unsafe void WarpingAlgorithm.WarpImage(MarkerSet markerSet, Morphing.ImageData inputImage, Morphing.ImageData outputImage, bool startImage)
{
System.Diagnostics.Debug.Assert(markerSet != null && inputImage != null && outputImage != null);
PointMarkerSet pointMarkerSet = markerSet as PointMarkerSet;
System.Diagnostics.Debug.Assert(pointMarkerSet != null);
// minor precomputation - movevector & interppos (for more mem consistency)
WarpMarker[] markers;
if (startImage)
{
markers = pointMarkerSet.Points.Select(x => new WarpMarker
{
CurrentPos = x.InterpolatedMarker,
MoveVec = x.StartMarker - x.InterpolatedMarker
}).ToArray();
}
else
{
markers = pointMarkerSet.Points.Select(x => new WarpMarker
{
CurrentPos = x.InterpolatedMarker,
MoveVec = x.EndMarker - x.InterpolatedMarker
}).ToArray();
}
double xStep = 1.0 / outputImage.Width;
if (markers.Length == 0)
return;
Parallel.For(0, outputImage.Height, yi =>
{
Color* outputDataPixel = outputImage.Data + yi * outputImage.Width;
Color* lastOutputDataPixel = outputDataPixel + outputImage.Width;
double y = (double)yi / outputImage.Height;
for (double x = 0; outputDataPixel != lastOutputDataPixel; x += xStep, ++outputDataPixel)
{
Vector position = new Vector(x, y);
Vector displacement = new Vector(0,0);
// fixed ptr won't work inside loop! // for(WarpMarker* pMarker = pMarkerFirst; pMarker != pMarkerEnd; ++pMarker)
double weightSum = 0.0f;
foreach (var marker in markers)
{
double distSq = (position - marker.CurrentPos).LengthSquared;
double weight = Math.Exp(-distSq / POINT_WEIGHT);//1.0f / (1.0f + distSq / POINT_WEIGHT); // inverse quadratic!
weightSum += weight;
displacement += marker.MoveVec * weight;
}
displacement /= weightSum;
position += displacement;
position = position.ClampToImageArea();
*outputDataPixel = inputImage.Sample(position.X, position.Y);
}
});
}
unsafe void WarpingAlgorithm.WarpImage(MarkerSet markerSet, Morphing.ImageData inputImage, Morphing.ImageData outputImage, bool startImage)
{
System.Diagnostics.Debug.Assert(markerSet != null && inputImage != null && outputImage != null);
LineMarkerSet lineMarkerSet = markerSet as LineMarkerSet;
System.Diagnostics.Debug.Assert(lineMarkerSet != null);
double xStep = 1.0 / outputImage.Width;
WarpMarker[] markers;
if (startImage)
{
markers = lineMarkerSet.Lines.Select(x => new WarpMarker
{
target_start = x.InterpolatedMarker.Start,
target_dirNorm = x.InterpolatedMarker.End - x.InterpolatedMarker.Start,
target_perpendicNorm = (x.InterpolatedMarker.End - x.InterpolatedMarker.Start).Perpendicular(),
target_lineLength = (x.InterpolatedMarker.End - x.InterpolatedMarker.Start).Length,
dest_start = x.StartMarker.Start,
dest_dirNorm = x.StartMarker.End - x.StartMarker.Start,
dest_perpendicNorm = (x.StartMarker.End - x.StartMarker.Start).Perpendicular(),
}).ToArray();
}
else
{
markers = lineMarkerSet.Lines.Select(x => new WarpMarker
{
target_start = x.InterpolatedMarker.Start,
target_dirNorm = x.InterpolatedMarker.End - x.InterpolatedMarker.Start,
target_perpendicNorm = (x.InterpolatedMarker.End - x.InterpolatedMarker.Start).Perpendicular(),
target_lineLength = (x.InterpolatedMarker.End - x.InterpolatedMarker.Start).Length,
dest_start = x.EndMarker.Start,
dest_dirNorm = x.EndMarker.End - x.EndMarker.Start,
dest_perpendicNorm = (x.EndMarker.End - x.EndMarker.Start).Perpendicular(),
}).ToArray();
}
for (int markerIdx = 0; markerIdx < markers.Length; ++markerIdx)
{
// markers[markerIdx].target_dirLength = markers[markerIdx].target_dir.Length;
markers[markerIdx].target_perpendicNorm.Normalize();
markers[markerIdx].target_dirNorm.Normalize();
markers[markerIdx].dest_perpendicNorm.Normalize();
markers[markerIdx].dest_dirNorm.Normalize();
}
if (markers.Length == 0)
return;
Parallel.For(0, outputImage.Height, yi =>
{
Color* outputDataPixel = outputImage.Data + yi * outputImage.Width;
Color* lastOutputDataPixel = outputDataPixel + outputImage.Width;
double y = (double)yi / outputImage.Height;
for (double x = 0; outputDataPixel != lastOutputDataPixel; x += xStep, ++outputDataPixel)
{
Vector position = new Vector(x, y);
Vector displacement = new Vector(0, 0);
double weightSum = 0.0f;
for (int markerIdx = 0; markerIdx < markers.Length; ++markerIdx)
{
Vector toStart = position - markers[markerIdx].target_start;
// calc relative coordinates to line
double u = toStart.Dot(markers[markerIdx].target_dirNorm);
double v = toStart.Dot(markers[markerIdx].target_perpendicNorm);
// calc weight
double weight;
if (u < 0) // bellow
weight = toStart.LengthSquared;
else if (u > 1) // above
weight = (toStart + markers[markerIdx].target_dirNorm * markers[markerIdx].target_lineLength).LengthSquared;
else // beside
weight = v * v;
weight = Math.Exp(-weight / LINE_WEIGHT); //Math.Pow(markers[markerIdx].target_lineLength / (A + weight), B);
weightSum += weight;
// translation
Vector srcPoint = markers[markerIdx].dest_start + u * markers[markerIdx].dest_dirNorm + v * markers[markerIdx].dest_perpendicNorm;
displacement += (srcPoint - position) * weight;
}
displacement /= weightSum;
position += displacement;
position = position.ClampToImageArea();
*outputDataPixel = inputImage.Sample(position.X, position.Y);
}
});
}
public string AsLimitableStringWithTypes(bool withExampleInfo, bool threeLines, int maxLength = 600)
{
string nl = threeLines ? Environment.NewLine + " " : "";
string exampleInfo = withExampleInfo ? ExampleInfo : null;
string markers = MarkerSet.AsFullString(maxLength / 3);
return($"{UsingItem.AsFullString(maxLength / 3)} "
+ nl + $"{DIP_ARROW} {markers};{Ct};{QuestionableCt};{BadCt};{Source?.AsDipString()};{exampleInfo} "
+ nl + $"{DIP_ARROW} {UsedItem.AsFullString(maxLength / 3)}");
}
/// <summary>
/// Produces a copy of this <c>MarkerSet</c>.
/// The new instance does not belong to any <c>ZeroitAsanaCompass</c>.
/// </summary>
/// <returns>A new <c>MarkerSet</c>.</returns>
public MarkerSet Clone()
{
MarkerSet ms = new MarkerSet(angle);
for (int i = 0; i < markers.Count; i++)
{
Marker m = markers[i].Clone();
ms.Add(m);
}
return(ms);
}
/// <summary>
/// A message presented to the user if this Dependency has a <see cref="BadCt"/>or <see cref="QuestionableCt"/>.
/// </summary>
/// <returns></returns>
public string NotOkMessage(bool simpleRuleOutput, bool newLine, int maxLength = 600)
{
if (simpleRuleOutput)
{
return($"{UsingItem.AsString()} ---? {UsedItem.AsString()}");
}
else
{
string prefix = BadCt > 0
? QuestionableCt > 0 ? "Bad and questionable d" : "Bad d"
: QuestionableCt > 0 ? "Questionable d" : "D";
string nounTail = Ct > 1 ? "ependencies" : "ependency";
string reason = string.IsNullOrWhiteSpace(NotOkReason) ? "" : " detected by " + NotOkReason;
string brk = newLine ? Environment.NewLine + " " : "";
string ct = BadCt > 0
? QuestionableCt > 0 ? $";{QuestionableCt};{BadCt}" : $";;{BadCt}"
: QuestionableCt > 0 ? $";{QuestionableCt};" : ";;";
string markers = MarkerSet.AsFullString(maxLength / 3);
return
($"{prefix}{nounTail}{reason}: {brk}{UsingItem.AsFullString(maxLength / 3)}{brk}-- {ct}{markers}{brk}-> {UsedItem.AsFullString(maxLength / 3)}" +
(Source != null ? $" {brk}" + (Ct > 1 ? "(e.g. at " : "(at ") + Source + ")" : "") +
(newLine ? Environment.NewLine : ""));
}
}
public static void Main(String[] args)
{
SWTest.WriteLine("Start test");
WordList wl = new WordList(false);
Literal keywords = new Literal("alpha \u00a8theta gamma");
wl.Set(keywords.Data(), keywords.Length());
Literal alpha = new Literal("alpha");
Literal theta = new Literal("\u00a8theta");
Literal gamma = new Literal("gamma");
Literal delta = new Literal("delta");
Literal large = new Literal("\u00a0large");
if (wl.InList(alpha.Data(), 0, alpha.Length()))
{
SWTest.Write("Contains alpha");
}
else
{
SWTest.Write("Does not contain alpha");
}
SWTest.Write("\n");
if (wl.InList(theta.Data(), 0, theta.Length()))
{
SWTest.Write("Contains theta");
}
else
{
SWTest.Write("Does not contain theta");
}
SWTest.Write("\n");
if (wl.InList(gamma.Data(), 0, gamma.Length()))
{
SWTest.Write("Contains gamma");
}
else
{
SWTest.Write("Does not contain beta");
}
SWTest.Write("\n");
if (wl.InList(delta.Data(), 0, delta.Length()))
{
SWTest.Write("Contains delta");
}
else
{
SWTest.Write("Does not contain delta");
}
SWTest.Write("\n");
if (wl.InList(large.Data(), 0, large.Length()))
{
SWTest.Write("Contains large");
}
else
{
SWTest.Write("Does not contain large");
}
SWTest.Write("\n");
testUndoRedo();
SplitVector_1 buffer = new SplitVector_1();
buffer.Create(20, 100);
SWTest.Assert(buffer.Length() == 0);
Literal test = new Literal("abcde");
try {
buffer.InsertString(1, test.Data(), 1);
} catch (BadPositionException) {
SWTest.Write("Caught\n");
}
int lenTest = test.Length();
buffer.InsertString(0, test.Data(), lenTest);
SWTest.Assert(buffer.Length() == lenTest);
byte[] ret = new byte[3];
buffer.RetrieveString(1, ret, 3);
for (int h = 0; h < 3; h++)
{
SWTest.Assert(ret[h] == test.CharAt(h + 1));
}
for (int i = 0; i < lenTest; i++)
{
SWTest.Assert(test.CharAt(i) == buffer.CharAt(i));
SWTest.Write(i);
SWTest.Write(":");
SWTest.Write(buffer.CharAt(i));
SWTest.Write(" ");
}
SWTest.Write("\n");
buffer.DeleteRange(1, 2);
SWTest.Assert(buffer.Length() == lenTest - 2);
//for (int j = -1; j < buffer.Length() + 1; j++) {
for (int j = 0; j < buffer.Length(); j++)
{
SWTest.Write(j);
SWTest.Write("=");
SWTest.Write(buffer.CharAt(j));
SWTest.Write(" ");
}
SWTest.Write("\n");
Literal shortInsert = new Literal("bc");
buffer.InsertString(1, shortInsert.Data(), 2);
SWTest.Assert(buffer.Length() == lenTest);
for (int k = 0; k < lenTest; k++)
{
SWTest.Assert(test.CharAt(k) == buffer.CharAt(k));
SWTest.Write(k);
SWTest.Write(":");
SWTest.Write(buffer.CharAt(k));
SWTest.Write(" ");
}
SWTest.Write("\n");
double st = SWTest.Now();
Literal longtest = new Literal("ghijklmnopqrstuvwxyz");
for (int l = 0; l < 10000; l++)
{
for (int m = 0; m < 20; m++)
{
buffer.InsertString(1, longtest.Data(), m + 1);
}
}
SplitText pbuffer = new SplitText();
pbuffer.AttachStyles(SplitText.CreateStyles(1), null, 0);
//pbuffer.DiscardLines();
SWTest.Assert(pbuffer.Length() == 0);
//SWTest.Assert(pbuffer.Lines() == 1);
pbuffer.InsertString(0, test.Data(), lenTest);
SWTest.Assert(pbuffer.Length() == lenTest);
for (int n = 0; n < lenTest; n++)
{
SWTest.Assert(test.CharAt(n) == pbuffer.CharAt(n));
SWTest.Write(n);
SWTest.Write(":");
SWTest.Write(pbuffer.CharAt(n));
SWTest.Write(" ");
}
SWTest.Write("\n");
double t2 = SWTest.Now();
SWTest.Write(t2 - st);
SWTest.Write(" seconds for Insertion test\n");
SplitText sbuffer = new SplitText();
IStyles sstyles = SplitText.CreateStyles(1);
sbuffer.AttachStyles(sstyles, null, 0);
//sbuffer.DiscardLines();
Literal prog = new Literal("//// A demonstration program\r\nint main() {\r\n\tprintf(\"hello world %d\\n\", 9);\r\n}\r\n");
int lenProg = prog.Length();
sbuffer.InsertString(0, prog.Data(), lenProg);
//SWTest.Assert(sbuffer.Lines() == 5);
Styler sa = new Styler(sbuffer, sstyles, 0, sbuffer.Length());
LexCPP lx = new LexCPP();
WordList wlCPP = new WordList(false);
Literal keywordsCPP = new Literal(
"abstract as base bool break byte case catch char " +
"checked class const continue decimal default " +
"delegate do double else enum event explicit " +
"extern false finally fixed float for foreach goto " +
"if implicit in int interface internal is lock long " +
"namespace new null object operator out override " +
"params private protected public readonly ref " +
"return sbyte sealed short sizeof stackalloc " +
"static string struct switch this throw true try " +
"typeof uint ulong unchecked unsafe ushort " +
"using virtual void while");
lx.SetKeyWords(0, keywordsCPP);
lx.Colourise(sa);
//DisplayHTML(sbuffer);
// Start buffer as big as needed to avoid measuring allocation and copying
SplitText bigbuffer = new SplitText(300000, 1024);
IStyles bigstyles = SplitText.CreateStyles(1);
bigbuffer.AttachStyles(bigstyles, null, 0);
MarkerSet ms2 = new MarkerSet();
bigbuffer.AddPerLineData(ms2);
//bigbuffer.DiscardLines();
// prog is about 80 characters so create a realistic large 120K document
for (int q = 0; q < 3000; q++)
{
bigbuffer.InsertString(lenProg * (q / 2), prog.Data(), lenProg);
}
for (int q2 = 0; q2 < 1500; q2++)
{
bigbuffer.DeleteRange(lenProg * (q2 / 2), lenProg);
}
SWTest.Assert(bigbuffer.Length() == 1500 * lenProg);
SWTest.Assert(bigbuffer.Lines() == 1500 * 4 + 1);
double t3 = SWTest.Now();
SWTest.Write(t3 - t2);
SWTest.Write(" seconds for Lines Insertion Deletion test\n");
// Run 50 times to get a large enough time to measure Colourise operation
for (int p = 0; p < 50; p++)
{
Styler sabig = new Styler(bigbuffer, bigstyles, 0, bigbuffer.Length());
lx.Colourise(sabig);
}
double t31 = SWTest.Now();
SWTest.Write((t31 - t3) / 50.0);
SWTest.Write(" seconds for Colourise test\n");
int biglength = bigbuffer.Length();
// Search for "printf"
Literal printfs = new Literal("printf");
int lenPrintfs = printfs.Length();
for (int r = 0; r < 50; r++)
{
int count = 0;
for (int s = 0; s < biglength; s++)
{
if (bigbuffer.CharAt(s) == printfs.CharAt(0))
{
int found = 1;
for (int t = 1; t < lenPrintfs && found == 1; t++)
{
if (bigbuffer.CharAt(s + t) != printfs.CharAt(t))
{
found = 0;
}
}
if (found == 1)
{
count++;
}
}
}
SWTest.Assert(count == 1500);
}
double t4 = SWTest.Now();
SWTest.Write((t4 - t31) / 50.0);
SWTest.Write(" seconds for Search test\n");
// Search for "printf" and replace with "OutputTrace"
// Then reverse the process so it can be done again
Literal replace = new Literal("OutputTrace");
int lenReplace = replace.Length();
for (int u = 0; u < 50; u++)
{
int count = 0;
for (int s = 0; s < biglength; s++)
{
if (bigbuffer.CharAt(s) == printfs.CharAt(0))
{
int found = 1;
for (int t = 1; t < lenPrintfs && found == 1; t++)
{
if (bigbuffer.CharAt(s + t) != printfs.CharAt(t))
{
found = 0;
}
}
if (found == 1)
{
count++;
bigbuffer.DeleteRange(s, lenPrintfs);
bigbuffer.InsertString(s, replace.Data(), lenReplace);
biglength += lenReplace - lenPrintfs;
}
}
}
SWTest.Assert(count == 1500);
count = 0;
for (int s = 0; s < biglength; s++)
{
if (bigbuffer.CharAt(s) == replace.CharAt(0))
{
int found = 1;
for (int t = 1; t < lenReplace && found == 1; t++)
{
if (bigbuffer.CharAt(s + t) != replace.CharAt(t))
{
found = 0;
}
}
if (found == 1)
{
count++;
bigbuffer.DeleteRange(s, lenReplace);
bigbuffer.InsertString(s, printfs.Data(), lenPrintfs);
biglength += lenPrintfs - lenReplace;
}
}
}
SWTest.Assert(count == 1500);
}
double en = SWTest.Now();
SWTest.Write((en - t4) / 100.0);
SWTest.Write(" seconds for Replace test\n");
}
public override string ToString()
{
return(UsingItem.AsFullString(50) + " --" + MarkerSet.AsFullString(50) + "-> " + UsedItem.AsFullString(50));
}
public bool IsMarkerMatch(params string[] patterns)
{
return(MarkerSet.IsMatch(patterns.Select(p => MarkerMatch.CreateEval(p, false))));
}
public bool IsMarkerMatch(IEnumerable <CountPattern <IMatcher> .Eval> evals)
{
return(MarkerSet.IsMatch(evals));
}
private void UpdateMarker(MarkerSet markerSet, double latitude, double longitude)
{
UpdateFileLocations(markerSet.Files, latitude, longitude);
}
private MarkerSet CreateMarkerSet(IList<string> pathList)
{
// Ensure files aren't in multiple marker sets - that's confusing.
HashSet<MarkerSet> removeSet = new HashSet<MarkerSet>();
foreach (var ms in allMarkers.Values)
{
foreach (var path in pathList)
{
if (ms.Files.Contains(path))
{
removeSet.Add(ms);
break;
}
}
}
foreach (var ms in removeSet)
{
MapWebView.InvokeMapScript("removeMarker({0})", ms.Id);
}
var markerSet = new MarkerSet { Files = pathList };
allMarkers.Add(markerSet.Id, markerSet);
return markerSet;
}
unsafe void WarpingAlgorithm.WarpImage(MarkerSet markerSet, Morphing.ImageData inputImage, Morphing.ImageData outputImage, bool startImage)
{
System.Diagnostics.Debug.Assert(markerSet != null && inputImage != null && outputImage != null);
TriangleMarkerSet triangleMarkerSet = markerSet as TriangleMarkerSet;
System.Diagnostics.Debug.Assert(triangleMarkerSet != null);
if (triangleMarkerSet.Triangles.Count() == 0)
return;
// prepare data
// dest
DestTriangle[] destTriangles = triangleMarkerSet.Triangles.Select(x => new DestTriangle()
{
A = x.Vertices[0].InterpolatedMarker,
V0 = x.Vertices[2].InterpolatedMarker - x.Vertices[0].InterpolatedMarker,
V1 = x.Vertices[1].InterpolatedMarker - x.Vertices[0].InterpolatedMarker
}).ToArray();
for (int i = 0; i < destTriangles.Length; ++i )
{
destTriangles[i].V0DotV0_divDenom = destTriangles[i].V0.LengthSquared;
destTriangles[i].V1DotV1_divDenom = destTriangles[i].V1.LengthSquared;
destTriangles[i].V0DotV1_divDenom = destTriangles[i].V0.Dot(destTriangles[i].V1);
double invDenom = 1.0 / (destTriangles[i].V0DotV0_divDenom * destTriangles[i].V1DotV1_divDenom - destTriangles[i].V0DotV1_divDenom * destTriangles[i].V0DotV1_divDenom);
destTriangles[i].V0DotV0_divDenom *= invDenom;
destTriangles[i].V1DotV1_divDenom *= invDenom;
destTriangles[i].V0DotV1_divDenom *= invDenom;
}
// src
SourceTriangle[] sourceTriangles;
if (startImage)
{
sourceTriangles = triangleMarkerSet.Triangles.Select(x => new SourceTriangle()
{
A = x.Vertices[0].StartMarker,
V0 = x.Vertices[2].StartMarker - x.Vertices[0].StartMarker,
V1 = x.Vertices[1].StartMarker - x.Vertices[0].StartMarker
}).ToArray();
}
else
{
sourceTriangles = triangleMarkerSet.Triangles.Select(x => new SourceTriangle()
{
A = x.Vertices[0].EndMarker,
V0 = x.Vertices[2].EndMarker - x.Vertices[0].EndMarker,
V1 = x.Vertices[1].EndMarker - x.Vertices[0].EndMarker
}).ToArray();
}
// process pixel wise
double xStep = 1.0 / outputImage.Width;
Parallel.For(0, outputImage.Height, yi =>
{
Color* outputDataPixel = outputImage.Data + yi * outputImage.Width;
Color* lastOutputDataPixel = outputDataPixel + outputImage.Width;
double y = (double)yi / outputImage.Height;
double u,v;
double dot02, dot12;
Vector v2;
for (double x = 0; outputDataPixel != lastOutputDataPixel; x += xStep, ++outputDataPixel)
{
Vector position = new Vector(x, y);
for (int triangleIdx = 0; triangleIdx < destTriangles.Length; ++triangleIdx)
{
// compute barycentric - http://www.blackpawn.com/texts/pointinpoly/
v2 = position - destTriangles[triangleIdx].A;
// Compute dot products
dot02 = VectorExtension.Dot(destTriangles[triangleIdx].V0, v2);
dot12 = VectorExtension.Dot(destTriangles[triangleIdx].V1, v2);
// Compute barycentric coordinates
u = (destTriangles[triangleIdx].V1DotV1_divDenom * dot02 - destTriangles[triangleIdx].V0DotV1_divDenom * dot12);
v = (destTriangles[triangleIdx].V0DotV0_divDenom * dot12 - destTriangles[triangleIdx].V0DotV1_divDenom * dot02);
// Check if point is in triangle
if ((u >= 0) && (v >= 0) && (u + v < 1))
{
position = sourceTriangles[triangleIdx].A + sourceTriangles[triangleIdx].V0 * u + sourceTriangles[triangleIdx].V1 * v;
break;
}
}
position = position.ClampToImageArea();
*outputDataPixel = inputImage.Sample(position.X, position.Y);
}
});
}
private void UpdateMarkerCanvases(MarkerSet.Location location)
{
if (_morphingAlgorithm.MarkerSet != null)
{
switch(location)
{
case MarkerSet.Location.END_IMAGE:
case MarkerSet.Location.START_IMAGE:
_morphingAlgorithm.MarkerSet.UpdateMarkerCanvas(MarkerSet.Location.START_IMAGE, StartImageMarkerCanvas,
new Vector((StartImageMarkerCanvas.ActualWidth - StartImage.ActualWidth) / 2, (StartImageMarkerCanvas.ActualHeight - StartImage.ActualHeight) / 2),
new Vector(StartImage.ActualWidth, StartImage.ActualHeight));
_morphingAlgorithm.MarkerSet.UpdateMarkerCanvas(MarkerSet.Location.END_IMAGE, EndImageMarkerCanvas,
new Vector((EndImageMarkerCanvas.ActualWidth - EndImage.ActualWidth) / 2, (EndImageMarkerCanvas.ActualHeight - EndImage.ActualHeight) / 2),
new Vector(EndImage.ActualWidth, EndImage.ActualHeight));
break;
case MarkerSet.Location.OUTPUT_IMAGE:
_morphingAlgorithm.MarkerSet.UpdateMarkerCanvas(MarkerSet.Location.OUTPUT_IMAGE, OutputImageMarkerCanvas,
new Vector((OutputImageMarkerCanvas.ActualWidth - OutputImage.ActualWidth) / 2, (OutputImageMarkerCanvas.ActualHeight - OutputImage.ActualHeight) / 2),
new Vector(OutputImage.ActualWidth, OutputImage.ActualHeight));
break;
}
}
}
