def _convert_entity(self):
""" Calculates the rough border path for a single line text.
Calculation is based on a mono-spaced font and therefore the border
path is just an educated guess.
Vertical text generation and oblique angle is ignored.
"""
def get_text_rotation() -> float:
if alignment in ('FIT', 'ALIGNED') and not p1.isclose(p2):
return (p2 - p1).angle
else:
return math.degrees(text.dxf.rotation)
def get_insert() -> Vec3:
if alignment == 'LEFT':
return p1
elif alignment in ('FIT', 'ALIGNED'):
return p1.lerp(p2, factor=0.5)
else:
return p2
text = cast('Text', self.entity)
if text.dxftype() == 'ATTDEF':
# ATTDEF outside of a BLOCK renders the tag rather than the value
content = text.dxf.tag
else:
content = text.dxf.text
content = plain_text(content)
if len(content) == 0:
# empty path - does not render any vertices!
self._path = Path()
return
p1: Vec3 = text.dxf.insert
p2: Vec3 = text.dxf.align_point
font = fonts.make_font(get_font_name(text), text.dxf.height,
text.dxf.width)
text_line = TextLine(content, font)
alignment: str = text.get_align()
if text.dxf.halign > 2: # ALIGNED=3, MIDDLE=4, FIT=5
text_line.stretch(alignment, p1, p2)
halign, valign = unified_alignment(text)
corner_vertices = text_line.corner_vertices(get_insert(),
halign, valign,
get_text_rotation())
ocs = text.ocs()
self._path = Path.from_vertices(
ocs.points_to_wcs(corner_vertices),
close=True,
)
def get_shift_factors():
halign, valign = unified_alignment(mtext)
shift_x = 0
shift_y = 0
if halign == const.CENTER:
shift_x = -0.5
elif halign == const.RIGHT:
shift_x = -1.0
if valign == const.MIDDLE:
shift_y = 0.5
elif valign == const.BOTTOM:
shift_y = 1.0
return shift_x, shift_y
def _convert_entity(self):
"""Calculates the rough border path for a single line text.
Calculation is based on a mono-spaced font and therefore the border
path is just an educated guess.
Vertical text generation and oblique angle is ignored.
"""
def text_rotation():
if fit_or_aligned and not p1.isclose(p2):
return (p2 - p1).angle
else:
return math.radians(text.dxf.rotation)
def location():
if fit_or_aligned:
return p1.lerp(p2, factor=0.5)
return p1
text = cast("Text", self.entity)
if text.dxftype() == "ATTDEF":
# ATTDEF outside of a BLOCK renders the tag rather than the value
content = text.dxf.tag
else:
content = text.dxf.text
content = plain_text(content)
if len(content) == 0:
# empty path - does not render any vertices!
self._path = Path()
return
font = fonts.make_font(get_font_name(text), text.dxf.height,
text.dxf.width)
text_line = TextLine(content, font)
alignment, p1, p2 = text.get_placement()
if p2 is None:
p2 = p1
fit_or_aligned = (alignment == TextEntityAlignment.FIT
or alignment == TextEntityAlignment.ALIGNED)
if text.dxf.halign > 2: # ALIGNED=3, MIDDLE=4, FIT=5
text_line.stretch(alignment, p1, p2)
halign, valign = unified_alignment(text)
mirror_x = -1 if text.is_backward else 1
mirror_y = -1 if text.is_upside_down else 1
oblique: float = math.radians(text.dxf.oblique)
corner_vertices = text_line.corner_vertices(
location(),
halign,
valign,
angle=text_rotation(),
scale=(mirror_x, mirror_y),
oblique=oblique,
)
ocs = text.ocs()
self._path = from_vertices(
ocs.points_to_wcs(corner_vertices),
close=True,
)