGraph.graphType == WMG_Axis_Graph.graphTypes.line)
{
for (int i = 0; i < pointValues.Count; i++)
{
WMG_Node thePoint = points[i].GetComponent <WMG_Node>();
theGraph.changeSpriteHeight(thePoint.objectToColor, Mathf.RoundToInt(pointWidthHeight));
theGraph.changeSpriteWidth(thePoint.objectToColor, Mathf.RoundToInt(pointWidthHeight));
}
}
// Legend point / bar dimensions
WMG_Node legendPoint = legendEntryNode.GetComponent <WMG_Node>();
theGraph.changeSpriteHeight(legendPoint.objectToColor, Mathf.RoundToInt(pointWidthHeight));
theGraph.changeSpriteWidth(legendPoint.objectToColor, Mathf.RoundToInt(pointWidthHeight));
// Legend empty objects to get line to center correctly
if (theGraph.isDaikon())
{
theGraph.changeSpriteHeight(legendEntryNodeLeft, Mathf.RoundToInt(pointWidthHeight));
theGraph.changeSpriteWidth(legendEntryNodeLeft, Mathf.RoundToInt(pointWidthHeight));
theGraph.changeSpriteHeight(legendEntryNodeRight, Mathf.RoundToInt(pointWidthHeight));
theGraph.changeSpriteWidth(legendEntryNodeRight, Mathf.RoundToInt(pointWidthHeight));
}
}
}
private void TooltipNodeMouseEnter(WMG_Series aSeries, WMG_Node aNode, bool state)
{
if (isTooltipObjectNull())
{
return;
}
if (state)
{
Vector3 newVec = new Vector3(2, 2, 1);
if (!aSeries.seriesIsLine)
{
if (theGraph.orientationType == WMG_Axis_Graph.orientationTypes.vertical)
{
newVec = new Vector3(1, 1.1f, 1);
}
else
{
newVec = new Vector3(1.1f, 1, 1);
}
}
MouseEnterCommon(tooltipLabeler(aSeries, aNode), aNode.gameObject, newVec);
}
else
{
MouseExitCommon(aNode.gameObject);
}
}
private void TooltipLegendNodeMouseEnter(WMG_Series aSeries, WMG_Node aNode, bool state)
{
if (isTooltipObjectNull())
{
return;
}
if (state)
{
// Set the text
changeLabelText(theGraph.toolTipLabel, aSeries.seriesName);
// Resize this control to match the size of the contents
changeSpriteWidth(theGraph.toolTipPanel, Mathf.RoundToInt(getSpriteWidth(theGraph.toolTipLabel)) + 24);
// Ensure tooltip is in position before showing it so it doesn't appear to jump
repositionTooltip();
// Display the base panel
showControl(theGraph.toolTipPanel);
bringSpriteToFront(theGraph.toolTipPanel);
performTooltipAnimation(aNode.transform, new Vector3(2, 2, 1));
}
else
{
hideControl(theGraph.toolTipPanel);
sendSpriteToBack(theGraph.toolTipPanel);
performTooltipAnimation(aNode.transform, new Vector3(1, 1, 1));
}
}
// Only Used in Editor -
public void RepositionRelativeToNode (WMG_Node fromNode, bool fixAngle, int degreeStep, float lengthStep) {
// This is used to reposition the node and associated links based on a fixed angle or fixed length step relative to another node
float posXdif = (this.transform.localPosition.x - fromNode.transform.localPosition.x);
float posYdif = (this.transform.localPosition.y - fromNode.transform.localPosition.y);
float angle = Mathf.Atan2(posYdif,posXdif)*Mathf.Rad2Deg;
if (angle < 0) angle += 360;
float length = Mathf.Sqrt(Mathf.Pow(posYdif,2) + Mathf.Pow(posXdif,2));
if (length < 0) length = 0;
float newAngle = angle;
if (fixAngle) {
newAngle = 0;
for (int i = 0; i < 360 / degreeStep; i++) {
if (angle >= i*degreeStep - 0.5f*degreeStep && angle < (i+1)*degreeStep - 0.5f*degreeStep) {
newAngle = i*degreeStep;
}
}
}
else {
float mod = length % lengthStep;
length -= mod;
if (lengthStep - mod < lengthStep / 2) length += lengthStep;
}
this.transform.localPosition = new Vector3 (fromNode.transform.localPosition.x + length * Mathf.Cos(Mathf.Deg2Rad*(newAngle)),
fromNode.transform.localPosition.y + length * Mathf.Sin(Mathf.Deg2Rad*(newAngle)),
this.transform.localPosition.z);
for (int i = 0; i < numLinks; i++) {
WMG_Link theLink = links[i].GetComponent<WMG_Link>();
theLink.Reposition();
}
}
public List <GameObject> GenerateGraph()
{
GameObject fromN = theGraph.CreateNode(nodePrefab, null);
WMG_Node fromNode = fromN.GetComponent <WMG_Node>();
return(GenerateGraphFromNode(fromNode));
}
// Use this for initialization
void Start()
{
// Convert to 3d
this.transform.localPosition = new Vector3(0, 300, 900);
shieldTree.transform.localEulerAngles = new Vector3(0, 15, 0);
weaponTree.transform.localEulerAngles = new Vector3(345, 0, 0);
engineTree.transform.localEulerAngles = new Vector3(0, 345, 0);
UIEventListener.Get(shieldTreeBackground).onHover += OnShieldTreeHover;
UIEventListener.Get(engineTreeBackground).onHover += OnEngineTreeHover;
UIEventListener.Get(weaponTreeBackground).onHover += OnWeaponTreeHover;
UIEventListener.Get(shieldTreeBackground).onClick += OnShieldTreeClick;
UIEventListener.Get(engineTreeBackground).onClick += OnEngineTreeClick;
UIEventListener.Get(weaponTreeBackground).onClick += OnWeaponTreeClick;
toolTipText1Label = toolTipText1.GetComponent <UILabel>();
toolTipText2Label = toolTipText2.GetComponent <UILabel>();
toolTipText3Label = toolTipText3.GetComponent <UILabel>();
toolTipText4Label = toolTipText4.GetComponent <UILabel>();
foreach (Transform child in shieldTree.transform)
{
WMG_Node aNode = child.GetComponent <WMG_Node>();
if (aNode != null)
{
UIEventListener.Get(child.gameObject).onHover += OnSkillNodeHover;
BoxCollider aCol = child.GetComponent <BoxCollider>();
if (aCol != null)
{
aCol.enabled = false;
}
}
}
foreach (Transform child in engineTree.transform)
{
WMG_Node aNode = child.GetComponent <WMG_Node>();
if (aNode != null)
{
UIEventListener.Get(child.gameObject).onHover += OnSkillNodeHover;
BoxCollider aCol = child.GetComponent <BoxCollider>();
if (aCol != null)
{
aCol.enabled = false;
}
}
}
foreach (Transform child in weaponTree.transform)
{
WMG_Node aNode = child.GetComponent <WMG_Node>();
if (aNode != null)
{
UIEventListener.Get(child.gameObject).onHover += OnSkillNodeHover;
BoxCollider aCol = child.GetComponent <BoxCollider>();
if (aCol != null)
{
aCol.enabled = false;
}
}
}
}
public void CreateNodes()
{
// Create nodes based on numNodes
for (int i = 0; i < numNodes; i++)
{
if (treeNodes.Count <= i)
{
Object nodePrefab = defaultNodePrefab;
if (nodePrefabs.Count > i)
{
nodePrefab = nodePrefabs[i];
}
WMG_Node curNode = CreateNode(nodePrefab, nodeParent).GetComponent <WMG_Node>();
treeNodes.Add(curNode.gameObject);
}
}
// Create invisible nodes
for (int i = 0; i < numInvisibleNodes; i++)
{
if (treeInvisibleNodes.Count <= i)
{
WMG_Node curNode = CreateNode(invisibleNodePrefab, nodeParent).GetComponent <WMG_Node>();
treeInvisibleNodes.Add(curNode.gameObject);
}
}
}
private string defaultTooltipLabeler(WMG_Series aSeries, WMG_Node aNode)
{
// Find out the point value data for this node
Vector2 nodeData = aSeries.getNodeValue(aNode);
float numberToMult = Mathf.Pow(10f, aSeries.theGraph.tooltipNumberDecimals);
string nodeX = (Mathf.Round(nodeData.x * numberToMult) / numberToMult).ToString();
string nodeY = (Mathf.Round(nodeData.y * numberToMult) / numberToMult).ToString();
// Determine the tooltip text to display
string textToSet;
if (aSeries.seriesIsLine)
{
textToSet = "(" + nodeX + ", " + nodeY + ")";
}
else
{
textToSet = nodeY;
}
if (aSeries.theGraph.tooltipDisplaySeriesName)
{
textToSet = aSeries.seriesName + ": " + textToSet;
}
return(textToSet);
}
public GameObject CreateLinkNoRepos(WMG_Node fromNode, GameObject toNode, Object prefabLink, GameObject parent)
{
GameObject createdLink = fromNode.CreateLink(toNode, prefabLink, linksParent.Count, parent, false);
linksParent.Add(createdLink);
return(createdLink);
}
void ActivateNeighbors(WMG_Node fromNode)
{
for (int i = 0; i < fromNode.numLinks; i++)
{
WMG_Link aLink = fromNode.links[i].GetComponent <WMG_Link>();
if (!theMap.activeInHierarchy(aLink.gameObject))
{
// Activate and animate links expanding from source node to end node
activatingNodesStart = fromNode;
theMap.SetActive(aLink.gameObject, true);
UIWidget aLinkW = aLink.objectToScale.GetComponent <UIWidget>();
int origScale = Mathf.RoundToInt(aLinkW.height);
float p1y = fromNode.transform.localPosition.y + (fromNode.radius) * Mathf.Sin(Mathf.Deg2Rad * fromNode.linkAngles[i]);
float p1x = fromNode.transform.localPosition.x + (fromNode.radius) * Mathf.Cos(Mathf.Deg2Rad * fromNode.linkAngles[i]);
Vector3 origPos = aLink.transform.localPosition;
Vector3 newPos = new Vector3(p1x, p1y, origPos.z);
aLink.transform.localPosition = newPos;
TweenPosition.Begin(aLink.gameObject, 1, origPos);
aLinkW.height = 0;
TweenHeight tSca = TweenHeight.Begin(aLinkW, 1, origScale);
tSca.callWhenFinished = "endActivatingNeighbors";
tSca.eventReceiver = this.gameObject;
}
}
}
public GameObject ReplaceNodeWithNewPrefab(WMG_Node theNode, Object prefabNode)
{
// Used to swap prefabs of a node
GameObject newNode = CreateNode(prefabNode, theNode.transform.parent.gameObject);
WMG_Node newNode2 = newNode.GetComponent <WMG_Node>();
newNode2.numLinks = theNode.numLinks;
newNode2.links = theNode.links;
newNode2.linkAngles = theNode.linkAngles;
newNode2.SetID(theNode.id);
newNode2.name = theNode.name;
newNode.transform.position = theNode.transform.position;
// Update link from / to node references
for (int i = 0; i < theNode.numLinks; i++)
{
WMG_Link aLink = theNode.links[i].GetComponent <WMG_Link>();
WMG_Node fromN = aLink.fromNode.GetComponent <WMG_Node>();
if (fromN.id == theNode.id)
{
aLink.fromNode = newNode;
}
else
{
aLink.toNode = newNode;
}
}
nodesParent.Remove(theNode.gameObject);
Destroy(theNode.gameObject);
return(newNode);
}
IEnumerator AnimateSpriteFill(int sliceNum, float animateDuration, float afterFill, float newAngle, int lastSliceNum, Color newSliceColor)
{
if (sliceNum == 0)
{
isAnimating = true;
}
WMG_Node pieSlice = slices[sliceNum].GetComponent <WMG_Node>();
UISprite sliceSprite = pieSlice.objectToColor.GetComponent <UISprite>();
float t = 0f;
float beforeFill = slicePercents[sliceNum];
float beforeRot = sliceSprite.transform.localEulerAngles.z;
float fill = beforeFill;
float rot = beforeRot;
float beforeExplodeAngle = beforeRot * -1 + 0.5f * beforeFill * 360;
float afterExplodeAngle = newAngle * -1 + 0.5f * afterFill * 360;
float explodeFromAngle = beforeExplodeAngle;
sliceSprite.color = newSliceColor;
while (t < animateDuration)
{
float animationPercent = t / animateDuration;
fill = Mathf.Lerp(beforeFill, afterFill, animationPercent);
rot = Mathf.Lerp(beforeRot, newAngle, animationPercent);
explodeFromAngle = Mathf.Lerp(beforeExplodeAngle, afterExplodeAngle, animationPercent);
t += Time.deltaTime;
sliceSprite.fillAmount = fill;
sliceSprite.transform.localEulerAngles = new Vector3(0, 0, rot);
slices[sliceNum].transform.localPosition = new Vector3(explodeLength * Mathf.Sin(explodeFromAngle * Mathf.Deg2Rad),
explodeLength * Mathf.Cos(explodeFromAngle * Mathf.Deg2Rad), slices[sliceNum].transform.localPosition.z);
pieSlice.objectToLabel.transform.localPosition = new Vector3((explodeLength + sliceLabelExplodeLength + getSpriteWidth(pieSlice.objectToColor) / 4) * Mathf.Sin(explodeFromAngle * Mathf.Deg2Rad),
(explodeLength + sliceLabelExplodeLength + getSpriteHeight(pieSlice.objectToColor) / 4) * Mathf.Cos(explodeFromAngle * Mathf.Deg2Rad),
pieSlice.objectToLabel.transform.localPosition.z);
yield return(null);
}
sliceExplodeAngles[sliceNum] = afterExplodeAngle;
slicePercents[sliceNum] = afterFill;
slices[sliceNum].name = sliceLabels[sliceNum];
sliceLegendEntries[sliceNum].name = sliceLabels[sliceNum];
sliceSprite.fillAmount = afterFill;
sliceSprite.transform.localEulerAngles = new Vector3(0, 0, newAngle);
slices[sliceNum].transform.localPosition = new Vector3(explodeLength * Mathf.Sin(afterExplodeAngle * Mathf.Deg2Rad),
explodeLength * Mathf.Cos(afterExplodeAngle * Mathf.Deg2Rad), slices[sliceNum].transform.localPosition.z);
pieSlice.objectToLabel.transform.localPosition = new Vector3((explodeLength + sliceLabelExplodeLength + getSpriteWidth(pieSlice.objectToColor) / 4) * Mathf.Sin(afterExplodeAngle * Mathf.Deg2Rad),
(explodeLength + sliceLabelExplodeLength + getSpriteHeight(pieSlice.objectToColor) / 4) * Mathf.Cos(afterExplodeAngle * Mathf.Deg2Rad),
pieSlice.objectToLabel.transform.localPosition.z);
if (sliceNum == lastSliceNum)
{
isAnimating = false;
bool wasASwap = false;
if (sortBy != sortMethod.None)
{
wasASwap = sortData();
}
if (wasASwap)
{
isSortAnimating = true;
shrinkSlices();
}
}
}
public WMG_Series seriesRef; // Used for series legend event delegates
public GameObject CreateLink(GameObject target, Object prefabLink, int linkId, GameObject parent, bool repos)
{
// Creating a link between two nodes populates all needed references and automatically repositions and scales the link based on the nodes
GameObject objLink = Instantiate(prefabLink) as GameObject;
Vector3 linkLocalPos = objLink.transform.localPosition;
GameObject theParent = parent;
if (parent == null)
{
theParent = target.transform.parent.gameObject;
}
changeSpriteParent(objLink, theParent);
// objLink.transform.parent = target.transform.parent;
objLink.transform.localScale = Vector3.one;
objLink.transform.localPosition = linkLocalPos;
WMG_Link theLink = objLink.GetComponent <WMG_Link>();
links.Add(objLink);
linkAngles.Add(0);
WMG_Node theTarget = target.GetComponent <WMG_Node>();
theTarget.links.Add(objLink);
theTarget.linkAngles.Add(0);
theTarget.numLinks++;
numLinks++;
theLink.Setup(this.gameObject, target, linkId, repos); // automatically repositions and scales the link based on the nodes
return(objLink);
}
private void WMG_MouseEnter_2(GameObject go, bool state)
{
if (WMG_MouseEnter != null)
{
WMG_Node node = go.GetComponent <WMG_Node>();
WMG_MouseEnter(node.seriesRef, node, state);
}
}
private void WMG_Click_2(GameObject go, PointerEventData pointerEventData)
{
if (WMG_Click != null)
{
WMG_Node node = go.GetComponent <WMG_Node>();
WMG_Click(node.seriesRef, node, pointerEventData);
}
}
public void CreateLink(WMG_Node fromNode, WMG_Node toNode)
{
WMG_Link aLink = GetLink(fromNode, toNode);
if (aLink == null)
{
CreateLink(fromNode, toNode.gameObject, this.LinkPrefab, this.gameObject);
}
}
// Given two nodes return one or more shortest paths between the nodes based on the link weights (weighted), and also node radii if include radii is true
public List<WMG_Link> FindShortestPathBetweenNodesWeighted(WMG_Node fromNode, WMG_Node toNode, bool includeRadii) {
List<WMG_Link> linksBetweenToAndFrom = new List<WMG_Link>();
List<WMG_Node> Dijkstra_nodes = new List<WMG_Node>();
// Reset data needed for this algorithm
foreach (GameObject node in nodesParent) {
WMG_Node aNode = node.GetComponent<WMG_Node>();
if (aNode != null) {
if (aNode.id == fromNode.id) aNode.Dijkstra_depth = 0;
else aNode.Dijkstra_depth = Mathf.Infinity;
Dijkstra_nodes.Add(aNode);
}
}
Dijkstra_nodes.Sort (delegate(WMG_Node x, WMG_Node y) { return x.Dijkstra_depth.CompareTo(y.Dijkstra_depth); });
// This is exactly Dijkstra's algorithm
while (Dijkstra_nodes.Count > 0) {
WMG_Node temp = Dijkstra_nodes[0];
Dijkstra_nodes.RemoveAt(0);
if (toNode.id == temp.id) break; // Reached the target node so we are done
if (temp.Dijkstra_depth == Mathf.Infinity) break;
for (int i = 0; i < temp.numLinks; i++) {
WMG_Link aLink = temp.links[i].GetComponent<WMG_Link>();
WMG_Node temp2 = aLink.toNode.GetComponent<WMG_Node>();
if (temp2.id == temp.id) temp2 = aLink.fromNode.GetComponent<WMG_Node>();
float alt = temp.Dijkstra_depth + aLink.weight;
if (includeRadii) alt += temp.radius + temp2.radius;
if (alt < temp2.Dijkstra_depth) {
temp2.Dijkstra_depth = alt;
Dijkstra_nodes.Sort (delegate(WMG_Node x, WMG_Node y) { return x.Dijkstra_depth.CompareTo(y.Dijkstra_depth); });
}
}
}
// If all we cared about was the shortest distance between the two nodes we could end here, but we might also want the links themselves
// This finds the shortest path of links between the starting and ending nodes using the previously calculated depths
Queue<WMG_Node> mapSysQ = new Queue<WMG_Node>();
mapSysQ.Enqueue(toNode);
while (mapSysQ.Count > 0) {
WMG_Node temp = mapSysQ.Dequeue();
if (fromNode.id == temp.id) break;
for (int i = 0; i < temp.numLinks; i++) {
WMG_Link aLink = temp.links[i].GetComponent<WMG_Link>();
WMG_Node temp2 = aLink.toNode.GetComponent<WMG_Node>();
if (temp2.id == temp.id) temp2 = aLink.fromNode.GetComponent<WMG_Node>();
float alt = temp2.Dijkstra_depth + aLink.weight;
if (includeRadii) alt += temp.radius + temp2.radius;
if (Mathf.Approximately(temp.Dijkstra_depth, alt)) {
linksBetweenToAndFrom.Add(aLink);
if (!mapSysQ.Contains(temp2)) mapSysQ.Enqueue(temp2);
}
}
}
return linksBetweenToAndFrom;
}
// Given two nodes return one or more shortest paths between the nodes based on the number of links (unweighted)
public List<WMG_Link> FindShortestPathBetweenNodes(WMG_Node fromNode, WMG_Node toNode) {
List<WMG_Link> linksBetweenToAndFrom = new List<WMG_Link>();
// Reset BFS data needed for this algorithm
foreach (GameObject node in nodesParent) {
WMG_Node aNode = node.GetComponent<WMG_Node>();
if (aNode != null) {
aNode.BFS_mark = false;
aNode.BFS_depth = 0;
}
}
Queue<WMG_Node> mapSysQ = new Queue<WMG_Node>();
// This calculates and stores the depth of every node between the starting and ending nodes
// This is exactly the BFS (Breadth-first search) algorithm
mapSysQ.Enqueue(fromNode);
fromNode.BFS_mark = true;
while (mapSysQ.Count > 0) {
WMG_Node temp = mapSysQ.Dequeue();
if (toNode.id == temp.id) break; // Reached the target node so we are done
// Add the current node neighbors to the queue if they haven't been added in the past and calculate the depth
for (int i = 0; i < temp.numLinks; i++) {
WMG_Link aLink = temp.links[i].GetComponent<WMG_Link>();
WMG_Node temp2 = aLink.toNode.GetComponent<WMG_Node>();
if (temp2.id == temp.id) temp2 = aLink.fromNode.GetComponent<WMG_Node>();
if (!temp2.BFS_mark) {
temp2.BFS_mark = true;
temp2.BFS_depth = temp.BFS_depth + 1;
mapSysQ.Enqueue(temp2);
}
}
}
// If all we cared about was the shortest distance between the two nodes we could end here, but we might also want the links themselves
// This finds the shortest path of links between the starting and ending nodes using the previously calculated depths
mapSysQ.Clear();
mapSysQ.Enqueue(toNode);
while (mapSysQ.Count > 0) {
WMG_Node temp = mapSysQ.Dequeue();
if (fromNode.id == temp.id) break;
for (int i = 0; i < temp.numLinks; i++) {
WMG_Link aLink = temp.links[i].GetComponent<WMG_Link>();
WMG_Node temp2 = aLink.toNode.GetComponent<WMG_Node>();
if (temp2.id == temp.id) temp2 = aLink.fromNode.GetComponent<WMG_Node>();
if (temp.BFS_depth == temp2.BFS_depth + 1) {
if (temp2.BFS_depth == 0 && temp2.id != fromNode.id) continue;
linksBetweenToAndFrom.Add(aLink);
if (!mapSysQ.Contains(temp2)) mapSysQ.Enqueue(temp2);
}
}
}
return linksBetweenToAndFrom;
}
public void Reposition()
{
float posXdif = getSpritePositionX(toNode) - getSpritePositionX(fromNode);
float posYdif = getSpritePositionY(toNode) - getSpritePositionY(fromNode);
float angle = Mathf.Atan2(posYdif, posXdif) * Mathf.Rad2Deg + 90;
WMG_Node fromN = fromNode.GetComponent <WMG_Node>();
WMG_Node toN = toNode.GetComponent <WMG_Node>();
SetNodeAngles(angle, fromN, toN); // Set angles in node references, so they don't need to be calculated in various places
float radiuses = fromN.radius + toN.radius;
float length = Mathf.Sqrt(Mathf.Pow(posYdif, 2) + Mathf.Pow(posXdif, 2)) - radiuses;
if (length < 0)
{
length = 0;
}
if (weightIsLength)
{
weight = length;
}
if (updateLabelWithLength)
{
if (objectToLabel != null)
{
changeLabelText(objectToLabel, Mathf.Round(length).ToString());
objectToLabel.transform.localEulerAngles = new Vector3(0, 0, 360 - angle);
}
}
// NGUI
this.transform.localPosition = new Vector3(getSpriteFactorY2(this.gameObject) * posXdif + fromNode.transform.localPosition.x,
getSpriteFactorY2(this.gameObject) * posYdif + fromNode.transform.localPosition.y,
this.transform.localPosition.z);
// Daikon
// changeSpritePositionRelativeToObjBy(this.gameObject, fromNode,
// new Vector3(getSpriteFactorY(this.gameObject) * posXdif +
// -getSpriteOffsetX(this.gameObject) +
// Mathf.Cos(Mathf.Deg2Rad * angle) * 0.5f * getSpriteWidth(this.gameObject) +
// Mathf.Cos(Mathf.Deg2Rad * angle) * (getSpriteFactorX(this.gameObject) - 1) * getSpriteWidth(this.gameObject) +
// getSpriteOffsetX(fromNode),
// getSpriteFactorY(this.gameObject) * posYdif +
// getSpriteOffsetY(this.gameObject) +
// -Mathf.Sin(Mathf.Deg2Rad * angle) * 0.5f * getSpriteWidth(this.gameObject) +
// Mathf.Sin(Mathf.Deg2Rad * angle) * getSpriteFactorX(this.gameObject) * getSpriteWidth(this.gameObject) +
// -getSpriteOffsetY(fromNode), 1));
changeSpriteHeight(objectToScale, Mathf.RoundToInt(length));
this.transform.localEulerAngles = new Vector3(0, 0, angle);
}
/// <summary>
/// 点击计量条的方法，该方法内通过面板控制器打开对应弹出的面板
/// </summary>
/// <param name="aSeries">计量条所在的series</param>
/// <param name="aNode">被点击的计量条</param>
private void BarGraph_WMG_Click(WMG_Series aSeries, WMG_Node aNode)
{
if (nodesDic.ContainsKey(aNode))
{
//当字典中包含被点击的计量条时，将计量条所对应的产品id取出
int t = nodesDic[aNode];
MessageArg arg = new MessageArg(t);
//调用面板控制器，传入产品产量明细， 和条目id
SendMsg((int)MessageUIConst.OpenPassRateDetailPanel, ManagerID.SecondLevelPanel, arg);
}
}
// Get Vector2 associated with a node in this series
public Vector2 getNodeValue(WMG_Node aNode)
{
for (int i = 0; i < pointValues.Count; i++) // TODO improve performance by mapping IDs to Vector2
{
if (points[i].GetComponent <WMG_Node>() == aNode)
{
return(pointValues[i]);
}
}
return(Vector2.zero);
}
public void UpdateSeriesName()
{
if (seriesNameChanged)
{
// Series name
WMG_Node cObj = legendEntryParent.GetComponent <WMG_Node>();
theGraph.changeLabelText(cObj.objectToLabel, seriesName);
// Legend font size
cObj.objectToLabel.transform.localScale = new Vector3(legendEntryFontSize, legendEntryFontSize, 1);
}
}
// Only Used in Editor -
public void RepositionRelativeToNode(WMG_Node fromNode, bool fixAngle, int degreeStep, float lengthStep)
{
// This is used to reposition the node and associated links based on a fixed angle or fixed length step relative to another node
float posXdif = (this.transform.localPosition.x - fromNode.transform.localPosition.x);
float posYdif = (this.transform.localPosition.y - fromNode.transform.localPosition.y);
float angle = Mathf.Atan2(posYdif, posXdif) * Mathf.Rad2Deg;
if (angle < 0)
{
angle += 360;
}
float length = Mathf.Sqrt(Mathf.Pow(posYdif, 2) + Mathf.Pow(posXdif, 2));
if (length < 0)
{
length = 0;
}
float newAngle = angle;
if (fixAngle)
{
newAngle = 0;
for (int i = 0; i < 360 / degreeStep; i++)
{
if (angle >= i * degreeStep - 0.5f * degreeStep && angle < (i + 1) * degreeStep - 0.5f * degreeStep)
{
newAngle = i * degreeStep;
}
}
}
else
{
float mod = length % lengthStep;
length -= mod;
if (lengthStep - mod < lengthStep / 2)
{
length += lengthStep;
}
}
this.transform.localPosition = new Vector3(fromNode.transform.localPosition.x + length * Mathf.Cos(Mathf.Deg2Rad * (newAngle)),
fromNode.transform.localPosition.y + length * Mathf.Sin(Mathf.Deg2Rad * (newAngle)),
this.transform.localPosition.z);
for (int i = 0; i < numLinks; i++)
{
WMG_Link theLink = links[i].GetComponent <WMG_Link>();
theLink.Reposition();
}
}
public float weight; // A link's weight, used in find shortest path weighted algorithms
public void Setup(GameObject fromNode, GameObject toNode, int linkId)
{
// Setup references and give a default name of the link based on node IDs
this.fromNode = fromNode;
this.toNode = toNode;
SetId(linkId);
WMG_Node fromN = fromNode.GetComponent <WMG_Node>();
WMG_Node toN = toNode.GetComponent <WMG_Node>();
this.name = "WMG_Link_" + fromN.id + "_" + toN.id;
Reposition(); // Update position and scale based on connected nodes
}
/// <summary>
/// Reposition this link based on the positions of its from and to nodes.
/// </summary>
public virtual void Reposition()
{
float posXdif = getSpritePositionX(toNode) - getSpritePositionX(fromNode);
float posYdif = getSpritePositionY(toNode) - getSpritePositionY(fromNode);
float angle = Mathf.Atan2(posYdif, posXdif) * Mathf.Rad2Deg + 90;
WMG_Node fromN = fromNode.GetComponent <WMG_Node>();
WMG_Node toN = toNode.GetComponent <WMG_Node>();
SetNodeAngles(angle, fromN, toN); // Set angles in node references, so they don't need to be calculated in various places
float radii = fromN.radius + toN.radius;
float length = Mathf.Sqrt(Mathf.Pow(posYdif, 2) + Mathf.Pow(posXdif, 2)) - radii;
if (length < 0)
{
length = 0;
}
// When the radii are different, need to offset the link position based on the difference of the radii
float radiusDifPosX = (fromN.radius - toN.radius) / 2 * Mathf.Cos(Mathf.Deg2Rad * (angle - 90));
float radiusDifPosY = (fromN.radius - toN.radius) / 2 * Mathf.Sin(Mathf.Deg2Rad * (angle - 90));
// Handling cases when one or more of the from / to nodes are square instead of circle
float squareLengthOffsetFrom = getSquareCircleOffsetLength(fromN, angle, true);
float squareLengthOffsetTo = getSquareCircleOffsetLength(toN, angle, false);
length = length - squareLengthOffsetFrom - squareLengthOffsetTo;
float squareDifPosX = (squareLengthOffsetFrom - squareLengthOffsetTo) / 2 * Mathf.Cos(Mathf.Deg2Rad * (angle - 90));
float squareDifPosY = (squareLengthOffsetFrom - squareLengthOffsetTo) / 2 * Mathf.Sin(Mathf.Deg2Rad * (angle - 90));
if (weightIsLength)
{
weight = length;
}
if (updateLabelWithLength)
{
if (objectToLabel != null)
{
changeLabelText(objectToLabel, Mathf.Round(length).ToString());
objectToLabel.transform.localEulerAngles = new Vector3(0, 0, 360 - angle);
}
}
changeSpritePositionTo(this.gameObject, new Vector3(getSpritePivotTopToBot(this.objectToScale) * posXdif + fromNode.transform.localPosition.x + radiusDifPosX + squareDifPosX,
getSpritePivotTopToBot(this.objectToScale) * posYdif + fromNode.transform.localPosition.y + radiusDifPosY + squareDifPosY,
this.transform.localPosition.z));
changeSpriteHeightFloat(objectToScale, length);
this.transform.localEulerAngles = new Vector3(0, 0, angle);
}
private void animateLinkCallback(WMG_Series aSeries, GameObject aGO)
{
WMG_Node aNode = aGO.GetComponent <WMG_Node>();
WMG_Link theLine = aNode.links[aNode.links.Count - 1].GetComponent <WMG_Link>();
theLine.Reposition();
if (aSeries.connectFirstToLast) // One extra link to animate for circles / close loop series
{
aNode = aSeries.getPoints()[0].GetComponent <WMG_Node>();
theLine = aNode.links[0].GetComponent <WMG_Link>();
theLine.Reposition();
}
}
void ActivateNeighborNodes(WMG_Node fromNode)
{
for (int i = 0; i < fromNode.numLinks; i++)
{
WMG_Link aLink = fromNode.links[i].GetComponent <WMG_Link>();
WMG_Node aLinkTo = aLink.toNode.GetComponent <WMG_Node>();
if (aLinkTo.id == fromNode.id)
{
aLinkTo = aLink.fromNode.GetComponent <WMG_Node>();
}
theMap.SetActive(aLinkTo.gameObject, true);
}
}
string customTooltipLabeler(WMG_Series aSeries, WMG_Node aNode)
{
Vector2 nodeData = aSeries.getNodeValue(aNode);
tooltipNumberFormatInfo.CurrencyDecimalDigits = aSeries.theGraph.tooltipNumberDecimals;
string textToSet = nodeData.y.ToString("C", tooltipNumberFormatInfo);
if (aSeries.theGraph.tooltipDisplaySeriesName)
{
textToSet = aSeries.seriesName + ": " + textToSet;
}
return(textToSet);
}
float getSquareCircleOffsetLength(WMG_Node theNode, float angle, bool isFrom)
{
if (theNode.isSquare)
{
int angleOffset = getSquareCircleOffsetAngle(angle, isFrom);
float squareOffsetFromX = theNode.radius - theNode.radius * Mathf.Cos(Mathf.Deg2Rad * angleOffset);
float squareOffsetFromY = squareOffsetFromX * Mathf.Tan(Mathf.Deg2Rad * angleOffset);
return(Mathf.Sqrt(squareOffsetFromX * squareOffsetFromX + squareOffsetFromY * squareOffsetFromY));
}
else
{
return(0);
}
}
void OnWeaponTreeClick(GameObject go)
{
if (!treeAnimating && !weaponClicked)
{
weaponClicked = !weaponClicked;
treeAnimating = true;
Quaternion newRot = weaponTree.transform.localRotation;
newRot.eulerAngles = new Vector3(0, 0, 0);
TweenRotation.Begin(weaponTree, treeClickAnimDuration, newRot);
TweenPosition tpos = TweenPosition.Begin(weaponTree, treeClickAnimDuration, new Vector3(0, 100, -350));
tpos.method = UITweener.Method.EaseIn;
TweenAlpha.Begin(go, treeClickAnimDuration, 70 / 255f);
TweenAlpha.Begin(shieldTree, treeClickAnimDuration, 0);
TweenAlpha.Begin(engineTree, treeClickAnimDuration, 0);
tpos.callWhenFinished = "endWeaponTreeClicked";
tpos.eventReceiver = this.gameObject;
}
if (!treeAnimating && weaponClicked)
{
weaponClicked = !weaponClicked;
treeAnimating = true;
Quaternion newRot = weaponTree.transform.localRotation;
newRot.eulerAngles = new Vector3(345, 0, 0);
TweenRotation.Begin(weaponTree, treeClickAnimDuration, newRot);
TweenPosition tpos = TweenPosition.Begin(weaponTree, treeClickAnimDuration, new Vector3(0, -150, 0));
TweenAlpha.Begin(go, treeClickAnimDuration, 100 / 255f);
TweenAlpha.Begin(shieldTree, treeClickAnimDuration, 1);
TweenAlpha.Begin(engineTree, treeClickAnimDuration, 1);
tpos.callWhenFinished = "endTreeClickAnim";
tpos.eventReceiver = this.gameObject;
foreach (Transform child in weaponTree.transform)
{
WMG_Node aNode = child.GetComponent <WMG_Node>();
if (aNode != null)
{
BoxCollider aCol = child.GetComponent <BoxCollider>();
if (aCol != null)
{
aCol.enabled = false;
}
}
}
}
}
void updateIndicator()
{
if (series1.getPoints().Count == 0)
{
return;
}
WMG_Node lastPoint = series1.getLastPoint().GetComponent <WMG_Node>();
graph.changeSpritePositionToY(indicatorGO, lastPoint.transform.localPosition.y);
Vector2 nodeData = series1.getNodeValue(lastPoint);
//indicatorLabelNumberFormatInfo.CurrencyDecimalDigits = indicatorNumDecimals;
string textToSet = nodeData.y.ToString();
graph.changeLabelText(indicatorGO.transform.GetChild(0).GetChild(0).gameObject, textToSet);
}
private void animateLinkCallback(WMG_Series aSeries, GameObject aGO, bool isLast) {
WMG_Node aNode = aGO.GetComponent<WMG_Node>();
if (aNode.links.Count != 0) {
WMG_Link theLine = aNode.links[aNode.links.Count-1].GetComponent<WMG_Link>();
theLine.Reposition();
}
if (isLast) {
aSeries.updateAreaShading(null);
}
if (aSeries.connectFirstToLast) { // One extra link to animate for circles / close loop series
aNode = aSeries.getPoints()[0].GetComponent<WMG_Node>();
WMG_Link theLine = aNode.links[0].GetComponent<WMG_Link>();
theLine.Reposition();
}
}
private void TooltipLegendNodeMouseEnter(WMG_Series aSeries, WMG_Node aNode, bool state)
{
if (isTooltipObjectNull())
{
return;
}
if (state)
{
MouseEnterCommon(aSeries.seriesName, aNode.gameObject, new Vector3(2, 2, 1));
}
else
{
MouseExitCommon(aNode.gameObject);
}
}
private string defaultTooltipLabeler(WMG_Series aSeries, WMG_Node aNode)
{
// Find out the point value data for this node
Vector2 nodeData = aSeries.getNodeValue(aNode);
float numberToMult = Mathf.Pow(10f, aSeries.theGraph.tooltipNumberDecimals);
string nodeX = (Mathf.Round(nodeData.x*numberToMult)/numberToMult).ToString();
string nodeY = (Mathf.Round(nodeData.y*numberToMult)/numberToMult).ToString();
// Determine the tooltip text to display
string textToSet;
if (aSeries.seriesIsLine) {
textToSet = "(" + nodeX + ", " + nodeY + ")";
}
else {
textToSet = nodeY;
}
if (aSeries.theGraph.tooltipDisplaySeriesName) {
textToSet = aSeries.seriesName + ": " + textToSet;
}
return textToSet;
}
private void TooltipNodeMouseEnter(WMG_Series aSeries, WMG_Node aNode, bool state)
{
if (isTooltipObjectNull()) return;
if (state) {
// Find out what point value data is for this node
Vector2 nodeData = aSeries.getNodeValue(aNode);
float numberToMult = Mathf.Pow(10f, theGraph.tooltipNumberDecimals);
string nodeX = (Mathf.Round(nodeData.x*numberToMult)/numberToMult).ToString();
string nodeY = (Mathf.Round(nodeData.y*numberToMult)/numberToMult).ToString();
// Determine the tooltip to display and set the text
string textToSet;
if (theGraph.graphType != WMG_Axis_Graph.graphTypes.line) {
textToSet = nodeY;
}
else {
textToSet = "(" + nodeX + ", " + nodeY + ")";
}
if (theGraph.tooltipDisplaySeriesName) {
textToSet = aSeries.seriesName + ": " + textToSet;
}
changeLabelText(theGraph.toolTipLabel, textToSet);
// Resize this control to match the size of the contents
changeSpriteWidth(theGraph.toolTipPanel, Mathf.RoundToInt(getSpriteWidth(theGraph.toolTipLabel)) + 24);
// Ensure tooltip is in position before showing it so it doesn't appear to jump
repositionTooltip();
// Display the base panel
showControl(theGraph.toolTipPanel);
bringSpriteToFront(theGraph.toolTipPanel);
Vector3 newVec = new Vector3(2,2,1);
if (theGraph.graphType != WMG_Axis_Graph.graphTypes.line) {
if (theGraph.orientationType == WMG_Axis_Graph.orientationTypes.vertical) {
newVec = new Vector3(1,1.1f,1);
}
else {
newVec = new Vector3(1.1f,1,1);
}
}
performTooltipAnimation(aNode.transform, newVec);
}
else {
hideControl(theGraph.toolTipPanel);
sendSpriteToBack(theGraph.toolTipPanel);
performTooltipAnimation(aNode.transform, new Vector3(1,1,1));
}
}
string customTooltipLabeler(WMG_Series aSeries, WMG_Node aNode) {
Vector2 nodeData = aSeries.getNodeValue(aNode);
tooltipNumberFormatInfo.CurrencyDecimalDigits = aSeries.theGraph.tooltipNumberDecimals;
string textToSet = nodeData.y.ToString("C", tooltipNumberFormatInfo);
if (aSeries.theGraph.tooltipDisplaySeriesName) {
textToSet = aSeries.seriesName + ": " + textToSet;
}
return textToSet;
}
public List<GameObject> GenerateGraphFromNode(WMG_Node fromNode)
{
// Given a starting node, generate a graph of nodes around the starting node
// Returns the list of nodes and links composing the resulting graph
List<GameObject> returnResults = new List<GameObject>();
returnResults.Add(fromNode.gameObject);
// Initialize various variables used in the algorithm
GameObject[] nodes = new GameObject[numNodes];
bool[] nodesProcessed = new bool[numNodes];
GameObject curObj = fromNode.gameObject;
int procNodeNum = 0;
int numNodesProcessed = 0;
int numNodesStarting = theGraph.NodesParent.Count - 1;
nodes[procNodeNum] = curObj;
// Each while loop processes a node by attempting to create neighbors and links to neighbors from the node.
// The loop ends when all nodes have been processed or when the number of nodes specified have been created.
// A node is processed if all of its neighbors were successfully created or if not all neighbors were created, but maxNeighborAttempts was reached.
// maxNeighborAttempts (a failed neighbor creation attempt) can get incremented for the following reasons:
// 1. When a randomly generated angle falls between existing neighbors that is less than minAngle.
// 2. If noLinkIntersection is true, a randomly generated angle and length would create a link that would cross an existing link in this manager's links parent.
// 3. If noNodeIntersection is true, a randomly generated angle and length would create a node that that would circle interesect an existing node in this manager's nodes parent.
// 3 cont. The same as above but noNodeIntersectionRadiusPadding > 0, performs the circle intersections check with the nodes' radii increased by the specified padding.
// 4. If noLinkNodeIntersection is true, a randomly generated node would intersect with an existing link or a randomly generated link would intersect with an existing node.
// 4 cont. The same as above but noLinkNodeIntersectionRadiusPadding > 0, performas the circle - line intersections with the node radius increased by the specified padding.
while (theGraph.NodesParent.Count - numNodesStarting < numNodes) {
WMG_Node procNode = nodes[procNodeNum].GetComponent<WMG_Node>();
int numNeighbors = Random.Range(minRandomNumberNeighbors,maxRandomNumberNeighbors);
if (debugRandomGraph) Debug.Log("Processesing Node: " + procNode.id + " with " + numNeighbors + " neighbors.");
// Attempt to create a neighbor for the specified random number of neighbors
for (int i = 0; i < numNeighbors; i++) {
int curNeighborAttempt = 0;
// For each neighbor, attempt to create the neighbor based on the maxNeighborAttempts
while (curNeighborAttempt < maxNeighborAttempts) {
// For this attempt, randomly generate an angle and length based on the specified parameters
float neighborAngle = Random.Range(minAngleRange,maxAngleRange);
float neighborLength = Random.Range(minRandomLinkLength,maxRandomLinkLength);
bool failedAttempt = false;
if (debugRandomGraph) Debug.Log("Neighbor: " + i + " Attempt: " + curNeighborAttempt + " angle: " + Mathf.Round(neighborAngle));
// Check to see that the randomly generated neighbor would not be too close to an existing neighbor (failure possibility #1)
if (minAngle > 0) {
for (int j = 0; j < procNode.numLinks; j++) {
float angleDif = Mathf.Abs(procNode.linkAngles[j] - neighborAngle);
if (angleDif > 180) angleDif = Mathf.Abs(angleDif - 360);
if (angleDif < minAngle) {
failedAttempt = true;
break;
}
}
}
if (failedAttempt) {
// Failed because random angle was smaller than the minAngle on either side of an existing neighbor
if (debugRandomGraph) Debug.Log("Failed: Angle within minAngle of existing neighbor");
curNeighborAttempt++;
continue;
}
// Check if the randomly generated link intersects an existing link (failure possibility #2)
if (noLinkIntersection) {
float p1y = procNode.transform.localPosition.y + (neighborLength + procNode.radius) * Mathf.Sin(Mathf.Deg2Rad*neighborAngle);
float p1x = procNode.transform.localPosition.x + (neighborLength + procNode.radius) * Mathf.Cos(Mathf.Deg2Rad*neighborAngle);
float p2y = procNode.transform.localPosition.y + procNode.radius * Mathf.Sin(Mathf.Deg2Rad*neighborAngle);
float p2x = procNode.transform.localPosition.x + procNode.radius * Mathf.Cos(Mathf.Deg2Rad*neighborAngle);
foreach (GameObject child in theGraph.LinksParent) {
WMG_Link childLink = child.GetComponent<WMG_Link>();
if (childLink.id == -1) continue; // Dummy editor link
WMG_Node childLinkFrom = childLink.fromNode.GetComponent<WMG_Node>();
WMG_Node childLinkTo = childLink.toNode.GetComponent<WMG_Node>();
float p3y = childLinkFrom.transform.localPosition.y;
float p3x = childLinkFrom.transform.localPosition.x;
float p4y = childLinkTo.transform.localPosition.y;
float p4x = childLinkTo.transform.localPosition.x;
if (PointInterArea(p1x, p1y, p2x, p2y, p3x, p3y) * PointInterArea(p1x, p1y, p2x, p2y, p4x, p4y) < 0 &&
PointInterArea(p3x, p3y, p4x, p4y, p1x, p1y) * PointInterArea(p3x, p3y, p4x, p4y, p2x, p2y) < 0) { // Links intersect
if (debugRandomGraph) Debug.Log("Failed: Link intersected with existing link: " + childLink.id);
failedAttempt = true;
break;
}
}
}
if (failedAttempt) {
// Failed because random link intersected an existing link
curNeighborAttempt++;
continue;
}
// Check if the randomly generated node intersects an existing node (failure possibility #3)
if (noNodeIntersection) {
float p1y = procNode.transform.localPosition.y + (neighborLength) * Mathf.Sin(Mathf.Deg2Rad*neighborAngle);
float p1x = procNode.transform.localPosition.x + (neighborLength) * Mathf.Cos(Mathf.Deg2Rad*neighborAngle);
foreach (GameObject child in theGraph.NodesParent) {
WMG_Node aNode = child.GetComponent<WMG_Node>();
if (aNode.id == -1) continue; // Dummy editor node
// Circles intersect if (R0-R1)^2 <= (x0-x1)^2+(y0-y1)^2 <= (R0+R1)^2
if (Mathf.Pow((p1x - child.transform.localPosition.x),2) + Mathf.Pow((p1y - child.transform.localPosition.y),2) <= Mathf.Pow(2*(procNode.radius + noNodeIntersectionRadiusPadding),2)) {
if (debugRandomGraph) Debug.Log("Failed: Node intersected with existing node: " + aNode.id);
failedAttempt = true;
break;
}
}
}
if (failedAttempt) {
// Failed because random node intersected an existing node
curNeighborAttempt++;
continue;
}
// Check if the randomly generated link intersects an existing node
if (noLinkNodeIntersection) {
float p1y = procNode.transform.localPosition.y + (neighborLength + procNode.radius) * Mathf.Sin(Mathf.Deg2Rad*neighborAngle);
float p1x = procNode.transform.localPosition.x + (neighborLength + procNode.radius) * Mathf.Cos(Mathf.Deg2Rad*neighborAngle);
float p2y = procNode.transform.localPosition.y + procNode.radius * Mathf.Sin(Mathf.Deg2Rad*neighborAngle);
float p2x = procNode.transform.localPosition.x + procNode.radius * Mathf.Cos(Mathf.Deg2Rad*neighborAngle);
foreach (GameObject child in theGraph.NodesParent) {
WMG_Node aNode = child.GetComponent<WMG_Node>();
if (procNode.id == aNode.id) continue; // Ignore the processesing node
if (LineInterCircle(p1x, p1y, p2x, p2y, child.transform.localPosition.x, child.transform.localPosition.y, aNode.radius + noLinkNodeIntersectionRadiusPadding)) {
if (debugRandomGraph) Debug.Log("Failed: Link intersected with existing node: " + aNode.id);
failedAttempt = true;
break;
}
}
}
if (failedAttempt) {
// Failed because random link intersected an existing node
curNeighborAttempt++;
continue;
}
// Check if the randomly generated node intersects an existing link
if (noLinkNodeIntersection) {
float cy = procNode.transform.localPosition.y + (neighborLength + 2 * procNode.radius) * Mathf.Sin(Mathf.Deg2Rad*neighborAngle);
float cx = procNode.transform.localPosition.x + (neighborLength + 2 * procNode.radius) * Mathf.Cos(Mathf.Deg2Rad*neighborAngle);
foreach (GameObject child in theGraph.LinksParent) {
WMG_Link childLink = child.GetComponent<WMG_Link>();
if (childLink.id == -1) continue; // Dummy editor link
WMG_Node childLinkFrom = childLink.fromNode.GetComponent<WMG_Node>();
WMG_Node childLinkTo = childLink.toNode.GetComponent<WMG_Node>();
float p1y = childLinkFrom.transform.localPosition.y;
float p1x = childLinkFrom.transform.localPosition.x;
float p2y = childLinkTo.transform.localPosition.y;
float p2x = childLinkTo.transform.localPosition.x;
if (LineInterCircle(p1x, p1y, p2x, p2y, cx, cy, procNode.radius + noLinkNodeIntersectionRadiusPadding)) {
if (debugRandomGraph) Debug.Log("Failed: Node intersected with existing link: " + childLink.id);
failedAttempt = true;
break;
}
}
}
if (failedAttempt) {
// Failed because random node intersected an existing link
curNeighborAttempt++;
continue;
}
// The attempt did not fail, so create the node and the link and break out of the while attempt < maxAttempts loop
curObj = theGraph.CreateNode(nodePrefab, fromNode.transform.parent.gameObject);
returnResults.Add(curObj);
nodes[theGraph.NodesParent.Count - numNodesStarting - 1] = curObj;
// curObj.transform.parent = fromNode.transform.parent;
float dx = Mathf.Cos(Mathf.Deg2Rad*neighborAngle)*neighborLength;
float dy = Mathf.Sin(Mathf.Deg2Rad*neighborAngle)*neighborLength;
curObj.transform.localPosition = new Vector3(procNode.transform.localPosition.x + dx, procNode.transform.localPosition.y + dy, 0);
returnResults.Add(theGraph.CreateLink(procNode, curObj, linkPrefab, null));
break;
}
if (theGraph.NodesParent.Count - numNodesStarting == numNodes) break; // Max number nodes specified was reached, we are done generating the graph
}
// Set the node as processed and increment the processed node counter
nodesProcessed[procNodeNum] = true;
numNodesProcessed++;
// Process the oldest node added as the next node to process
if (centerPropogate) {
procNodeNum++;
}
// Pick a random node as the next node to process from the nodes that have been created from this algorithm
else {
int numPossibleProcNodes = theGraph.NodesParent.Count - numNodesStarting - numNodesProcessed;
if (numPossibleProcNodes > 0) {
int[] possibleProcNodes = new int[numPossibleProcNodes];
int j = 0;
for (int i = 0; i < numNodes; i++) {
if (!nodesProcessed[i] && i < theGraph.NodesParent.Count - numNodesStarting) {
possibleProcNodes[j] = i;
j++;
}
}
procNodeNum = possibleProcNodes[Random.Range(0,j-1)];
}
}
// This happens (algorithm ends prematurely) when maxNeighborAttempts was reached for the starting node or all the nodes created
if (theGraph.NodesParent.Count - numNodesStarting == numNodesProcessed) { // Case where all nodes have been processed, but number nodes specfied were not created
Debug.Log("WMG - Warning: Only generated " + (theGraph.NodesParent.Count - numNodesStarting - 1) + " nodes with the given parameters.");
break;
}
}
return returnResults;
}
private void TooltipNodeMouseEnter(WMG_Series aSeries, WMG_Node aNode, bool state) {
if (isTooltipObjectNull()) return;
if (state) {
// Set tooltip text
changeLabelText(theGraph.toolTipLabel, tooltipLabeler(aSeries, aNode));
// Resize this control to match the size of the contents
changeSpriteWidth(theGraph.toolTipPanel, Mathf.RoundToInt(getSpriteWidth(theGraph.toolTipLabel)) + 24);
// Ensure tooltip is in position before showing it so it doesn't appear to jump
repositionTooltip();
// Display the base panel
showControl(theGraph.toolTipPanel);
bringSpriteToFront(theGraph.toolTipPanel);
Vector3 newVec = new Vector3(2,2,1);
if (!aSeries.seriesIsLine) {
if (theGraph.orientationType == WMG_Axis_Graph.orientationTypes.vertical) {
newVec = new Vector3(1,1.1f,1);
}
else {
newVec = new Vector3(1.1f,1,1);
}
}
performTooltipAnimation(aNode.transform, newVec);
}
else {
hideControl(theGraph.toolTipPanel);
sendSpriteToBack(theGraph.toolTipPanel);
performTooltipAnimation(aNode.transform, new Vector3(1,1,1));
}
}
void CreateOrDeleteLink(WMG_Node fromNode, WMG_Node toNode, bool noVertHoriz) {
WMG_Link aLink = GetLink(fromNode, toNode);
if (aLink == null) {
if (createLinks && !noVertHoriz) {
gridLinks.Add(CreateLink(fromNode, toNode.gameObject, linkPrefab, this.gameObject));
}
}
else {
if (!createLinks || noVertHoriz) {
gridLinks.Remove(aLink.gameObject);
DeleteLink(aLink);
}
}
}
private float getSquareCircleOffsetLength(WMG_Node theNode, float angle, bool isFrom) {
if (theNode.isSquare) {
int angleOffset = getSquareCircleOffsetAngle(angle, isFrom);
float squareOffsetFromX = theNode.radius - theNode.radius * Mathf.Cos(Mathf.Deg2Rad * angleOffset);
float squareOffsetFromY = squareOffsetFromX * Mathf.Tan(Mathf.Deg2Rad * angleOffset);
return Mathf.Sqrt(squareOffsetFromX * squareOffsetFromX + squareOffsetFromY * squareOffsetFromY);
}
else return 0;
}
void SetNodeAngles(float angle, WMG_Node fromN, WMG_Node toN) {
for (int i = 0; i < fromN.numLinks; i++) {
WMG_Link fromNlink = fromN.links[i].GetComponent<WMG_Link>();
if (fromNlink.id == this.id) {
fromN.linkAngles[i] = angle - 90;
}
}
for (int i = 0; i < toN.numLinks; i++) {
WMG_Link toNlink = toN.links[i].GetComponent<WMG_Link>();
if (toNlink.id == this.id) {
toN.linkAngles[i] = angle + 90;
}
}
}
// Get Vector2 associated with a node in this series
public Vector2 getNodeValue(WMG_Node aNode)
{
for (int i = 0; i < pointValues.Count; i++) {
if (points[i].GetComponent<WMG_Node>() == aNode) return pointValues[i];
}
return Vector2.zero;
}
// Get Vector2 associated with a node in this series
public Vector2 getNodeValue(WMG_Node aNode)
{
for (int i = 0; i < pointValues.Count; i++) { // TODO improve performance by mapping IDs to Vector2
if (points[i].GetComponent<WMG_Node>() == aNode) return pointValues[i];
}
return Vector2.zero;
}