def load_seqend(self, line = None, path_flag = None): if line is None: line = self.vertex_path if path_flag is None: path_flag = self.path_flag if path_flag > 1: print 'FIXMY. Curves and smooth surface type', path_flag close_path = path_flag & 1 == 1 path = CreatePath() if len(line): for i in line: x, y, bulge = i #print x, y, bulge path.AppendLine(self.trafo(x, y)) if close_path: if path.Node(0) != path.Node(-1): path.AppendLine(path.Node(0)) path.ClosePath() self.prop_stack.AddStyle(self.curstyle.Duplicate()) self.bezier(path,)
def Polygon(self): points = self.read_points(self.get_int16()) if points: path = CreatePath() map(path.AppendLine, points) if path.Node(-1) != path.Node(0): #print 'correct polygon' path.AppendLine(path.Node(0)) path.load_close() self.prop_stack.AddStyle(self.curstyle.Duplicate()) self.bezier((path,))
def PolyPolygon(self): nr_of_polygons = self.get_int16() nr_of_points = [] for i in range(nr_of_polygons): nr_of_points.append(self.get_int16()) path = () for i in nr_of_points: points = self.read_points(i) if points: subpath = CreatePath() map(subpath.AppendLine, points) if subpath.Node(-1) != subpath.Node(0): subpath.AppendLine(subpath.Node(0)) subpath.load_close() path = path + (subpath,) if path: self.prop_stack.AddStyle(self.curstyle.Duplicate()) self.bezier(path)
def create_star_path(corners, outer_radius, inner_radius):
outer_radius = unit.convert(outer_radius)
inner_radius = unit.convert(inner_radius)
path = CreatePath()
angle = math.pi * 2 / corners
for i in range(corners):
path.AppendLine(Polar(outer_radius, angle * i))
path.AppendLine(Polar(inner_radius, angle * i + angle / 2))
path.AppendLine(path.Node(0))
path.ClosePath()
return path
def POLYGONSET(self, size):
path = ()
subpath = CreatePath()
for i in range(size / (2 * reff.vdc.size + 2)):
P = self.Pnt()
F = self.Enum()
subpath.AppendLine(self.trafo(P))
if F in (2, 3):
if subpath.Node(-1) != subpath.Node(0):
subpath.AppendLine(subpath.Node(0))
subpath.load_close()
path = path + (subpath, )
subpath = CreatePath()
if subpath.len != 0:
if subpath.Node(-1) != subpath.Node(0):
subpath.AppendLine(subpath.Node(0))
subpath.load_close()
path = path + (subpath, )
self.setfillstyle()
self.bezier(path)
def polygon(self, attrs): if self.in_defs: return points = as_latin1(attrs['points']) points = string.translate(points, commatospace) points = split(points) path = CreatePath() point = self.point for i in range(0, len(points), 2): path.AppendLine(point(points[i], points[i + 1])) path.AppendLine(path.Node(0)) path.ClosePath() self.parse_attrs(attrs) self.set_loader_style() self.loader.bezier(paths = (path,))
def makePageFrame(self):
doc = self.doc
layout = doc.Layout()
hor_p = layout.Width()
ver_p = layout.Height()
path = CreatePath()
path.AppendLine(Point(0, 0))
path.AppendLine(Point(hor_p, 0))
path.AppendLine(Point(hor_p, ver_p))
path.AppendLine(Point(0, ver_p))
path.AppendLine(Point(0, 0))
path.AppendLine(path.Node(0))
path.ClosePath()
bezier = PolyBezier((path, ))
doc.Insert(bezier)
def create_star_path(corners, step, radius): # create a star-like polygon. center = Point(300, 400) radius = 100 angle = step * 2 * pi / corners # create an empty path and append the line segments path = CreatePath() for i in range(corners): p = Polar(radius, angle * i + pi / 2) path.AppendLine(p) # close the path. path.AppendLine(path.Node(0)) path.ClosePath() return path
def read_path(filename):
path = CreatePath()
paths = [path]
points = []
file = open(filename)
closed = 0
for line in file.readlines():
try:
key, rest = split(line, ':', 1)
except:
continue
if key == 'TYPE':
rest = lstrip(rest)
match = rx_point.match(rest)
if match is not None:
type = int(match.group('type'))
p = Point(float(match.group('x')), float(match.group('y')))
if type == BEZIER_MOVE:
if closed and points:
path.AppendBezier(points[0], points[1], path.Node(0))
path.ClosePath()
points = []
path = CreatePath()
paths.append(path)
path.AppendLine(p)
elif type == BEZIER_ANCHOR:
if path.len == 0:
path.AppendLine(p)
else:
if path.Node(-1) == points[0] and points[1] == p:
path.AppendLine(p)
else:
path.AppendBezier(points[0], points[1], p)
points = []
elif type == BEZIER_CONTROL:
points.append(p)
elif key == 'CLOSED':
closed = int(rest)
if closed and points:
if path.Node(-1) == points[0] and points[1] == path.Node(0):
path.AppendLine(path.Node(0))
else:
path.AppendBezier(points[0], points[1], path.Node(0))
path.ClosePath()
return tuple(paths)
def parse_path(self, str):
paths = self.paths
path = self.path
trafo = self.trafo
str = strip(string.translate(as_latin1(str), commatospace))
last_quad = None
last_cmd = cmd = None
f13 = 1.0 / 3.0; f23 = 2.0 / 3.0
#print '*', str
while 1:
match = rx_command.match(str)
#print match
if match:
last_cmd = cmd
cmd = str[0]
str = str[match.end():]
#print '*', str
points = match.group(1)
#print '**', points
if points:
# use tokenize_line to parse the arguments so that
# we deal with signed numbers following another
# number without intervening whitespace other
# characters properls.
# FIXME: tokenize_line works but is not the best way
# to do it because it accepts input that wouldn't be
# valid here.
points = filter(operator.isNumberType,
skread.tokenize_line(points))
#print cmd, points
if cmd in 'mM':
path = CreatePath()
paths.append(path)
if cmd == 'M' or len(paths) == 1:
path.AppendLine(trafo(points[0], points[1]))
else:
p = trafo.DTransform(points[0], points[1])
path.AppendLine(paths[-2].Node(-1) + p)
if len(points) > 2:
if cmd == 'm':
for i in range(2, len(points), 2):
p = trafo.DTransform(points[i], points[i + 1])
path.AppendLine(path.Node(-1) + p)
else:
for i in range(2, len(points), 2):
path.AppendLine(trafo(points[i], points[i+1]))
elif cmd == 'l':
for i in range(0, len(points), 2):
p = trafo.DTransform(points[i], points[i + 1])
path.AppendLine(path.Node(-1) + p)
elif cmd == 'L':
for i in range(0, len(points), 2):
path.AppendLine(trafo(points[i], points[i+1]))
elif cmd =='H':
for num in points:
path.AppendLine(Point(num, path.Node(-1).y))
elif cmd =='h':
for num in points:
x, y = path.Node(-1)
dx, dy = trafo.DTransform(num, 0)
path.AppendLine(Point(x + dx, y + dy))
elif cmd =='V':
for num in points:
path.AppendLine(Point(path.Node(-1).x, num))
elif cmd =='v':
for num in points:
x, y = path.Node(-1)
dx, dy = trafo.DTransform(0, num)
path.AppendLine(Point(x + dx, y + dy))
elif cmd == 'C':
if len(points) % 6 != 0:
self.loader.add_message("number of parameters of 'C'"\
"must be multiple of 6")
else:
for i in range(0, len(points), 6):
p1 = trafo(points[i], points[i + 1])
p2 = trafo(points[i + 2], points[i + 3])
p3 = trafo(points[i + 4], points[i + 5])
path.AppendBezier(p1, p2, p3)
elif cmd == 'c':
if len(points) % 6 != 0:
self.loader.add_message("number of parameters of 'c'"\
"must be multiple of 6")
else:
for i in range(0, len(points), 6):
p = path.Node(-1)
p1 = p + trafo.DTransform(points[i], points[i + 1])
p2 = p + trafo.DTransform(points[i+2], points[i+3])
p3 = p + trafo.DTransform(points[i+4], points[i+5])
path.AppendBezier(p1, p2, p3)
elif cmd == 'S':
if len(points) % 4 != 0:
self.loader.add_message("number of parameters of 'S'"\
"must be multiple of 4")
else:
for i in range(0, len(points), 4):
type, controls, p, cont = path.Segment(-1)
if type == Bezier:
q = controls[1]
else:
q = p
p1 = 2 * p - q
p2 = trafo(points[i], points[i + 1])
p3 = trafo(points[i + 2], points[i + 3])
path.AppendBezier(p1, p2, p3)
elif cmd == 's':
if len(points) % 4 != 0:
self.loader.add_message("number of parameters of 's'"\
"must be multiple of 4")
else:
for i in range(0, len(points), 4):
type, controls, p, cont = path.Segment(-1)
if type == Bezier:
q = controls[1]
else:
q = p
p1 = 2 * p - q
p2 = p + trafo.DTransform(points[i], points[i + 1])
p3 = p + trafo.DTransform(points[i+2], points[i+3])
path.AppendBezier(p1, p2, p3)
elif cmd == 'Q':
if len(points) % 4 != 0:
self.loader.add_message("number of parameters of 'Q'"\
"must be multiple of 4")
else:
for i in range(0, len(points), 4):
q = trafo(points[i], points[i + 1])
p3 = trafo(points[i + 2], points[i + 3])
p1 = f13 * path.Node(-1) + f23 * q
p2 = f13 * p3 + f23 * q
path.AppendBezier(p1, p2, p3)
last_quad = q
elif cmd == 'q':
if len(points) % 4 != 0:
self.loader.add_message("number of parameters of 'q'"\
"must be multiple of 4")
else:
for i in range(0, len(points), 4):
p = path.Node(-1)
q = p + trafo.DTransform(points[i], points[i + 1])
p3 = p + trafo.DTransform(points[i+2], points[i+3])
p1 = f13 * p + f23 * q
p2 = f13 * p3 + f23 * q
path.AppendBezier(p1, p2, p3)
last_quad = q
elif cmd == 'T':
if len(points) % 2 != 0:
self.loader.add_message("number of parameters of 'T'"\
"must be multiple of 4")
else:
if last_cmd not in 'QqTt' or last_quad is None:
last_quad = path.Node(-1)
for i in range(0, len(points), 2):
p = path.Node(-1)
q = 2 * p - last_quad
p3 = trafo(points[i], points[i + 1])
p1 = f13 * p + f23 * q
p2 = f13 * p3 + f23 * q
path.AppendBezier(p1, p2, p3)
last_quad = q
elif cmd == 't':
if len(points) % 2 != 0:
self.loader.add_message("number of parameters of 't'"\
"must be multiple of 4")
else:
if last_cmd not in 'QqTt' or last_quad is None:
last_quad = path.Node(-1)
for i in range(0, len(points), 2):
p = path.Node(-1)
q = 2 * p - last_quad
p3 = p + trafo.DTransform(points[i], points[i + 1])
p1 = f13 * p + f23 * q
p2 = f13 * p3 + f23 * q
path.AppendBezier(p1, p2, p3)
last_quad = q
elif cmd in 'zZ':
if round(path.Node(0).x, 3) != round(path.Node(-1).x, 3) or \
round(path.Node(0).y, 3) != round(path.Node(-1).y, 3):
path.AppendLine(path.Node(0))
path.ClosePath()
else:
break
self.path = path
def average_points(context):
# find a bezier polygon selected
selection = []
for object in context.document.SelectedObjects():
if not object.is_Bezier:
continue
selection.append(object)
if len(selection) != 1:
context.application.MessageBox(title="Average Points",
message="Select one polygon.")
return None
# count selected points
object = selection[0]
object_paths = object.Paths()
npoints = 0
for path in object_paths:
for i in range(path.len):
if path.SegmentSelected(i):
npoints = npoints + 1
if npoints == 0:
context.application.MessageBox(title="Average Points",
message="Select two or more points.")
return None
# inquiry parameters
which = AverageDialog(context.application.root).RunDialog()
if which is None:
return None
# compute average coordinates of the selected points
ax = 0
ay = 0
modified_paths = []
for path in object_paths:
modified_paths.append([])
for i in range(path.len):
type, controls, point, cont = path.Segment(i)
modified_paths[-1].append([type, list(controls), point, cont])
if path.SegmentSelected(i):
ax = ax + point.x
ay = ay + point.y
ax = float(ax) / npoints
ay = float(ay) / npoints
# translate the selected points
for i in range(len(object_paths)):
path = object_paths[i]
new_path = modified_paths[i]
for j in range(path.len):
if path.SegmentSelected(j):
point = new_path[j][2]
if which == AVERAGE_X:
new_point = Point(ax, point.y)
elif which == AVERAGE_Y:
new_point = Point(point.x, ay)
else:
new_point = Point(ax, ay)
new_path[j][2] = new_point
offset = point - new_point
if len(new_path[j][1]) == 2:
new_path[j][1][1] = new_path[j][1][1] - offset
if j < path.len - 1 and len(new_path[j + 1][1]) == 2:
new_path[j + 1][1][0] = new_path[j + 1][1][0] - offset
# create new paths
new_paths = []
for i in range(len(object_paths)):
path = object_paths[i]
new_path = CreatePath()
for type, controls, point, cont in modified_paths[i]:
new_path.AppendSegment(type, tuple(controls), point, cont)
if path.closed:
new_path.AppendLine(new_path.Node(0))
new_path.ClosePath()
new_paths.append(new_path)
# set the new paths
undo = object.SetPaths(new_paths)
# return Undo info
return undo
def read_spline(self, line):
readline = self.readline; tokenize = skread.tokenize_line
args = tokenize(line)
if len(args) != 13:
raise SketchLoadError('Invalid Spline specification')
sub_type, line_style, thickness, pen_color, fill_color, depth, \
pen_style, area_fill, style, cap, \
forward_arrow, backward_arrow, npoints = args
closed = sub_type & 1
if forward_arrow: readline()
if backward_arrow:readline()
# in 3.2 all splines are stored as x-splines...
if self.format_version == 3.2:
if sub_type in (0, 2):
sub_type = 4
else:
sub_type = 5
self.fill(fill_color, area_fill)
self.line(pen_color, thickness, 0, cap, line_style, style)
ncoords = npoints * 2
pts = self.read_tokens(ncoords)
if not pts:
raise SketchLoadError('Missing points for spline')
if len(pts) > ncoords:
del pts[ncoords:]
pts = coords_to_points(pts, self.trafo)
path = CreatePath()
if sub_type in (2, 3):
# interpolated spline, read 2 control points for each node
ncontrols = 4 * npoints
controls = self.read_tokens(ncontrols)
if not controls:
raise SketchLoadError('Missing control points for spline')
if len(controls) > ncontrols:
del controls[ncontrols:]
controls = coords_to_points(controls[2:-2], self.trafo)
path.AppendLine(pts[0])
ncontrols = 2 * (npoints - 1)
controls = [controls] * (npoints - 1)
map(path.AppendBezier,
map(getitem, controls, range(0, ncontrols, 2)),
map(getitem, controls, range(1, ncontrols, 2)),
pts[1:])
elif sub_type in (0, 1):
# approximated spline
f13 = 1.0 / 3.0; f23 = 2.0 / 3.0
curve = path.AppendBezier
straight = path.AppendLine
last = pts[0]
cur = pts[1]
start = node = (last + cur) / 2
if closed:
straight(node)
else:
straight(last)
straight(node)
last = cur
for cur in pts[2:]:
c1 = f13 * node + f23 * last
node = (last + cur) / 2
c2 = f13 * node + f23 * last
curve(c1, c2, node)
last = cur
if closed:
curve(f13 * node + f23 * last, f13 * start + f23 * last, start)
else:
straight(last)
elif sub_type in (4, 5):
# An X-spline. Treat it like a polyline for now.
# read and discard the control info
self.read_tokens(npoints)
self.add_message(_("X-Spline treated as PolyLine"))
map(path.AppendLine, pts)
if closed:
path.AppendLine(path.Node(0))
if closed:
path.load_close(1)
self.bezier(paths = path)
self.set_depth(depth)
def loda_coords(self, chunk, type, offset, version, trafo):
if type == 1: # rectangle
CoordX1 = 0
CoordY1 = 0
[CoordX2] = struct.unpack('<L', chunk.data[offset:offset + 4])
[CoordY2] = struct.unpack('<L', chunk.data[offset + 4:offset + 8])
if CoordX2 > 0x7FFFFFFF:
CoordX2 = CoordX2 - 0x100000000
if CoordY2 > 0x7FFFFFFF:
CoordY2 = CoordY2 - 0x100000000
CoordX1, CoordY1 = trafo(CoordX1, CoordY1)
CoordX2, CoordY2 = trafo(CoordX2, CoordY2)
path = CreatePath()
path.AppendLine(Point(CoordX1 * self.scale, CoordY1 * self.scale))
path.AppendLine(Point(CoordX2 * self.scale, CoordY1 * self.scale))
path.AppendLine(Point(CoordX2 * self.scale, CoordY2 * self.scale))
path.AppendLine(Point(CoordX1 * self.scale, CoordY2 * self.scale))
path.AppendLine(Point(CoordX1 * self.scale, CoordY1 * self.scale))
path.AppendLine(path.Node(0))
path.ClosePath()
self.current_paths.append(path)
if type == 3: # line and curve
[pointnum] = struct.unpack('<L', chunk.data[offset:offset + 4])
path = None
point1 = None
point2 = None
cont = ContSymmetrical
for i in range(pointnum):
[CoordX] = struct.unpack(
'<L', chunk.data[offset + 4 + i * 8:offset + 8 + i * 8])
[CoordY] = struct.unpack(
'<L', chunk.data[offset + 8 + i * 8:offset + 12 + i * 8])
if CoordX > 0x7FFFFFFF:
CoordX = CoordX - 0x100000000
if CoordY > 0x7FFFFFFF:
CoordY = CoordY - 0x100000000
CoordX, CoordY = trafo(CoordX, CoordY)
Type = ord(chunk.data[offset + 4 + pointnum * 8 + i])
if Type & 2 == 2:
pass
if Type & 4 == 4:
pass
if Type & 0x10 == 0 and Type & 0x20 == 0:
cont = ContAngle
if Type & 0x10 == 0x10:
cont = ContSmooth
if Type & 0x20 == 0x20:
cont = ContSymmetrical
if Type & 0x40 == 0 and Type & 0x80 == 0:
if path:
self.current_paths.append(path)
path = CreatePath()
path.AppendLine(
Point(CoordX * self.scale, CoordY * self.scale))
point1 = None
point2 = None
if Type & 0x40 == 0x40 and Type & 0x80 == 0:
if path:
path.AppendLine(
Point(CoordX * self.scale, CoordY * self.scale))
point1 = None
point2 = None
if Type & 0x40 == 0 and Type & 0x80 == 0x80:
path.AppendBezier(
point1, point2,
Point(CoordX * self.scale, CoordY * self.scale), cont)
point1 = None
point2 = None
if Type & 0x40 == 0x40 and Type & 0x80 == 0x80:
if point1:
point2 = Point(CoordX * self.scale,
CoordY * self.scale)
else:
point1 = Point(CoordX * self.scale,
CoordY * self.scale)
if Type & 8 == 8:
if path:
path.ClosePath()
if path:
self.current_paths.append(path)
if type == 5: # bitmap
bmp_color_models = ('Invalid', 'Pal1', 'CMYK255', 'RGB', 'Gray',
'Mono', 'Pal6', 'Pal7', 'Pal8')
bmp_clrmode = ord(chunk.data[offset + 0x30])
clrdepth = ord(chunk.data[offset + 0x22])
[width] = struct.unpack('<L',
chunk.data[offset + 0x24:offset + 0x28])
[height] = struct.unpack('<L',
chunk.data[offset + 0x28:offset + 0x2c])
[idx1] = struct.unpack('<L',
chunk.data[offset + 0x2c:offset + 0x30])
numbmp = ord(chunk.data[offset + 0x30])
[idx2] = struct.unpack('<L',
chunk.data[offset + 0x34:offset + 0x38])
[idx3] = struct.unpack('<L',
chunk.data[offset + 0x38:offset + 0x3c])
self.extract_bmp(numbmp, width, height)
class AILoader(GenericLoader):
format_name = format_name
functions = {
"C": 'curveto',
"c": 'curveto_smooth',
"V": 'curveto_v',
"v": 'curveto_v_smooth',
"Y": 'curveto_y',
"y": 'curveto_y_smooth',
"m": 'moveto',
"l": 'lineto',
"L": 'lineto',
"w": 'set_line_width',
"j": 'set_line_join',
"J": 'set_line_cap',
"d": 'set_line_dash',
"G": 'set_line_gray',
"K": 'set_line_cmyk',
"XA": 'set_line_rgb',
"X": 'set_line_cmyk_custom',
"XX": 'set_line_generic_custom',
"P": 'set_line_pattern',
"g": 'set_fill_gray',
"k": 'set_fill_cmyk',
"cmyk": 'set_fill_cmyk',
"Xa": 'set_fill_rgb',
"rgb": 'set_fill_rgb',
"x": 'set_fill_cmyk_custom',
"Xx": 'set_fill_generic_custom',
"p": 'set_fill_pattern',
"F": 'fill',
"f": 'fill_close',
"S": 'stroke',
"s": 'stroke_close',
"B": 'fill_stroke',
"b": 'fill_stroke_close',
"closepath": 'fill_stroke_close',
"N": 'invisible', # an invisible open path
"n": 'invisible_close', # a invisible closed path
"u": 'begin_group',
"U": 'end_group',
"*u": 'begin_compound_path',
"newpath": 'begin_compound_path',
"*U": 'end_compound_path',
"gsave": 'end_compound_path',
"*": 'guide',
"[": 'mark',
"]": 'make_array',
"@": 'ignore_operator',
"&": 'ignore_operator',
"Bd": 'begin_gradient',
"Bs": 'gradient_stop',
"BS": 'dummy_gradient_stop',
"Br": 'gradient_ramps',
"BD": 'end_gradient',
"Bb": 'begin_gradient_instance',
"Bg": 'gradient_geometry',
"BB": 'end_gradient_instance',
"Lb": 'begin_ai_layer',
"Ln": 'name_layer',
"LB": 'end_ai_layer',
"Pb": 'begin_palette',
"PB": 'end_palette',
"TE": 'set_standard_encoding',
"TZ": 'reencode_font',
"To": 'begin_text',
"TO": 'end_text',
"Tr": 'set_text_render',
"Tf": 'set_text_font',
"Ta": 'set_text_align',
"Tp": 'begin_text_path',
"TP": 'end_text_path',
"Tx": 'render_text',
"TX": 'render_text_inv',
"XI": 'raster_image',
}
def __init__(self,
file,
filename,
match,
treat_toplevel_groups_as_layers=1,
flatten_groups=1):
GenericLoader.__init__(self, file, filename, match)
self.line_color = StandardColors.black
self.fill_color = StandardColors.black
self.line_width = 0.0
self.line_join = const.JoinMiter
self.line_cap = const.CapButt
self.line_dashes = ()
self.cur_x = self.cur_y = 0.0
self.treat_toplevel_groups_as_layers = treat_toplevel_groups_as_layers
self.flatten_groups = flatten_groups
self.guess_continuity = 1
self.path = CreatePath()
self.compound_path = None # If compound_path is None, we're
# outside of a compound path,
# otherwise it's a possibly empty list
# of paths
self.compound_render = ''
self.stack = []
self.gradients = {}
self.in_gradient_instance = 0
self.gradient_geo = None # set to a true value after Bg, and set
# to false by make_gradient_pattern
self.gradient_rect = None
self.in_palette = 0
self.in_text = 0
self.ignore_fill = 0
self.text_type = 0 # 0: point text, 1: area text, 2 = path text
self.text_render = 0 # filled
self.text_font = None
self.text_size = 12
# Test alignment. Possible values: 0: left, 1: center, 2:right,
# 3: justified, 4: justified including last line
self.text_align = 0
self.text_string = []
self.standard_encoding = encoding.adobe_standard
self.font_map = {}
self.guides = []
self.format_version = 0.0
def __del__(self):
pass
def warn(self, level, *args, **kw):
message = apply(warn, (level, ) + args, kw)
self.add_message(message)
def get_compiled(self):
funclist = {}
for char, name in self.functions.items():
method = getattr(self, name)
argc = method.im_func.func_code.co_argcount - 1
funclist[char] = (method, argc)
return funclist
def pop(self):
value = self.stack[-1]
del self.stack[-1]
return value
def pop_multi(self, num):
value = self.stack[-num:]
del self.stack[-num:]
return value
def pop_to_mark(self):
s = self.stack[:]
s.reverse()
try:
idx = s.index(None)
if idx:
array = self.stack[-idx:]
del self.stack[-idx - 1:]
else:
array = []
del self.stack[-1]
return array
except:
raise RuntimeError, 'No mark on stack'
def ignore_operator(self):
pass
def mark(self):
self.stack.append(None)
def make_array(self):
array = self.pop_to_mark()
self.stack.append(array)
def convert_color(self, color_spec):
c = apply(CreateRGBColor, color_spec)
return c
def set_line_join(self, join):
self.line_join = _ai_join[join]
def set_line_cap(self, cap):
self.line_cap = _ai_cap[cap]
def set_line_width(self, w):
self.line_width = w
def set_line_dash(self, array, phase):
self.line_dashes = tuple(array)
def set_line_gray(self, k):
self.line_color = CreateRGBColor(k, k, k)
def set_line_cmyk(self, c, m, y, k):
self.line_color = CreateCMYKColor(c, m, y, k)
def set_line_rgb(self, r, g, b):
self.line_color = CreateRGBColor(r, g, b)
def set_line_cmyk_custom(self, c, m, y, k, name, tint):
self.line_color = cmyk_custom_color(c, m, y, k, tint)
def set_line_generic_custom(self, name, tint, type):
if type == 0:
# cmyk
c, m, y, k = self.pop_multi(4)
self.line_color = cmyk_custom_color(c, m, y, k, tint)
else:
# rgb
r, g, b = self.pop_multi(3)
self.line_color = rgb_custom_color(r, g, b, tint)
def set_line_pattern(self, name, px, py, sx, sy, angle, rf, r, k, ka,
matrix):
if not self.in_palette:
self.add_message(_("Vector patterns not supported. Using black"))
self.line_color = StandardColors.black
def set_fill_gray(self, k):
self.fill_color = CreateRGBColor(k, k, k)
def set_fill_cmyk(self, c, m, y, k):
self.fill_color = CreateCMYKColor(c, m, y, k)
def set_fill_rgb(self, r, g, b):
self.fill_color = CreateRGBColor(r, g, b)
def set_fill_cmyk_custom(self, c, m, y, k, name, tint):
self.fill_color = cmyk_custom_color(c, m, y, k, tint)
def set_fill_generic_custom(self, name, tint, type):
if type == 0:
# cmyk
c, m, y, k = self.pop_multi(4)
self.fill_color = cmyk_custom_color(c, m, y, k, tint)
else:
# rgb
r, g, b = self.pop_multi(3)
self.fill_color = rgb_custom_color(r, g, b, tint)
def set_fill_pattern(self, name, px, py, sx, sy, angle, rf, r, k, ka,
matrix):
if not self.in_palette:
self.add_message(_("Vector patterns not supported. Using black"))
self.fill_color = StandardColors.black
def ls(self):
style = self.style
style.line_pattern = SolidPattern(self.line_color)
style.line_width = self.line_width
style.line_join = self.line_join
style.line_cap = self.line_cap
style.line_dashes = self.line_dashes
def lsnone(self):
self.style.line_pattern = EmptyPattern
def fs(self):
if self.gradient_geo:
pattern = self.make_gradient_pattern()
else:
pattern = SolidPattern(self.fill_color)
self.style.fill_pattern = pattern
def fsnone(self):
self.style.fill_pattern = EmptyPattern
def stroke(self):
if self.compound_path is not None:
self.compound_render = 'stroke'
else:
self.ls()
self.fsnone()
self.bezier()
def stroke_close(self):
self.bezier_close()
self.stroke()
def fill(self):
if self.ignore_fill:
return
if self.compound_path is not None:
self.compound_render = 'fill'
else:
self.lsnone()
self.fs()
self.bezier()
def fill_close(self):
self.bezier_close()
self.fill()
def fill_stroke(self):
if self.compound_path is not None:
self.compound_render = 'fill_stroke'
else:
self.ls()
self.fs()
self.bezier()
def fill_stroke_close(self):
self.bezier_close()
self.fill_stroke()
def invisible(self):
if self.compound_path is not None:
self.compound_render = 'invisible'
else:
self.lsnone()
self.fsnone()
self.bezier()
def invisible_close(self):
self.bezier_close()
self.invisible()
# Gradient functions
def begin_gradient(self, name, type, ncolors):
self.gradient_info = name, type, ncolors
def gradient_stop(self, color_style, mid_point, ramp_point):
if color_style == 0:
# gray scale
k = self.pop()
color = CreateRGBColor(k, k, k)
elif color_style == 1:
# CMYK
color = apply(CreateCMYKColor, tuple(self.pop_multi(4)))
elif color_style == 2:
# RGB Color
args = tuple(self.pop_multi(7))
# The cmyk and rgb values usually differ slightly because AI
# does some color correction. Which values should we choose
# here?
color = apply(CreateRGBColor, args[-3:])
color = apply(CreateCMYKColor, args[:4])
elif color_style == 3:
# CMYK Custom Color
args = self.pop_multi(6)
color = apply(CreateCMYKColor, tuple(args[:4]))
else:
self.add_message(
_("Gradient ColorStyle %d not yet supported."
"substituted black") % color_style)
if color_style == 4:
n = 10
else:
self.add_message(_("Unknown ColorStyle %d") % color_style)
self.pop_multi(n)
color = StandardColors.black # XXX
#color = apply(CreateRGBColor, color)
self.stack.append((ramp_point / 100.0, color))
def dummy_gradient_stop(self, color_style, mid_point, ramp_point):
# same as gradient_stop but ignore all arguments. Illustrator 8
# seems to introduce this one for printing (i.e. Illustrator 8
# files with printing info contain the gradient stops *twice* in
# exactly the same format but once with the Bs operator and once
# with BS. I guess this has something to do with support for
# PostScript Level 3 and backwards compatibility with older
# Illustrator versions.
if color_style == 0:
# gray scale
k = self.pop()
elif color_style == 1:
# CMYK
self.pop_multi(4)
elif color_style == 2:
# RGB Color
self.pop_multi(7)
elif color_style == 3:
# CMYK Custom Color
self.pop_multi(6)
elif color_style == 4:
self.pop_multi(10)
else:
self.add_message(_("Unknown ColorStyle %d") % color_style)
def gradient_ramps(self, ramp_type):
# defines the ramp colors with a bunch of strings for printing.
# Here we just pop all the strings off the stack
num = (1, 4, 5, 6, 7, 8, 9)[ramp_type]
self.pop_multi(num)
def end_gradient(self):
self.make_array()
array = self.pop()
if len(array) < 2:
self.add_message(_("less than two color stops in gradient"))
else:
# sometimes the ramp_point values are increasing, sometimes
# decreasing... what's going on here? The docs say they are
# increasing.
if array[0][0] > array[-1][0]:
array.reverse()
name, type, ncolors = self.gradient_info
self.gradients[name] = (type, array)
del self.stack[:]
#self.pop_to_mark()
def begin_gradient_instance(self):
self.in_gradient_instance = 1
self.ignore_fill = 1
def gradient_geometry(self, flag, name, xorig, yorig, angle, length, a, b,
c, d, tx, ty):
trafo = Trafo(a, b, c, d, tx, ty)
trafo = artboard_trafo_inv(trafo(artboard_trafo))
start = Point(xorig, yorig)
end = start + Polar(length, (pi * angle) / 180.0)
self.gradient_geo = (name, trafo, start, end)
def make_gradient_pattern(self):
name, trafo, start, end = self.gradient_geo
self.gradient_geo = None
type, array = self.gradients[name]
array = array[:]
if type == 0:
# linear (axial) gradient
origdir = end - start
start = trafo(start)
end = trafo(end)
dir = end - start
try:
# adjust endpoint to accomodate trafo
v = trafo.DTransform(origdir.y, -origdir.x).normalized()
v = Point(v.y, -v.x) # rotate 90 degrees
end = start + (v * dir) * v
dir = end - start
except ZeroDivisionError:
pass
trafo2 = Trafo(dir.x, dir.y, dir.y, -dir.x, start.x, start.y)
trafo2 = trafo2.inverse()
left, bottom, right, top = trafo2(self.current_bounding_rect())
if right > left:
factor = 1 / (right - left)
offset = -left * factor
else:
factor = 1
offset = 0
array = fix_gradient(array, factor, offset)
pattern = LinearGradient(MultiGradient(array),
(start - end).normalized())
elif type == 1:
# radial gradient
start = trafo(start)
end = trafo(end)
left, bottom, right, top = self.current_bounding_rect()
if left == right or top == bottom:
# an empty coord_rect????
center = Point(0, 0)
else:
center = Point((start.x - left) / (right - left),
(start.y - bottom) / (top - bottom))
radius = max(hypot(left - start.x, top - start.y),
hypot(right - start.x, top - start.y),
hypot(right - start.x, bottom - start.y),
hypot(left - start.x, bottom - start.y))
if radius:
factor = -abs(start - end) / radius
array = fix_gradient(array, factor, 1)
pattern = RadialGradient(MultiGradient(array), center)
else:
self.add_message(_("Unknown gradient type %d"), type)
pattern = EmptyPattern
return pattern
def current_bounding_rect(self):
if self.gradient_rect is not None:
rect = self.gradient_rect
else:
rect = self.path.accurate_rect()
if not self.style.line_pattern.is_Empty:
rect = fix_bounding_rect(rect, self.style)
return rect
def end_gradient_instance(self, flag):
self.ignore_fill = 0
if flag == 2:
self.fill_stroke_close()
elif flag == 1:
self.fill_stroke()
else:
self.fill()
self.in_gradient_instance = 0
# Path construction
def moveto(self, x, y):
self.cur_x = x
self.cur_y = y
self.path.AppendLine(x, y)
def lineto(self, x, y):
self.cur_x = x
self.cur_y = y
self.path.AppendLine(x, y)
def curveto(self, x1, y1, x2, y2, x3, y3):
self.path.AppendBezier(x1, y1, x2, y2, x3, y3)
self.cur_x = x3
self.cur_y = y3
def curveto_smooth(self, x1, y1, x2, y2, x3, y3):
self.path.AppendBezier(x1, y1, x2, y2, x3, y3, ContSmooth)
self.cur_x = x3
self.cur_y = y3
def curveto_v(self, x2, y2, x3, y3):
# current point and first control point are identical
self.path.AppendBezier(self.cur_x, self.cur_y, x2, y2, x3, y3)
self.cur_x = x3
self.cur_y = y3
def curveto_v_smooth(self, x2, y2, x3, y3):
# current point and first control point are identical
self.path.AppendBezier(self.cur_x, self.cur_y, x2, y2, x3, y3,
ContSmooth)
self.cur_x = x3
self.cur_y = y3
def curveto_y(self, x1, y1, x3, y3):
# endpoint and last controlpoint are identical
self.path.AppendBezier(x1, y1, x3, y3, x3, y3)
self.cur_x = x3
self.cur_y = y3
def curveto_y_smooth(self, x1, y1, x3, y3):
# endpoint and last controlpoint are identical
self.path.AppendBezier(x1, y1, x3, y3, x3, y3, ContSmooth)
self.cur_x = x3
self.cur_y = y3
def bezier_close(self):
if self.path.len > 1:
self.path.AppendLine(self.path.Node(0))
self.path.load_close(1)
def bezier(self):
if self.guess_continuity:
self.path.guess_continuity()
if self.path.len > 0:
if self.compound_path is not None:
self.compound_path.append(self.path)
else:
GenericLoader.bezier(self, paths=(self.path, ))
self.path = CreatePath()
# compound paths
def begin_compound_path(self):
self.compound_path = []
def end_compound_path(self):
paths = tuple(self.compound_path)
self.compound_path = None
if paths:
# XXX ugly
if self.gradient_geo:
rect = paths[0].accurate_rect()
for path in paths[1:]:
rect = UnionRects(rect, path.accurate_rect())
self.gradient_rect = rect
else:
self.gradient_rect = None
getattr(self, self.compound_render)()
GenericLoader.bezier(self, paths=paths)
# Groups
def begin_group(self):
if self.compound_path is None:
# a normal group
if self.treat_toplevel_groups_as_layers:
if self.composite_class == Document:
self.begin_layer()
return
GenericLoader.begin_group(self)
else:
# a `compound group'. Ignored since Sketch doesn't have this.
pass
def end_group(self):
if self.compound_path is None:
# a normal group
if self.composite_class == Layer:
self.end_composite()
else:
try:
GenericLoader.end_group(self)
if self.flatten_groups:
if self.object.NumObjects() == 1:
obj = self.object.GetObjects()[0]
del self.composite_items[-1]
self.append_object(obj)
except EmptyCompositeError:
pass
else:
# a `compound group'. Ignored since Sketch doesn't have this.
pass
# Layers
def begin_layer(self):
self.layer(_("Layer %d") % (len(self.composite_items) + 1))
def begin_ai_layer(self):
if self.format_version >= 4.0:
visible, preview, enabled, printing, dimmed, unused, has_mlm,\
color, red, green, blue, unused, unused = self.pop_multi(13)
else:
visible, preview, enabled, printing, dimmed, has_mlm, \
color, red, green, blue = self.pop_multi(10)
color = CreateRGBColor(red / 255.0, green / 255.0, blue / 255.0)
self.layer_kw_args = {
'printable': printing,
'visible': visible,
'locked': not enabled,
'outline_color': color
}
def end_ai_layer(self):
self.end_layer()
def name_layer(self, name):
apply(self.layer, (name, ), self.layer_kw_args)
# Guides
def guide(self, op):
#print 'guide', op
method = getattr(self, self.functions[op])
method()
guide = self.pop_last()
self.guides.append(guide)
# Palette
def begin_palette(self):
self.in_palette = 1
def end_palette(self):
self.in_palette = 0
# Text
def set_standard_encoding(self):
encoding = list(self.standard_encoding)
pos = 0
defs = self.pop_to_mark()
for item in defs:
if type(item) == IntType:
pos = item
elif type(item) == StringType:
encoding[pos] = item
pos = pos + 1
else:
self.add_message('unknown item %s in encoding' % ` item `)
self.standard_encoding = tuple(encoding)
def define_font(self, psname, newname, encoding=None):
if encoding is None:
encoding = self.standard_encoding[:]
self.font_map[newname] = FontInfo(psname, newname, encoding)
def reencode_font(self):
args = self.pop_to_mark()
if type(args[-1]) == ListType:
self.add_message(
_("Multiple Master fonts not supported. "
"Using Times Roman"))
newname = args[-6]
self.define_font('Times Roman', newname)
else:
newname, psname, direction, script, usedefault = args[-5:]
if len(args) > 5:
self.add_message(_("Additional encoding ignored"))
self.define_font(psname, newname)
def begin_text(self, text_type):
self.in_text = 1
self.text_type = text_type
self.text_string = []
if text_type == 1:
self.add_message(_("Area text not supported"))
if text_type == 2:
GenericLoader.begin_group(self)
def end_text(self):
# we don't support area text (text_type 1) at all. Return
# immediately in that case.
if self.text_type == 1:
return
# first, turn the text accumulated in the list text_string into
# a single string and unify line endings to newline characters.
text = string.join(self.text_string, '')
text = string.replace(text, '\r\n', '\n')
text = string.replace(text, '\r', '\n')
# remove a trailing newline. Many Illustrator files contain a
# trailing newline as 'overflow' text, there's probably a better
# way to deal with this...
if text[-1:] == "\n":
text = text[:-1]
# Re-encode to Latin1
text = self.text_font.Reencode(text)
if not string.strip(text):
if self.text_type == 2:
self.end_composite()
del self.composite_items[-1]
if len(self.composite_items) > 0:
self.object = self.composite_items[-1]
return
# first create a simple text object
self.fs()
self.style.font = GetFont(self.text_font.psname)
self.style.font_size = self.text_size
self.simple_text(text,
self.text_trafo,
halign=_ai_text_align[self.text_align])
# if we're actually supposed to create a path-text object, turn
# the text object just created into a path-text object
if self.text_type == 2:
GenericLoader.end_group(self)
group = self.pop_last()
objects = group.GetObjects()
if len(objects) == 2:
path, text = objects
self.append_object(
PathText(text, path, start_pos=self.text_start_pos))
#self.composite_items[-1] = self.object
# we've finished the text object
self.in_text = 0
def set_text_render(self, render):
self.text_render = render
def set_text_align(self, align):
self.text_align = align
def set_text_font(self):
# In Illustrator < 7, the operator has two arguments, new
# fontname and size. In Illustrator >= 7, there are two
# additional arguments, ascent and descent.
args = self.pop_multi(2)
if type(args[0]) != StringType:
newname, size = self.pop_multi(2)
else:
newname, size = args
if self.font_map.has_key(newname):
self.text_font = self.font_map[newname]
elif newname[0] == '_':
# special case for ai files generated by ps2ai. They don't
# use the TZ operator to reencode the fonts and define the _
# names.
self.define_font(newname[1:], newname)
self.text_font = self.font_map[newname]
else:
self.add_message(_("No font %s.") % newname)
self.text_size = size
def begin_text_path(self, a, b, c, d, tx, ty, start_pos):
self.text_trafo = Trafo(a, b, c, d, tx, ty)
self.text_start_pos = start_pos
def end_text_path(self):
pass
def render_text(self, text):
if self.text_type != 2:
# in a path text only the invisible render operators count
self.text_string.append(text)
def render_text_inv(self, text):
self.text_string.append(text)
# Raster Image
def raster_image(self, trafo, llx, lly, urx, ury, width, height, bits,
mode, alpha, reserved, encoding, mask):
if bits != 8 or mode not in (1, 3):
self.add_message(
_("Only images with 1 or 3 components "
"and 8 bits/component supported"))
self.skip_to_dsc("AI5_EndRaster")
return
decode = streamfilter.SubFileDecode(self.tokenizer.source,
'%AI5_EndRaster')
if encoding == 0:
decode = streamfilter.HexDecode(decode)
data_length = mode * width * height
data = decode.read(data_length)
#f = open("/tmp/dump.ppm", "w")
#if mode == 1:
# f.write("P5\n%d %d\n255\n" % (width, height))
#else:
# f.write("P6\n%d %d\n255\n" % (width, height))
#f.write(data)
#f.close()
if mode == 1:
mode = 'L'
elif mode == 3:
mode = 'RGB'
elif mode == 4:
mode == 'CMYK'
image = Image.fromstring(mode, (width, height), data, 'raw', mode)
self.image(image, apply(Trafo, tuple(trafo)))
#
def append_object(self, object):
if self.composite_class == Document \
and object.__class__ != Layer:
self.begin_layer()
self.composite_items.append(object)
self.object = object
#
#
def skip_to_dsc(self, *endcomments):
next_dsc = self.tokenizer.next_dsc
split = string.split
while 1:
value = next_dsc()
if not value:
return
if ':' in value:
keyword, value = split(value, ':', 1)
else:
keyword = value
if keyword in endcomments:
return
def read_prolog(self):
next = self.tokenizer.next
DSC = DSC_COMMENT
split = string.split
while 1:
token, value = next()
if token == DSC:
if ':' in value:
keyword, value = split(value, ':', 1)
else:
keyword = value
if keyword in ('EndProlog', 'BeginSetup'):
return keyword
if keyword[:14] == "AI5_FileFormat":
self.format_version = string.atof(keyword[14:])
elif keyword == 'BeginProcSet':
# some ai files exported by corel draw don't have an
# EndProcSet comment after a BeginProcSet...
self.skip_to_dsc('EndProcSet', 'EndProlog')
elif keyword == 'BeginResource':
self.skip_to_dsc('EndResource', 'EndProlog')
#elif keyword == 'Creator':
## try to determine whether the file really is an
## illustrator file as opposed to some other EPS
## file. It seems that Illustrator itself only
## accepts EPS files as illustrator files if they
## contain "Adobe Illustrator" in their Create
## DSC-comment
#if string.find(value, "Adobe Illustrator") == -1:
#self.add_message("This is probably not an"
#" Illustrator file."
#" Try embedding it as EPS")
if token == END:
return
def Load(self):
# Begin read EPS Binary File Header
header = self.match.string[0:32]
if header[0] == chr(0xC5):
if len(header) < 32:
header += self.file.read(32 - len(header))
filetype, startPS, sizePS, startWMF, sizeWMF, \
startTIFF, sizeTIFF, Checksum = unpack(struct_eps_header, header)
self.file.seek(startPS)
# End read EPS Binary File Header
funclist = self.get_compiled()
# binding frequently used functions to local variables speeds up
# the process considerably...
a = apply
t = tuple
DSC = DSC_COMMENT
MAX = MAX_DATA_TOKEN
split = string.split
stack = self.stack
push = self.stack.append
unknown_operator = (None, None)
decoder = streamfilter.StringDecode(self.match.string, self.file)
self.tokenizer = PSTokenizer(decoder)
self.tokenizer.ai_pseudo_comments = 1
self.tokenizer.ai_dsc = 1
next = self.tokenizer.next
self.document()
value = self.read_prolog()
while 1:
token, value = next()
if token <= MAX:
push(value)
elif token == DSC:
if ':' in value:
keyword, value = split(value, ':', 1)
else:
keyword = value
if keyword in ('PageTrailer', 'Trailer'):
break
elif keyword == 'AI5_BeginPalette':
self.skip_to_dsc('AI5_EndPalette', 'EndSetup')
elif keyword == "AI8_BeginBrushPattern":
self.skip_to_dsc('AI8_EndBrushPattern', 'EndSetup')
elif token == END:
break
elif token == OPERATOR:
method, argc = funclist.get(value, unknown_operator)
#if method is not None:
# name = method.__name__
#else:
# name = `method`
if method is None:
del stack[:]
else:
try:
if argc:
args = t(stack[-argc:])
del stack[-argc:]
a(method, args)
else:
method()
except:
warn_tb(INTERNAL, 'AILoader: error')
self.end_all()
self.object.load_Completed()
for obj in self.guides:
self.object.guide_layer.Insert(obj, None)
return self.object
