public IEnumerator RecreateTextures(string processedPath, string bgInfoPath, string alphaChannelPath,
string resultsPath, DumpFormat dumpFormat, System.Action <ProgressInfo> progressCb, System.Action doneCb)
{
reportSb.Clear();
reportSb.AppendLine("== Texture recreation report ==");
reportSb.AppendLine("== Textures recreation Started! ==");
reportSb.AppendLine("Selected Format: " + dumpFormat.name);
progressCb(new ProgressInfo("Loading Bg Infos", 0, 0, 0f));
yield return(new WaitForEndOfFrame());
yield return(new WaitForEndOfFrame());
taskTime = Time.unscaledTime;
processedPath = Path.Combine(processedPath, game.ToString());
alphaChannelPath = Path.Combine(alphaChannelPath, game.ToString());
bgInfoPath = Path.Combine(bgInfoPath, game.ToString());
resultsPath = Path.Combine(resultsPath, dumpFormat.name);
fm.CreateDirectory(resultsPath);
var bgInfosCount = fm.LoadFiles(bgInfoPath, "json");
if (bgInfosCount <= 0)
{
reportSb.AppendLine("== Texture recreation aborted - No Bg Info ==");
doneCb();
yield break;
}
var bgInfos = fm.GetObjectsFromFiles <BgInfo>();
var processedTexCount = fm.LoadFiles(processedPath, "png", SearchOption.AllDirectories);
if (processedTexCount <= 0)
{
reportSb.AppendLine("== Texture recreation aborted - No Processed Texture ==");
doneCb();
yield break;
}
progressCb(new ProgressInfo(string.Concat("Recreating Textures - ", bgInfos[0].namePrefix), 1, bgInfosCount,
0 / (float)(bgInfosCount - 1)));
yield return(new WaitForEndOfFrame());
yield return(new WaitForEndOfFrame());
for (var i = 0; i < bgInfosCount; i++)
{
var bgInfo = bgInfos[i];
//Get the right processed background
var expectedBgName = string.Concat(bgInfo.namePrefix, ".png");
var bgTexFileInfo = fm.fileInfos.FirstOrDefault(x => x.Name == expectedBgName);
if (bgTexFileInfo == null)
{
reportSb.AppendLine(string.Concat("Missing upscaled BG texture: ", bgInfo.namePrefix));
continue;
}
progressCb(new ProgressInfo(string.Concat("Recreating Textures - ", bgInfo.namePrefix), i + 1,
bgInfosCount, i / (float)(bgInfosCount - 1)));
yield return(new WaitForEndOfFrame());
Texture2D processedTexAms = null;
var processedTex = fm.GetTextureFromFileInfo(bgTexFileInfo);
//float texRatioFloat = processedTex.width / (float)bgInfo.bgTexSize.x;
var bgRatioFloat = processedTex.width / (float)bgInfo.bgTexSize.x;
var maskRatioFloat = processedTex.width / (float)baseDumpFormat.maskUsageSize.x;
if (bgRatioFloat - Mathf.Floor(bgRatioFloat) != 0f ||
maskRatioFloat - Mathf.Floor(maskRatioFloat) != 0f)
{
reportSb.AppendLine(string.Concat(
"Error: This tool is not compatible with non integer scaling. Please fix this processed texture:",
processedTex.name));
Object.Destroy(processedTex);
continue;
}
var bgRatio = Mathf.RoundToInt(bgRatioFloat);
var maskRatio = Mathf.RoundToInt(maskRatioFloat);
CompensatePixelShift(dumpFormat.texPixelShift, processedTex, maskRatio);
//Dynamic bg size only works for full background with no parts then... it's not good.
//I really hope Resident evil 3 or something doesn't have backgrounds texture with different size AND splitted in some bullshit way.
//If so I will need to analyze the background files during the matching phase and save all that data in the BG info instead.
BgTexturePart[] bgParts;
if (dumpFormat.bgParts == null || dumpFormat.bgParts.Length == 0)
{
var fullBgPart = new BgTexturePart();
fullBgPart.size = new Vector2Int(bgInfo.bgTexSize.x, bgInfo.bgTexSize.y);
fullBgPart.patches = new[] { new Patch(0, 0, 0, 0, bgInfo.bgTexSize.x, bgInfo.bgTexSize.y) };
bgParts = new[] { fullBgPart };
}
else
{
bgParts = dumpFormat.bgParts;
}
DumpMatch dumpMatch;
if (bgInfo.texDumpMatches.Count(x => x.formatName == dumpFormat.name) <= 0)
{
dumpMatch = bgInfo.texDumpMatches.FirstOrDefault(
x => x.formatName == dumpFormat.alternateFormatName);
}
else
{
dumpMatch = bgInfo.texDumpMatches.FirstOrDefault(x => x.formatName == dumpFormat.name);
}
if (string.IsNullOrEmpty(dumpMatch.formatName))
{
Object.Destroy(processedTex);
continue;
}
var matchGroupTexCount = bgParts.Length + (bgInfo.hasMask ? 1 : 0);
//int matchGroupCount = dumpMatch.texNames.Length / matchGroupTexCount;
//progressCb(new ProgressInfo(string.Concat(bgInfo.namePrefix, " - Recreating BG textures"), i + 1, bgInfosCount, i / (float)(bgInfosCount - 1)));
//yield return new WaitForEndOfFrame();
//Generate the Bg textures
for (var j = 0; j < bgParts.Length; j++)
{
var bgPartTex = new Texture2D(
Mathf.RoundToInt(bgParts[j].size.x * bgRatio),
Mathf.RoundToInt(bgParts[j].size.y * bgRatio),
TextureFormat.RGBA32, false);
bgPartTex.Fill(new Color32(0, 0, 0, 255));
for (var k = 0; k < bgParts[j].patches.Length; k++)
{
var p = bgParts[j].patches[k];
p.Scale(bgRatio);
var pColors = processedTex.GetPixels(
p.dstPos.x, p.dstPos.y,
p.size.x, p.size.y);
if (bgParts[j].needGapCompensation && k == 1)
{
bgPartTex.SetPixels(
p.srcPos.x, p.srcPos.y + 1,
p.size.x, p.size.y, pColors);
}
else
{
bgPartTex.SetPixels(
p.srcPos.x, p.srcPos.y,
p.size.x, p.size.y, pColors);
}
}
for (var k = 0; k < dumpMatch.partIndices.Length; k++)
{
if (dumpMatch.partIndices[k] != j)
{
continue;
}
switch (dumpFormat.BgFormat)
{
case ImageFormat.Png:
fm.SaveTextureToPng(bgPartTex, resultsPath, dumpMatch.texNames[k]);
break;
case ImageFormat.Jpg:
fm.SaveTextureToJPG(bgPartTex, resultsPath, dumpMatch.texNames[k],
dumpFormat.jpgQuality);
break;
case ImageFormat.DdsBc7:
fm.SaveTextureToDds(bgPartTex, resultsPath, dumpMatch.texNames[k]);
break;
case ImageFormat.DdsBc3:
fm.SaveTextureToDds(bgPartTex, resultsPath, dumpMatch.texNames[k]);
break;
}
}
Object.Destroy(bgPartTex);
}
//2. Generate the mask texture
if (bgInfo.hasMask)
{
//progressCb(new ProgressInfo(string.Concat(bgInfo.namePrefix, " - Recreating mask"), i+1, bgInfosCount, i / (float)(bgInfosCount-1)));
//yield return new WaitForEndOfFrame();
//One per group of masks
var alphaChannels = new Texture2D[bgInfo.groupsCount];
var hasMissingAlphaChannels = false;
for (var g = 0; g < bgInfo.groupsCount; g++)
{
alphaChannels[g] = fm.GetTextureFromPath(Path.Combine(alphaChannelPath,
string.Concat(bgInfo.namePrefix, "_", g)));
if (alphaChannels[g] != null)
{
continue;
}
reportSb.AppendLine(string.Concat(bgInfo.namePrefix,
" is missing the alpha channel texture ", g, "."));
hasMissingAlphaChannels = true;
}
if (hasMissingAlphaChannels)
{
Object.Destroy(processedTex);
reportSb.AppendLine(string.Concat("Missing alpha channel textures: ", bgInfo.namePrefix));
continue;
}
if (bgInfo.useProcessedMaskTex)
{
//Object.Destroy(processedTex);
processedTexAms = fm.GetTextureFromPath(Path.Combine(processedPath,
string.Concat(bgInfo.namePrefix, altMaskSourceSuffix)));
if (processedTexAms == null)
{
processedTexAms = fm.GetTextureFromPath(Path.Combine(processedPath, "AMS",
string.Concat(bgInfo.namePrefix, altMaskSourceSuffix)));
if (processedTexAms == null)
{
reportSb.AppendLine(string.Concat("Missing special mask source textures: ",
bgInfo.namePrefix));
continue;
}
}
CompensatePixelShift(dumpFormat.texPixelShift, processedTexAms, maskRatio);
}
//Reconstruct the mask texture itself based on processed BG and the smoothed alpha texture
var texWidth = Mathf.RoundToInt((dumpFormat.maskForcedSize.x != 0
? dumpFormat.maskForcedSize.x
: bgInfo.maskTexSize.x) * maskRatio);
var texHeight = Mathf.RoundToInt((dumpFormat.maskForcedSize.x != 0
? dumpFormat.maskForcedSize.y
: bgInfo.maskTexSize.y) * maskRatio);
var maskTex = new Texture2D(texWidth, texHeight, TextureFormat.RGBA32, false);
maskTex.Fill(new Color32());
Texture2D alternateMaskTex = null;
if (dumpFormat.isMonochromaticMask && bgInfo.useProcessedMaskTex)
{
alternateMaskTex = new Texture2D(texWidth, texHeight, TextureFormat.RGBA32, false);
alternateMaskTex.Fill(new Color32());
}
for (var j = 0; j < bgInfo.masks.Length; j++)
{
var mask = bgInfo.masks[j];
mask.patch.Scale(maskRatio);
Color[] pColors;
var isAltMaskPatch = false;
if (bgInfo.useProcessedMaskTex == false || mask.ignoreAltMaskSource)
{
if (dumpFormat.isMonochromaticMask)
{
pColors = new Color[mask.patch.size.x * mask.patch.size.y];
for (var k = 0; k < pColors.Length; k++)
{
pColors[k] = Color.white;
}
}
else
{
pColors = processedTex.GetPixels(mask.patch.dstPos.x, mask.patch.dstPos.y,
mask.patch.size.x, mask.patch.size.y);
}
}
else
{
if (!dumpFormat.isMonochromaticMask)
{
pColors = processedTexAms.GetPixels(mask.patch.dstPos.x, mask.patch.dstPos.y,
mask.patch.size.x, mask.patch.size.y);
}
else
{
var amsHistogram = new Histogram(3, 16, 1f);
var origHistogram = new Histogram(3, 16, 1f);
pColors = processedTex.GetPixels(mask.patch.dstPos.x, mask.patch.dstPos.y,
mask.patch.size.x, mask.patch.size.y);
origHistogram.AddValues(pColors);
pColors = processedTexAms.GetPixels(mask.patch.dstPos.x, mask.patch.dstPos.y,
mask.patch.size.x, mask.patch.size.y);
amsHistogram.AddValues(pColors);
var histogramMatchValue = amsHistogram.Compare(origHistogram);
isAltMaskPatch = histogramMatchValue <
dumpFormat.monoMaskAmsHistogramMinMatchValue - Mathf.Epsilon;
Debug.Log($"{bgInfo.namePrefix}_mask_{j}_{histogramMatchValue:0.00000}");
if (!isAltMaskPatch)
{
for (var k = 0; k < pColors.Length; k++)
{
pColors[k] = Color.white;
}
}
else
{
var amsTestTex = new Texture2D(mask.patch.size.x, mask.patch.size.y,
TextureFormat.RGBA32, false);
amsTestTex.SetPixels(pColors);
fm.SaveTextureToPng(amsTestTex, resultsPath,
$"{bgInfo.namePrefix}_mask_{j}_{histogramMatchValue}");
}
}
}
var aColors = alphaChannels[mask.groupIndex].GetPixels(mask.patch.dstPos.x, mask.patch.dstPos.y,
mask.patch.size.x, mask.patch.size.y);
for (var k = 0; k < pColors.Length; k++)
{
pColors[k].a = aColors[k].a;
}
var srcPosY = mask.patch.srcPos.y + (maskTex.height - bgInfo.maskTexSize.y * maskRatio);
if (isAltMaskPatch)
{
alternateMaskTex.SetPixels(mask.patch.srcPos.x, srcPosY, mask.patch.size.x,
mask.patch.size.y,
pColors);
}
else
{
maskTex.SetPixels(mask.patch.srcPos.x, srcPosY, mask.patch.size.x, mask.patch.size.y,
pColors);
}
}
for (var j = 0; j < dumpMatch.partIndices.Length; j++)
{
if (dumpMatch.partIndices[j] == matchGroupTexCount - 1)
{
if (alternateMaskTex != null)
{
if (dumpFormat.MaskFormat == ImageFormat.Png)
{
fm.SaveTextureToPng(alternateMaskTex, resultsPath, $"{dumpMatch.texNames[j]}_alt");
}
else
{
fm.SaveTextureToDds(alternateMaskTex, resultsPath, $"{dumpMatch.texNames[j]}_alt");
}
}
if (dumpFormat.MaskFormat == ImageFormat.Png)
{
fm.SaveTextureToPng(maskTex, resultsPath, dumpMatch.texNames[j]);
}
else
{
fm.SaveTextureToDds(maskTex, resultsPath, dumpMatch.texNames[j]);
}
}
}
//Clean up the mess :)
//(and yes don't reuse the texture object, since other games might need dynamic texture size
//AND texture.resize IS a hidden constructor too)
Object.Destroy(maskTex);
for (var g = 0; g < bgInfo.groupsCount; g++)
{
Object.Destroy(alphaChannels[g]);
}
}
Object.Destroy(processedTex);
Object.Destroy(processedTexAms);
}
yield return(new WaitForEndOfFrame());
reportSb.AppendLine(string.Format("== Textures recreation Done! ({0} seconds) ==",
(Time.unscaledTime - taskTime).ToString("#.0")));
fm.OpenFolder(resultsPath);
doneCb();
}
public IEnumerator MatchTextures(string bgInfoPath, string dumpTexPath, DumpFormat dumpFormat,
TextureMatchingConfig config, System.Action <ProgressInfo> progressCb, System.Action doneCb)
{
if (dumpFormat.Equals(baseDumpFormat))
{
Debug.LogWarning(string.Format(
"The current base texture format ({0}) is the same as the selected texture format for matching ({1}). This is useless.",
baseDumpFormat.name, dumpFormat.name));
doneCb();
yield break;
}
reportSb.Clear();
reportSb.AppendLine("== Texture Matching report ==");
reportSb.AppendLine("== Texture Matching Started! ==");
reportSb.AppendLine("Selected Format: " + dumpFormat.name);
taskTime = Time.unscaledTime;
progressCb(new ProgressInfo("Loading textures and BgInfos", 0, 0, 0f));
yield return(new WaitForEndOfFrame());
yield return(new WaitForEndOfFrame());
//Load all the bg infos for later
bgInfoPath = Path.Combine(bgInfoPath, game.ToString());
var bgInfoCount = fm.LoadFiles(bgInfoPath, "json");
var bgInfos = fm.GetObjectsFromFiles <BgInfo>();
//Load all the file info of the textures to match
var mcTexCount = fm.LoadFiles(Path.Combine(dumpTexPath, dumpFormat.name), "png",
SearchOption.AllDirectories);
var candidatesList = new List <MatchCandidate>();
var texDuplicatesCount = 0;
var unmatchedTexCount = 0;
var unmatchedMcCount = 0;
//1. Prepare the MatchCandidates
for (var i = 0; i < mcTexCount; i++)
{
if (i % 50 == 0)
{
progressCb(
new ProgressInfo("Preparing candidates", i + 1, mcTexCount, i / (float)(mcTexCount - 1)));
yield return(new WaitForEndOfFrame());
}
var mcTex = fm.GetTextureFromFileIndex(i);
var mc = new MatchCandidate();
mc.md5 = fm.GetMd5(mcTex.GetRawTextureData());
mc.fileInfoIndices = new int[] { i };
mc.texSize.x = mcTex.width;
mc.texSize.y = mcTex.height;
mc.bgInfoMatchIndex = new List <int>();
mc.bgInfoMatchValue = new List <float>();
//Check for duplicates
var isDuplicate = false;
for (var j = 0; j < candidatesList.Count; j++)
{
if (candidatesList[j].md5 == mc.md5)
{
reportSb.AppendLine(string.Concat(mcTex.name, " is a duplicate of ",
fm.fileInfos[candidatesList[j].fileInfoIndices[0]].Name));
texDuplicatesCount++;
//int[] indices = new int[candidatesList[j].fileInfoIndices.Length + 1];
//for (int k = 0; k < candidatesList[j].fileInfoIndices.Length; k++)
//{
// indices[k] = candidatesList[j].fileInfoIndices[k];
//}
//indices[indices.Length - 1] = j;
var indices = candidatesList[j].fileInfoIndices.Concat(new int[] { i }).ToArray();
var duplicatedMc = candidatesList[j];
duplicatedMc.SetFileInfoIndices(indices);
candidatesList[j] = duplicatedMc;
isDuplicate = true;
//It can't have another duplicate, impossible since I checked for every new element.
break;
}
}
if (isDuplicate)
{
continue;
}
//Identify the candidate
IdentifyCandidate(dumpFormat, ref mc, mcTex);
//RE3 WARNING - That doesn't WORK AT ALL ON RE3 GAMECUBE
//Create a special patch for mask texture, thus It will only pick colors into the non fully transparent area.
var partPatch = new Patch();
if (mc.isMask)
{
//For some dumping format like Peixoto Before, starting the matching process,
// transparency needs to be added by replacing pure black pixels with transparent ones.
if (dumpFormat.useBlackAsTransparent)
{
var colors = mcTex.GetPixels32();
for (int j = 0; j < colors.Length; j++)
{
var c = colors[j];
if (c.r + c.g + c.b <= byte.MinValue)
{
c.a = byte.MinValue;
colors[j] = c;
}
}
mcTex.SetPixels32(colors);
mcTex.Apply();
// Save the texture with proper transparent pixels.
// var fi = fm.fileInfos[i];
// Debug.Log(fi.FullName);
// var testName = $"{Path.GetFileNameWithoutExtension(fi.Name)}";
// fm.SaveTextureToPng(mcTex, fi.DirectoryName, testName);
}
if (config.inconsistentMaskSize)
{
partPatch = new Patch(0, mcTex.height - 23, 0, mcTex.height - 23, 128, 23);
}
else
{
var line = mcTex.GetPixels(12, 0, 1, mcTex.height);
var foundFlag = false;
for (var k = 0; k < line.Length; k++)
{
if (line[k].a > 0.9f)
{
partPatch.srcPos.y = k;
partPatch.dstPos.y = k;
partPatch.size.y = mcTex.height - k;
foundFlag = true;
break;
}
}
if (foundFlag == false || partPatch.size.y < config.histogramPatchSize.y)
{
unmatchedMcCount++;
unmatchedTexCount += mc.fileInfoIndices.Length;
reportSb.AppendLine(string.Concat(mcTex.name,
" seems fully transparent mask. Match it manually."));
continue;
}
line = mcTex.GetPixels(0, mcTex.height - 4, mcTex.width, 1);
foundFlag = false;
for (var k = mcTex.width - 1; k >= 0; k--)
{
if (line[k].a > 0.9f)
{
partPatch.size.x = k + 1;
foundFlag = true;
break;
}
}
if (foundFlag == false || partPatch.size.x < config.histogramPatchSize.x)
{
unmatchedMcCount++;
unmatchedTexCount += mc.fileInfoIndices.Length;
reportSb.AppendLine(string.Concat(mcTex.name,
" seems fully transparent mask. Match it manually."));
continue;
}
}
}
//Generate the histogram data
var histGenAttemptsCount = 0;
var isMonochromatic = false;
mc.histograms = new Histogram[config.histogramPatchCount];
mc.HistPatches = new Patch[config.histogramPatchCount];
//mc.histBgPartPatchIndices = new int[config.histogramPatchCount];
for (var j = 0; j < config.histogramPatchCount; j++)
{
if (mc.isMask == false)
{
if (mc.bgPartIndex != -1)
{
var bgPartPatchIndex = Random.Range(0, dumpFormat.bgParts[mc.bgPartIndex].patches.Length);
partPatch = dumpFormat.bgParts[mc.bgPartIndex].patches[bgPartPatchIndex];
}
else
{
partPatch = new Patch(0, 0, 0, 0, mc.texSize.x, mc.texSize.y);
}
}
var p = partPatch;
p.size = config.histogramPatchSize;
var patchPos = partPatch.size - config.histogramPatchSize;
patchPos.x = Random.Range(0, patchPos.x);
patchPos.y = Random.Range(0, patchPos.y);
p.Move(patchPos);
var histogram = new Histogram(mc.isMask ? 4 : 3, config.histogramStepCount, 1f);
var patchColors = mcTex.GetPixels(p.srcPos.x, p.srcPos.y, p.size.x, p.size.y);
histogram.AddValues(patchColors, mc.isMask);
//Compare the new histogram with the previous one, if there are the same the texture might be monochromatic...
if (j > 0)
{
if (histogram.Compare(mc.histograms[mc.histograms.Length - 1]) >= 0.999f)
{
histGenAttemptsCount++;
if (histGenAttemptsCount > config.histGenAttemptsMaxCount)
{
isMonochromatic = true;
break;
}
j--;
continue;
}
}
if (config.savePatchTexures)
{
var test = new Texture2D(p.size.x, p.size.y);
test.SetPixels(patchColors);
fm.SaveTextureToPng(test, "./test", mcTex.name + "_" + j);
Object.Destroy(test);
}
mc.tempHistogram = new Histogram(mc.isMask ? 4 : 3, config.histogramStepCount, 1f);
mc.histograms[j] = histogram;
mc.HistPatches[j] = p;
}
if (isMonochromatic)
{
unmatchedMcCount++;
unmatchedTexCount += mc.fileInfoIndices.Length;
reportSb.AppendLine(string.Concat(mcTex.name,
" is too consistent visually to be analyzed properly. Match it manually."));
}
else
{
if (mc.bgPartIndex == -1)
{
mc.bgPartIndex = 0;
}
//Finally add the candidate to the list
candidatesList.Add(mc);
}
Object.Destroy(mcTex);
}
progressCb(new ProgressInfo("Preparing candidates", mcTexCount, mcTexCount, 1f));
yield return(new WaitForEndOfFrame());
//2. The match candidates are now all generated, we can go through all the BgInfo and for each BgInfo, going through all the MCs to find the best match.
//For sure this way increase risk of false positives but it is also much faster than loading entire textures exponentially...
var candidates = candidatesList.ToArray();
var baseDumpPath = Path.Combine(dumpTexPath, baseDumpFormat.name);
//int mcMatchesCount = 0;
var texMatchesCount = 0;
for (var i = 0; i < bgInfoCount; i++)
{
//if (i % 10 == 0)
//{
progressCb(new ProgressInfo("Looking for matches", i + 1, bgInfoCount, i / (float)(bgInfoCount - 1)));
yield return(new WaitForEndOfFrame());
//}
if (config.resetDumpMatches)
{
bgInfos[i].ResetDumpMatches(dumpFormat.name);
}
//Every candidate is matched, stop searching.
//TODO - Track the best BgInfo into the MCandidate. This could be perfect. But requires to get rid of that and the isMatched flag stored into the MC.
//if (mcMatchesCount >= candidates.Length)
// break;
var bgTex = fm.GetTextureFromPath(Path.Combine(baseDumpPath, bgInfos[i].texDumpMatches[0].texNames[0]));
var maskTex = bgInfos[i].hasMask
? fm.GetTextureFromPath(Path.Combine(baseDumpPath, bgInfos[i].texDumpMatches[0].texNames[1]))
: null;
//TODO - max possible match for one bg info and one bg part, List suck ass and realistically I never saw 3 textures exactly the same (and there is no duplicate on GC)
var bestMatchValues =
new List <float> [dumpFormat.bgParts.Length == 0 ? 2: dumpFormat.bgParts.Length + 1];
var bestMatchCandidateIndices =
new List <int> [dumpFormat.bgParts.Length == 0 ? 2: dumpFormat.bgParts.Length + 1];
for (var j = 0; j < bestMatchValues.Length; j++)
{
bestMatchValues[j] = new List <float>();
bestMatchCandidateIndices[j] = new List <int>();
}
for (var j = 0; j < candidates.Length; j++)
{
//if (candidates[j].isMatched)
// continue;
var mc = candidates[j];
//Quick Pruning for mask, compare the size. Masks tend to have different size.
if (mc.isMask)
{
if (maskTex == null)
{
continue;
}
//In RE3, the masks have a fixed resolution on GC and a variable on PC (cropped)
if (config.inconsistentMaskSize)
{
if (maskTex.width < 128 || maskTex.height < 23)
{
continue;
}
}
else
{
if (maskTex.width != mc.texSize.x || maskTex.height != mc.texSize.y)
{
continue;
}
}
}
else
{
//This BG texture size comparison was certainly added for re3 but why?
//It's actually horrible for RE2 and 1. Thus I added a BG parts length check.
if (dumpFormat.bgParts.Length <= 1 && (bgTex.width != mc.texSize.x || bgTex.height != mc.texSize.y))
{
continue;
}
}
var mcMatchValue = 0f;
var isImpossibleMatch = false;
for (var k = 0; k < mc.HistPatches.Length; k++)
{
var p = mc.HistPatches[k];
mc.tempHistogram.Reset();
Color[] pixels;
if (mc.isMask)
{
if (config.inconsistentMaskSize)
{
var dstPosY = maskTex.height - 23 + (p.dstPos.y - (256 - 23));
pixels = maskTex.GetPixels(p.dstPos.x, dstPosY, p.size.x, p.size.y);
mc.tempHistogram.AddValues(pixels, true);
}
else
{
pixels = maskTex.GetPixels(p.dstPos.x, p.dstPos.y, p.size.x, p.size.y);
mc.tempHistogram.AddValues(pixels, true);
}
}
else
{
pixels = bgTex.GetPixels(p.dstPos.x, p.dstPos.y, p.size.x, p.size.y);
mc.tempHistogram.AddValues(pixels);
}
if (config.savePatchTexures)
{
var test = new Texture2D(p.size.x, p.size.y);
test.SetPixels(pixels);
fm.SaveTextureToPng(test, "./test", (mc.isMask ? maskTex.name : bgTex.name) + "_" + k);
Object.Destroy(test);
}
var patchMatchValue = mc.histograms[k].Compare(mc.tempHistogram);
//if the match value of one patch is SO BAD, you can stop here and move to the next MC.
if (patchMatchValue <= config.patchMinMatchValue)
{
isImpossibleMatch = true;
break;
}
mcMatchValue += patchMatchValue;
}
if (isImpossibleMatch)
{
continue;
}
mcMatchValue = mcMatchValue / mc.HistPatches.Length;
//bool isFirstValue = bestMatchValues[mc.bgPartIndex].Count <= 0;
if (mcMatchValue >= config.candidateMinMatchValue
) // && (isFirstValue || mcMatchValue >= bestMatchValues[mc.bgPartIndex][0]))
{
//To deal with multiple perfect match... but I haven't already identified duplicates via checksum?
//if (!isFirstValue && mcMatchValue != bestMatchValues[mc.bgPartIndex][0])
//{
// bestMatchValues[mc.bgPartIndex].Clear();
//}
bestMatchValues[mc.bgPartIndex].Add(mcMatchValue);
bestMatchCandidateIndices[mc.bgPartIndex].Add(j);
}
}
//Finally we store all the best matches found for that BG info
//Again going through the bg info (and then the candidates) produces more false positives.
//But the opposite is crazy bad in term of performance. An exponential amount of disk fetching.
//For each part (typically 0 = Left, 1 = right, 2 mask)
var partCount = bestMatchValues.Length;
//bool hasMatches = false;
for (var j = 0; j < partCount; j++)
{
var matchCount = bestMatchValues[j].Count;
for (var k = 0; k < matchCount; k++)
{
//it should be defaulted to 0 anyway.
if (bestMatchValues[j][k] >= config.candidateMinMatchValue)
{
//candidates[bestMatchCandidateIndices[j][k]].isMatched = true;
var mc = candidates[bestMatchCandidateIndices[j][k]];
//for (int l = 0; l < mc.fileInfoIndices.Length; l++)
//{
// string texName = fm.RemoveExtensionFromFileInfo(fm.fileInfos[mc.fileInfoIndices[l]]);
// bgInfos[i].AddDumpMatch(dumpFormat.name, texName, mc.bgPartIndex);
// //hasMatches = true;
// texMatchesCount++;
//}
////mcMatchesCount++;
mc.bgInfoMatchValue.Add(bestMatchValues[j][k]);
mc.bgInfoMatchIndex.Add(i);
}
}
}
//if (hasMatches)
// fm.SaveToJson(bgInfos[i], bgInfoPath, bgInfos[i].GetFileName(), prettifyJsonOnSave);
Object.Destroy(bgTex);
Object.Destroy(maskTex);
}
//Analyze the Match candidates' possible bg info matches
for (var i = 0; i < candidates.Length; i++)
{
var mc = candidates[i];
if (mc.bgInfoMatchIndex.Count <= 0)
{
//Report the unmatchable candidates
unmatchedMcCount++;
reportSb.Append(string.Concat("Candidate ", i, " can't find a match: "));
for (var j = 0; j < candidates[i].fileInfoIndices.Length; j++)
{
unmatchedTexCount++;
reportSb.Append(string.Concat("[", fm.fileInfos[candidates[i].fileInfoIndices[j]].Name, "]"));
}
reportSb.AppendLine();
}
else
{
var bestBgInfoMatchValue = 0f;
var bestBgInfoIndex = 0;
for (var j = 0; j < mc.bgInfoMatchIndex.Count; j++)
{
if (mc.bgInfoMatchValue[j] > bestBgInfoMatchValue)
{
bestBgInfoMatchValue = mc.bgInfoMatchValue[j];
bestBgInfoIndex = mc.bgInfoMatchIndex[j];
}
}
//Update and save the best bg info match
for (var j = 0; j < mc.fileInfoIndices.Length; j++)
{
var texName = fm.RemoveExtensionFromFileInfo(fm.fileInfos[mc.fileInfoIndices[j]]);
bgInfos[bestBgInfoIndex].AddDumpMatch(dumpFormat.name, texName, mc.bgPartIndex);
texMatchesCount++;
}
reportSb.Append(string.Concat("Candidate ", i, " matched: "));
for (var j = 0; j < candidates[i].fileInfoIndices.Length; j++)
{
reportSb.Append(string.Concat("[", fm.fileInfos[candidates[i].fileInfoIndices[j]].Name, "]"));
}
reportSb.Append(string.Concat(" - ", bgInfos[bestBgInfoIndex].namePrefix));
reportSb.Append(string.Concat(" - ", bestBgInfoMatchValue.ToString("0.00")));
reportSb.AppendLine();
fm.SaveToJson(bgInfos[bestBgInfoIndex], bgInfoPath, bgInfos[bestBgInfoIndex].GetFileName(),
prettifyJsonOnSave);
}
}
reportSb.AppendLine(string.Format(
"{0} matches for {1} textures ({2} duplicates). {3} unmatchable textures from {4} candidates.",
texMatchesCount, mcTexCount, texDuplicatesCount, unmatchedTexCount, unmatchedMcCount));
reportSb.AppendLine(string.Format("== Texture Matching done! ({0} seconds) ==",
(Time.unscaledTime - taskTime).ToString("#.0")));
fm.OpenFolder(bgInfoPath);
doneCb();
}
