// Reads in all information of a facade
public List <Rectangle> initializeNewFacade(InputFacade facade)
{
allCurrentFacadeRectangles = RegionFinder.findRectangles(facade.facadeLayoutName, facade.inputFacade.width, facade.inputFacade.height);
float maxY = 0; float maxX = 0;
foreach (Color c in allCurrentFacadeRectangles.Keys)
{
foreach (Rectangle r in allCurrentFacadeRectangles[c])
{
maxX = Mathf.Max(maxX, r.toX);
maxY = Mathf.Max(maxY, r.toY);
}
}
buildingNameText.text = facade.gameObject.name;
widthText.text = facade.getBuildingWidth().ToString();
heightText.text = facade.getBuildingHeight().ToString();
Vector3 previewScale = facadePreview.rectTransform.localScale;
facadePreview.rectTransform.localScale = new Vector3(previewScale.y * facade.getBuildingWidth() / facade.getBuildingHeight(), previewScale.y, 1);
layoutPreview.rectTransform.localScale = facadePreview.rectTransform.localScale;
foreach (Color c in allCurrentFacadeRectangles.Keys)
{
Rectangle newRect = new Rectangle();
newRect.symbol = c;
currentFacadeRectangles.Enqueue(newRect);
}
return(null);
}
private void writeRepeatRule(Region r, string axis, InputFacade inputF)
{
string from = getRegionName(r, inputF.gameObject.name);
string repeatRule = from + " -> repeat(" + axis + ")";
// If there already exists a rule
if (hasRules.Contains(from))
{
return;
}
hasRules.Add(from);
List <Region> containedShapes = RegionManager.sortRegions(r.subregions, axis);
// Try to find the repeat sequence to identify the repeating pattern in the repeat
List <Region> repeatSequence = new List <Region>();
for (int i = 0; i < containedShapes.Count; i++)
{
repeatSequence.Add(containedShapes[i]);
int repeatLength = repeatSequence.Count;
// If the length of our sequence is not a divisor of the repeating region it cannot be what we are looking for
if (containedShapes.Count % repeatLength != 0)
{
continue;
}
bool matches = true;
// Iterate over the contained shapes and see if our pattern repeats
for (int k = 0; k < containedShapes.Count / repeatLength; k++)
{
for (int j = 0; j < repeatLength; j++)
{
Region other = containedShapes[repeatLength * k + j];
if (!containedShapes[j].equalTerminals(other))
{
matches = false;
break;
}
}
if (!matches)
{
break;
}
}
// If we have found a matching pattern
if (matches)
{
break;
}
}
repeatRule += createShapeSplitString(repeatSequence, axis, inputF);
writeToRuleFile(repeatRule);
}
public void beginGeneration(Dictionary <Color, List <Rectangle> > rectangles, InputFacade inputF, StreamWriter sw)
{
fileDS = sw;
if (!inputF.formattedCorrectly())
{
Debug.LogError("Skipping " + inputF.gameObject.name);
}
else
{
// buildingName = inputF.gameObject.name;
// currentFacade = inputF;
// inputFacade = inputF.inputFacade;
// facadeHeight = inputFacade.height;
// facadeWidth = inputFacade.width;
generateRules(rectangles, inputF);
}
}
// Clears all information of the current facade and initializes variables for the next
// Returns true if there was a next facade, false if not
private bool nextFacade()
{
nextFacadeIndex++;
if (nextFacadeIndex <= facades.Length)
{
// Clear all information
informationRects = new List <Rectangle>();
currentFacadeRectangles = new Queue <Rectangle>();
currentRectangle = null;
// Initialize the new facade
InputFacade iF = facades[nextFacadeIndex - 1].GetComponent <InputFacade>();
initializeNewFacade(iF);
Texture2D layoutTex = readFacadeImage(Application.dataPath + iF.facadeLayoutName);
facadePreview.sprite = Sprite.Create(iF.inputFacade, new Rect(0, 0, iF.inputFacade.width, iF.inputFacade.height), facadePreview.sprite.pivot);
layoutPreview.sprite = Sprite.Create(layoutTex, new Rect(0, 0, layoutTex.width, layoutTex.height), facadePreview.sprite.pivot);
// Go to the next facade index
return(true);
}
return(false);
}
private void writeDebugPicture(List <Rectangle> rectangles, InputFacade inputF)
{
Texture2D debugTex = new Texture2D(inputF.inputFacade.width, inputF.inputFacade.height);
foreach (Rectangle rectangle in rectangles)
{
int width = rectangle.toX - rectangle.fromX;
int height = rectangle.toY - rectangle.fromY;
for (int x = 1; x < width; x++)
{
for (int y = 1; y < height; y++)
{
debugTex.SetPixel(rectangle.fromX + x, rectangle.fromY + y, rectangle.symbol);
}
}
}
File.WriteAllBytes(Application.dataPath + "/DebugPicture.png", debugTex.EncodeToPNG());
}
private void SaveGameBtn_Click(object sender, EventArgs e)
{
var fileDialog = new SaveFileDialog();
if (fileDialog.ShowDialog() == DialogResult.OK)
{
StreamWriter stream = null;
try
{
stream = new StreamWriter(fileDialog.FileName);
InputFacade.SaveGame(stream);
}
catch (SecurityException)
{
AddToTrackingLog(ProgramLocalization.GameSavingFailed);
}
finally
{
stream?.Close();
}
}
}
private void generateRules(Dictionary <Color, List <Rectangle> > rectangles, InputFacade inputF)
{
List <Region> repeatedRegions = null;
List <Rectangle> terminalRegions = new List <Rectangle>();
foreach (Color c in rectangles.Keys)
{
int count = 0;
foreach (Rectangle ret in rectangles[c])
{
terminalRegions.Add(ret);
count++;
}
}
writeDebugPicture(terminalRegions, inputF);
string buildingName = inputF.gameObject.name;
splitFacade(repeatedRegions, terminalRegions, inputF);
setTerminalNames(rectangles, buildingName);
checkTerminalProtrusion(rectangles, buildingName);
MaterialExtractor.extractMaterials(rectangles, inputF.inputFacade);
}
// Creates and returns the string that defines the size and shapes of that the rule splits into
public string createShapeSplitString(List <Region> shapes, string axis, InputFacade inputF)
{
string splitString = " {";
// Get width/height in pixels of the input facade depending on which axis we are working on
int facadeLength = (axis == "X") ? inputF.inputFacade.width : inputF.inputFacade.height;
// Get self defined height and length of building
float buildingSize = (axis == "X") ? inputF.getBuildingWidth() : inputF.getBuildingHeight();
for (int i = 0; i < shapes.Count; i++)
{
Region subarea = shapes[i];
float size = (axis == "X") ? (subarea.toX - subarea.fromX) * 1f / facadeLength : (subarea.toY - subarea.fromY) * 1f / facadeLength;
string shapeName = getRegionName(subarea, inputF.gameObject.name);
string relative = (relativeRegions.Contains(shapeName)) ? "N" : "";
splitString += size * buildingSize + relative + ": " + shapeName;
if (i < shapes.Count - 1)
{
splitString += " | ";
}
}
splitString += "}";
return(splitString);
}
private void splitFacade(List <Region> repeatedRegions, List <Rectangle> terminalRegions, InputFacade inputF)
{
string buildingName = inputF.gameObject.name;
string startShape = buildingName + "Start";
// Create the initial decomposition rule to create 4 walls from a cube
writeInitialRules(buildingName);
Queue <Region> regionsToSplit = new Queue <Region>();
Region start = new Region(terminalRegions);
regionNames.Add(start, startShape);
regionsToSplit.Enqueue(start);
while (regionsToSplit.Count > 0)
{
Region toSplit = regionsToSplit.Dequeue();
// If the current region is a terminal region then we should not split further
if (toSplit.terminals.Count == 1 || hasRules.Contains(getRegionName(toSplit, buildingName)))
{
continue;
}
// Gets the list of areas that the region can be split into on x and y axes respectively
List <Region> xSplits = RegionFinder.createSplitHorizontal(toSplit);
List <Region> ySplits = RegionFinder.createSplitVertical(toSplit);
List <Region> toEnqueue = new List <Region>();
// Choose the one with most contained elements
if (xSplits == null && ySplits == null)
{
// No splits were able to be performed
Debug.Assert(toSplit.terminals.Count == 1, "Unable to split non-terminal region. Terminating rule generation.");
toSplit.debugPrintRegion();
return;
}
else if (xSplits != null && (ySplits == null || xSplits.Count >= ySplits.Count))
{
// If the X-split is preferred
createSplitRule(xSplits, repeatedRegions, "X", getRegionName(toSplit, buildingName), inputF);
toEnqueue = xSplits;
}
else
{
// If the Y-split is preferred
toEnqueue = createSplitRule(ySplits, repeatedRegions, "Y", getRegionName(toSplit, buildingName), inputF);
toEnqueue = ySplits;
}
foreach (Region newRegion in toEnqueue)
{
regionsToSplit.Enqueue(newRegion);
}
fileDS.Flush();
}
}
// Deducts and write a split rule given a split on an axis
private List <Region> createSplitRule(List <Region> splits, List <Region> repeats, string axis, string regionName, InputFacade inputF)
{
List <Region> splitRepeats = new List <Region>();
List <Region> nonRepeats = new List <Region>();
// If this area already has a rule defined
if (hasRules.Contains(regionName))
{
return(splits);
}
repeats = RegionFinder.findRealRepeats(splits, axis);
// Bad datastructure and complexity, should use other
foreach (Region current in splits)
{
// Find the largest repeat-region that contains our current split region
Region containedIn = null;
if (repeats != null)
{
foreach (Region other in repeats)
{
// If the repeated region contains the split region and is greater than our current one
if (other.containsRegion(current) && (containedIn == null || (other.terminals.Count > containedIn.terminals.Count)))
{
containedIn = other;
other.subregions.Add(current);
}
}
}
if (containedIn == null)
{
nonRepeats.Add(current);
}
else if (!splitRepeats.Contains(containedIn))
{
// If there was a repeated area that contains our split region and it was not already added
splitRepeats.Add(containedIn);
}
}
splits = new List <Region>(splitRepeats);
splits.AddRange(nonRepeats);
splits = RegionManager.sortRegions(splits, axis);
foreach (Region region in splits)
{
setRegionName(region, inputF.gameObject.name);
}
foreach (Region repeatR in splitRepeats)
{
relativeRegions.Add(getRegionName(repeatR, inputF.gameObject.name));
}
// Add case for just repeat later
if (splits.Count > splitRepeats.Count)
{
string rule = regionName + " -> split(" + axis + ")";
rule += createShapeSplitString(splits, axis, inputF);
writeToRuleFile(rule);
hasRules.Add(regionName);
}
// Now we need to write the repeat rules, which regions are contained in the large repeat areas
foreach (Region r in splitRepeats)
{
writeRepeatRule(r, axis, inputF);
}
return(splits);
}
private void ResultProcessingTimer_Tick(object sender, EventArgs e)
{
UpdateClock();
InputFacade.ProcessQueueTick();
}
private void MovementBtn4_Click(object sender, EventArgs e)
{
InputFacade.SendChessboardMovement(ChessboardMovement.Vector2Minus);
}
private void EndGameBtn_Click(object sender, EventArgs e)
{
InputFacade.EndGame();
}
private void StopTrackingBtn_Click(object sender, EventArgs e)
{
InputFacade.StopTracking();
}
private void RecalibrateBtn_Click(object sender, EventArgs e)
{
InputFacade.Recalibrate();
}
