def parseArgbColor(value):
result = TFSMap()
result.alpha = 0xFF & (value >> 24)
result.red = 0xFF & (value >> 16)
result.green = 0xFF & (value >> 8)
result.blue = 0xFF & (value >> 0)
return result
def createPoint(segment, t):
result = TFSMap()
result.t = t
result.p, result.tangent, _, _ = segment.evaluateWithTangent(t)
# result.angle = result.tangent.atan2()
result.angle = normalizeRadians(result.tangent.atan2())
return result
def createPoint(segment, t):
result = TFSMap()
result.t = t
result.p, result.tangent, _, _ = segment.evaluateWithTangent(t)
# result.angle = result.tangent.atan2()
result.angle = normalizeRadians(result.tangent.atan2())
return result
def blendArgbColors(argb0, argb1, factor):
factor = clamp01(factor)
color0 = parseArgbColor(argb0)
color1 = parseArgbColor(argb1)
color = TFSMap()
color.alpha = int((color0.alpha * (1.0 - factor)) + (color1.alpha * factor))
color.red = int((color0.red * (1.0 - factor)) + (color1.red * factor))
color.green = int((color0.green * (1.0 - factor)) + (color1.green * factor))
color.blue = int((color0.blue * (1.0 - factor)) + (color1.blue * factor))
return unparseArgbColor(color)
def tangentToCircle_base(self, other, tangentFunction):
centersDiff = other.center.minus(self.center)
centersAngle = math.atan2(centersDiff.y, centersDiff.x)
maxAngle = centersAngle + math.pi * 0.5
minAngle = centersAngle - math.pi * 0.5
minDiff, _, _ = tangentFunction(minAngle)
maxDiff, _, _ = tangentFunction(maxAngle)
# print 'minAngle', minAngle
# print 'maxAngle', maxAngle
# print 'minDiff', minDiff
# print 'maxDiff', maxDiff
if maxDiff < minDiff:
maxDiff, minDiff = minDiff, maxDiff
maxAngle, minAngle = minAngle, maxAngle
# print 'minAngle\'', minAngle
# print 'maxAngle\'', maxAngle
# print 'minDiff\'', minDiff
# print 'maxDiff\'', maxDiff
MAX_ATTEMPTS = 32
for _ in xrange(MAX_ATTEMPTS):
tangentAngle = (maxAngle + minAngle) * 0.5
anglesDiff, p0, p1 = tangentFunction(tangentAngle)
# print
# print 'tangentAngle', tangentAngle
# print 'anglesDiff', anglesDiff
OVAL_TO_OVAL_TANGENT_PRECISION_RADIANS = getFloatRoundingTolerance(
)
# print
# print 'tangentAngle', tangentAngle
# print 'centersAngle', centersAngle
## print 'tangentsAngle', tangentsAngle
# print 'anglesDiff', anglesDiff
if abs(anglesDiff) < OVAL_TO_OVAL_TANGENT_PRECISION_RADIANS:
result = TFSMap()
result.p0 = p0
result.p1 = p1
result.angle = tangentAngle
return result
if anglesDiff > 0:
maxAngle = tangentAngle
else:
minAngle = tangentAngle
raise Exception('Did not converge')
def minmaxMerge(minmax0, minmax1):
if minmax0 is None and minmax1 is None:
raise Exception('Invalid arguments')
if minmax0 is None:
return minmax1
if minmax1 is None:
return minmax0
result = TFSMap()
result.minX = min(minmax0.minX, minmax1.minX)
result.maxX = max(minmax0.maxX, minmax1.maxX)
result.minY = min(minmax0.minY, minmax1.minY)
result.maxY = max(minmax0.maxY, minmax1.maxY)
return result
def tangentToCircle_base(self, other, tangentFunction):
centersDiff = other.center.minus(self.center)
centersAngle = math.atan2(centersDiff.y, centersDiff.x)
maxAngle = centersAngle + math.pi * 0.5
minAngle = centersAngle - math.pi * 0.5
minDiff, _, _ = tangentFunction(minAngle)
maxDiff, _, _ = tangentFunction(maxAngle)
# print 'minAngle', minAngle
# print 'maxAngle', maxAngle
# print 'minDiff', minDiff
# print 'maxDiff', maxDiff
if maxDiff < minDiff:
maxDiff, minDiff = minDiff, maxDiff
maxAngle, minAngle = minAngle, maxAngle
# print 'minAngle\'', minAngle
# print 'maxAngle\'', maxAngle
# print 'minDiff\'', minDiff
# print 'maxDiff\'', maxDiff
MAX_ATTEMPTS = 32
for _ in xrange(MAX_ATTEMPTS):
tangentAngle = (maxAngle + minAngle) * 0.5
anglesDiff, p0, p1 = tangentFunction(tangentAngle)
# print
# print 'tangentAngle', tangentAngle
# print 'anglesDiff', anglesDiff
OVAL_TO_OVAL_TANGENT_PRECISION_RADIANS = getFloatRoundingTolerance()
# print
# print 'tangentAngle', tangentAngle
# print 'centersAngle', centersAngle
## print 'tangentsAngle', tangentsAngle
# print 'anglesDiff', anglesDiff
if abs(anglesDiff) < OVAL_TO_OVAL_TANGENT_PRECISION_RADIANS:
result = TFSMap()
result.p0 = p0
result.p1 = p1
result.angle = tangentAngle
return result
if anglesDiff > 0:
maxAngle = tangentAngle
else:
minAngle = tangentAngle
raise Exception('Did not converge')
def readCodeBlocks():
import tfs.common.TFSProject as TFSProject
srcFile = os.path.abspath(os.path.join(TFSProject.findProjectRootFolder(), "data", "UnicodeCodeBlocks.yaml"))
# print 'srcFile', srcFile
if not os.path.exists(srcFile) and os.path.isfile(srcFile):
raise Exception("Missing srcFile: " + srcFile)
with open(srcFile, "rt") as f:
data = f.read()
maps = yaml.load(data)
for map in maps:
unicodeCodeBlock = TFSMap()
unicodeCodeBlock.blockName = map["blockName"]
unicodeCodeBlock.blockRangeStart = int(map["blockRangeStart"][2:], 16)
unicodeCodeBlock.blockRangeEnd = int(map["blockRangeEnd"][2:], 16)
unicodeCodeBlocks.append(unicodeCodeBlock)
def readCodeBlocks():
#import tfs.common.TFSProject as TFSProject
srcFile = os.path.abspath(
os.path.join(project_root_folder, 'data', 'UnicodeCodeBlocks.yaml'))
# print 'srcFile', srcFile
if not os.path.exists(srcFile) and os.path.isfile(srcFile):
raise Exception('Missing srcFile: ' + srcFile)
with open(srcFile, 'rt') as f:
data = f.read()
maps = yaml.load(data)
for map in maps:
unicodeCodeBlock = TFSMap()
unicodeCodeBlock.blockName = map['blockName']
unicodeCodeBlock.blockRangeStart = int(map['blockRangeStart'][2:], 16)
unicodeCodeBlock.blockRangeEnd = int(map['blockRangeEnd'][2:], 16)
unicodeCodeBlocks.append(unicodeCodeBlock)
def parseArgbColor(value):
result = TFSMap()
result.alpha = 0xff & (value >> 24)
result.red = 0xff & (value >> 16)
result.green = 0xff & (value >> 8)
result.blue = 0xff & (value >> 0)
return result
def minmaxPoints(points):
result = TFSMap()
result.minX = reduce(min, [point.x for point in points])
result.maxX = reduce(max, [point.x for point in points])
result.minY = reduce(min, [point.y for point in points])
result.maxY = reduce(max, [point.y for point in points])
return result
def blendArgbColors(argb0, argb1, factor):
factor = clamp01(factor)
color0 = parseArgbColor(argb0)
color1 = parseArgbColor(argb1)
color = TFSMap()
color.alpha = int((color0.alpha * (1.0 - factor)) + (color1.alpha * factor))
color.red = int((color0.red * (1.0 - factor)) + (color1.red * factor))
color.green = int((color0.green * (1.0 - factor)) + (color1.green * factor))
color.blue = int((color0.blue * (1.0 - factor)) + (color1.blue * factor))
return unparseArgbColor(color)
def minmaxMerge(minmax0, minmax1):
if minmax0 is None and minmax1 is None:
raise Exception('Invalid arguments')
if minmax0 is None:
return minmax1
if minmax1 is None:
return minmax0
result = TFSMap()
result.minX = min(minmax0.minX, minmax1.minX)
result.maxX = max(minmax0.maxX, minmax1.maxX)
result.minY = min(minmax0.minY, minmax1.minY)
result.maxY = max(minmax0.maxY, minmax1.maxY)
return result
def controlPointsWithSides(_left, _right, _top, _bottom):
result = TFSMap()
result.tl = TFSPoint(_left, _top)
result.bl = TFSPoint(_left, _bottom)
result.tr = TFSPoint(_right, _top)
result.br = TFSPoint(_right, _bottom)
result.tc = result.tl.midpoint(result.tr)
result.bc = result.bl.midpoint(result.br)
result.lc = result.tl.midpoint(result.bl)
result.rc = result.tr.midpoint(result.br)
result.left = _left
result.right = _right
result.top = _top
result.bottom = _bottom
return result
def tangentToCircle(self, other, isLeft, isCross=False):
def getTangentAngleDiff(tangentAngle):
# tangentAngle = (maxAngle + minAngle) * 0.5
if isLeft:
sideAngle = tangentAngle + math.pi / 2
else:
sideAngle = tangentAngle - math.pi / 2
p0 = self.evaluate(sideAngle)
if isCross:
otherAngle = sideAngle + math.pi * 1.0
else:
otherAngle = sideAngle
p1 = other.evaluate(otherAngle)
angle01 = p1.minus(p0).atan2()
pTangent = self.evaluateTangent(sideAngle)
# print 'pTangent', pTangent
if isLeft:
pTangent = pTangent.invert()
# print 'pTangent', pTangent
pTangentAngle = pTangent.atan2()
anglesDiff = normalizeRadiansDiff(angle01 - pTangentAngle)
# print 'tangentAngle', tangentAngle
# print 'pTangentAngle', pTangentAngle
# print 'angle01', angle01
# print 'anglesDiff', anglesDiff
return anglesDiff, p0, p1
centersDiff = other.center.minus(self.center)
centersAngle = math.atan2(centersDiff.y, centersDiff.x)
maxAngle = centersAngle + math.pi * 0.5
minAngle = centersAngle - math.pi * 0.5
minDiff, _, _ = getTangentAngleDiff(minAngle)
maxDiff, _, _ = getTangentAngleDiff(maxAngle)
# print 'minAngle', minAngle
# print 'maxAngle', maxAngle
# print 'minDiff', minDiff
# print 'maxDiff', maxDiff
if maxDiff < minDiff:
maxDiff, minDiff = minDiff, maxDiff
maxAngle, minAngle = minAngle, maxAngle
# print 'minAngle\'', minAngle
# print 'maxAngle\'', maxAngle
# print 'minDiff\'', minDiff
# print 'maxDiff\'', maxDiff
MAX_ATTEMPTS = 32
for _ in xrange(MAX_ATTEMPTS):
tangentAngle = (maxAngle + minAngle) * 0.5
anglesDiff, p0, p1 = getTangentAngleDiff(tangentAngle)
# print
# print 'tangentAngle', tangentAngle
# print 'anglesDiff', anglesDiff
OVAL_TO_OVAL_TANGENT_PRECISION_RADIANS = getFloatRoundingTolerance(
)
OVAL_TO_OVAL_TANGENT_APPROXIMATION_FACTOR = 0.65
OVAL_TO_OVAL_TANGENT_APPROXIMATION_FACTOR = 0.5
# print
# print 'tangentAngle', tangentAngle
# print 'centersAngle', centersAngle
## print 'tangentsAngle', tangentsAngle
# print 'anglesDiff', anglesDiff
if abs(anglesDiff) < OVAL_TO_OVAL_TANGENT_PRECISION_RADIANS:
result = TFSMap()
result.p0 = p0
result.p1 = p1
result.angle = tangentAngle
return result
if anglesDiff > 0:
maxAngle = tangentAngle
else:
minAngle = tangentAngle
raise Exception('Did not converge')
def getGlyphInfos(self):
result = []
# glyphIndexToNameMap = {}
glyphToCharacterMap = self.getGlyphIndexToCharacterMap()
if self.ftFont.has_glyph_names:
for glyphIndex in self.getGlyphIndices():
glyphNameBuffer = ' ' * 256
error = freetype.FT_Get_Glyph_Name(self.ftFont._FT_Face,
glyphIndex, glyphNameBuffer,
len(glyphNameBuffer) - 1)
if error:
raise freetype.FT_Exception(error)
glyphInfo = TFSMap()
glyphInfo.glyphIndex = glyphIndex
glyphInfo.glyphName = glyphNameBuffer.strip()[:-1]
# print 'glyphName', glyphIndex, glyphName, len(glyphName)
glyphInfo.characterCode = None
if glyphIndex in glyphToCharacterMap:
glyphInfo.characterCode = glyphToCharacterMap[glyphIndex]
result.append(glyphInfo)
else:
for glyphIndex, characterCode in glyphToCharacterMap.items():
glyphInfo = TFSMap()
glyphInfo.glyphIndex = glyphIndex
glyphInfo.glyphName = getUnicodeCharacterName(characterCode)
glyphInfo.characterCode = characterCode
# glyphInfoMap[glyphIndex] = glyphInfo
result.append(glyphInfo)
return result
def tangentToCircle(self, other, isLeft, isCross=False):
def getTangentAngleDiff(tangentAngle):
# tangentAngle = (maxAngle + minAngle) * 0.5
if isLeft:
sideAngle = tangentAngle + math.pi / 2
else:
sideAngle = tangentAngle - math.pi / 2
p0 = self.evaluate(sideAngle)
if isCross:
otherAngle = sideAngle + math.pi * 1.0
else:
otherAngle = sideAngle
p1 = other.evaluate(otherAngle)
angle01 = p1.minus(p0).atan2()
pTangent = self.evaluateTangent(sideAngle)
# print 'pTangent', pTangent
if isLeft:
pTangent = pTangent.invert()
# print 'pTangent', pTangent
pTangentAngle = pTangent.atan2()
anglesDiff = normalizeRadiansDiff(angle01 - pTangentAngle)
# print 'tangentAngle', tangentAngle
# print 'pTangentAngle', pTangentAngle
# print 'angle01', angle01
# print 'anglesDiff', anglesDiff
return anglesDiff, p0, p1
centersDiff = other.center.minus(self.center)
centersAngle = math.atan2(centersDiff.y, centersDiff.x)
maxAngle = centersAngle + math.pi * 0.5
minAngle = centersAngle - math.pi * 0.5
minDiff, _, _ = getTangentAngleDiff(minAngle)
maxDiff, _, _ = getTangentAngleDiff(maxAngle)
# print 'minAngle', minAngle
# print 'maxAngle', maxAngle
# print 'minDiff', minDiff
# print 'maxDiff', maxDiff
if maxDiff < minDiff:
maxDiff, minDiff = minDiff, maxDiff
maxAngle, minAngle = minAngle, maxAngle
# print 'minAngle\'', minAngle
# print 'maxAngle\'', maxAngle
# print 'minDiff\'', minDiff
# print 'maxDiff\'', maxDiff
MAX_ATTEMPTS = 32
for _ in xrange(MAX_ATTEMPTS):
tangentAngle = (maxAngle + minAngle) * 0.5
anglesDiff, p0, p1 = getTangentAngleDiff(tangentAngle)
# print
# print 'tangentAngle', tangentAngle
# print 'anglesDiff', anglesDiff
OVAL_TO_OVAL_TANGENT_PRECISION_RADIANS = getFloatRoundingTolerance()
OVAL_TO_OVAL_TANGENT_APPROXIMATION_FACTOR = 0.65
OVAL_TO_OVAL_TANGENT_APPROXIMATION_FACTOR = 0.5
# print
# print 'tangentAngle', tangentAngle
# print 'centersAngle', centersAngle
## print 'tangentsAngle', tangentsAngle
# print 'anglesDiff', anglesDiff
if abs(anglesDiff) < OVAL_TO_OVAL_TANGENT_PRECISION_RADIANS:
result = TFSMap()
result.p0 = p0
result.p1 = p1
result.angle = tangentAngle
return result
if anglesDiff > 0:
maxAngle = tangentAngle
else:
minAngle = tangentAngle
raise Exception('Did not converge')
def controlPointsWithSides(_left, _right, _top, _bottom):
result = TFSMap()
result.tl = TFSPoint(_left, _top)
result.bl = TFSPoint(_left, _bottom)
result.tr = TFSPoint(_right, _top)
result.br = TFSPoint(_right, _bottom)
result.tc = result.tl.midpoint(result.tr)
result.bc = result.bl.midpoint(result.br)
result.lc = result.tl.midpoint(result.bl)
result.rc = result.tr.midpoint(result.br)
result.left = _left
result.right = _right
result.top = _top
result.bottom = _bottom
return result
