def instantiate(self, values):
""" Return a core.layout.Primitive with a set of fixed shapes
given a dict mapping variable numbers to values, or None if there
is no corresponding shape. """
shape_type = self.shape_type
mods = [m.evaluate(values) for m in self.modifiers]
if shape_type == 'ignore':
return None
is_additive = True if shape_type in ('moire', 'thermal') \
else bool(mods[0])
rotation = 0 if shape_type in ('circle', 'moire', 'thermal') \
else mods[-1]/180
if shape_type == 'circle':
shape = Circle(x=mods[2], y=mods[3], radius=mods[1] / 2)
elif shape_type == 'line-vector':
shape, rotation = self._vector_to_rect(mods, rotation)
elif shape_type == 'line-center':
shape = Rectangle(x=mods[3] - mods[1] / 2,
y=mods[4] + mods[2] / 2,
width=mods[1],
height=mods[2])
elif shape_type == 'line-lower-left':
shape = Rectangle(x=mods[3],
y=mods[4] + mods[2],
width=mods[1],
height=mods[2])
elif shape_type == 'outline':
points = [
Point(mods[i], mods[i + 1])
for i in range(2, len(mods[:-1]), 2)
]
shape = Polygon(points)
elif shape_type == 'polygon':
shape = RegularPolygon(x=mods[2],
y=mods[3],
outer=mods[4],
vertices=mods[1])
elif shape_type == 'moire':
mods[8] = 2 - mods[8] / 180
shape = Moire(*mods[0:9])
elif shape_type == 'thermal':
mods[5] = 2 - mods[5] / 180
shape = Thermal(*mods[0:6])
return Primitive(is_additive, rotation, shape)
def _extract_ad(self, tok):
""" Extract aperture definition into shapes dict. """
tok = tok if ',' in tok else tok + ','
code_end = 4 if tok[3].isdigit() else 3
code = tok[1:code_end]
ap_type, mods = tok[code_end:].split(',')
if mods:
mods = [float(m) for m in mods.split('X') if m]
# An aperture can use any of the 4 standard types,
# (with or without a central hole), or a previously
# defined macro.
if ap_type == 'C':
shape = Circle(0, 0, mods[0] / 2)
hole_defs = len(mods) > 1 and mods[1:]
elif ap_type == 'R':
if len(mods) == 1:
shape = Rectangle(-mods[0] / 2, mods[0] / 2, mods[0], mods[0])
else:
shape = Rectangle(-mods[0] / 2, mods[1] / 2, mods[0], mods[1])
hole_defs = len(mods) > 2 and mods[2:]
elif ap_type == 'O':
shape = Obround(0, 0, mods[0], mods[1])
hole_defs = len(mods) > 2 and mods[2:]
elif ap_type == 'P':
if len(mods) < 3:
mods.append(0)
shape = RegularPolygon(0, 0, mods[0], mods[1], mods[2])
hole_defs = len(mods) > 3 and mods[3:]
else: # macro
shape = ap_type
if shape in self.macro_buff:
macro = self.macro_buff[shape].instantiate(mods)
counter = 0 # pick a unique name for the macro
while mods and macro.name in self.layer_buff.macros:
macro.name = shape + str(counter)
counter += 1
self.layer_buff.macros[macro.name] = macro
hole_defs = None
if hole_defs and (len(hole_defs) > 1):
hole = Rectangle(-hole_defs[0] / 2, hole_defs[1] / 2, hole_defs[0],
hole_defs[1])
elif hole_defs:
hole = Circle(0, 0, hole_defs[0] / 2)
else:
hole = None
self.layer_buff.apertures.update({code: Aperture(code, shape, hole)})
def parse_rect(self, rect):
""" Parse a rect element """
x, y = (get_x(rect, mult=self.svg_mult),
get_y(rect, mult=self.svg_mult))
width, height = (get_length(rect, 'width', self.svg_mult),get_length(rect, 'height', self.svg_mult))
return [Rectangle(x, y, width, height)]
def test_create_rect_from_corners(self):
'''Test for Rectangle.from_corners()'''
rect = Rectangle.from_corners(0, 1, 2, 4)
self.assertEqual(rect.x, 0)
self.assertEqual(rect.y, 1)
self.assertEqual(rect.width, 2)
self.assertEqual(rect.height, 3)
def test_create_new_rectangle(self):
""" Test the creation of a new empty rectangle. """
rect = Rectangle(0, 1, 2, 3)
assert rect.x == 0
assert rect.y == 1
assert rect.width == 2
assert rect.height == 3
def _convert_shapes(self, shapes, center=(0, 0), absolute=False):
""" Convert shapes """
result = []
def fix_point(point):
x, y = (point[0] + center[0], point[1] + center[1])
if absolute:
# freerouter often creates points outside boundary, fix it
if x > self.max_x:
x = self.min_x + x - self.max_x
elif x < self.min_x:
x = self.max_x - x - self.min_x
if y > self.max_y:
y = self.min_y + y - self.max_y
elif y < self.min_y:
y = self.max_y - y - self.min_y
return (x, y)
for shape in shapes:
if isinstance(shape, specctraobj.PolylinePath):
points = [
fix_point(self.to_pixels(point)) for point in shape.vertex
]
result.extend(
self._convert_path(self.to_pixels(shape.aperture_width),
points))
elif isinstance(shape, specctraobj.Path):
points = [
fix_point(self.to_pixels(point)) for point in shape.vertex
]
# Path has connected start and end points
if points[0] != points[-1] and len(points) != 2:
points.append(points[0])
result.extend(
self._convert_path(self.to_pixels(shape.aperture_width),
points))
elif isinstance(shape, specctraobj.Polygon):
points = [
fix_point(self.to_pixels(point)) for point in shape.vertex
]
points = [Point(point[0], point[1]) for point in points]
result.append(Polygon(points))
elif isinstance(shape, specctraobj.Rectangle):
x1, y1 = self.to_pixels(shape.vertex1)
x2, y2 = self.to_pixels(shape.vertex2)
width, height = abs(x1 - x2), abs(y1 - y2)
x1, y1 = fix_point((min(x1, x2), max(y1, y2)))
result.append(Rectangle(x1, y1, width, height))
elif isinstance(shape, specctraobj.Circle):
point = fix_point(self.to_pixels(shape.vertex))
result.append(
Circle(point[0], point[1],
self.to_pixels(shape.diameter / 2.0)))
return result
def test_rectangle(self):
"""
Rectangles are output correctly.
"""
writer = KiCAD()
rect = Rectangle(10, 20, 5, 10)
line = writer.get_shape_line(rect)
self.assertEqual(line, 'S 111 222 167 111 %(unit)d %(convert)d 0 N\n')
def test_rectangle(self):
""" Convert rectangle shape """
rect = Rectangle(10, 20, 5, 10)
writer = Specctra()
obj = writer._convert_shape(rect)
self.assertEqual(
to_string(writer, obj),
'( (rect signal 104.166667 208.333333 156.250000 104.166667) )')
def _vector_to_rect(self, mods, rotation):
"""
Convert a vector into a Rectangle.
Strategy
========
If vect is not horizontal:
- rotate about the origin until horizontal
- define it as a normal rectangle
- incorporate rotated angle into explicit rotation
"""
start, end = (mods[2:4], mods[4:6])
start_radius = sqrt(start[0]**2 + start[1]**2)
end_radius = sqrt(end[0]**2 + end[1]**2)
# Reverse the vector if its endpoint is closer
# to the origin than its start point (avoids
# mucking about with signage later).
if start_radius > end_radius:
end, start = (mods[2:4], mods[4:6])
radius = end_radius
else:
radius = start_radius
# Calc the angle of the vector with respect to the x axis.
x, y = start
adj = end[0] - x
opp = end[1] - y
hyp = sqrt(adj**2 + opp**2)
theta = acos(adj / hyp) / pi
if opp > 0:
theta = 2 - theta
# Represent vector angle as a delta.
d_theta = 2 - theta
# Calc the angle of the start point of the flattened vector.
theta = 0.0 if radius == 0.0 else acos(x / radius) / pi
if y > 0:
theta = 2 - theta
theta += d_theta
# Redefine x and y at center of the rect's left side.
y = sin((2 - theta) * pi) * radius
x = cos((2 - theta) * pi) * radius
# Calc the composite rotation angle.
rotation = (rotation + theta) % 2
return (Rectangle(x=x, y=y + mods[1] / 2, width=hyp,
height=mods[1]), rotation)
def test_rectangle(self):
""" Convert rectangle shape """
rect = Rectangle(10, 20, 5, 10)
writer = Specctra()
writer.resolution = specctraobj.Resolution()
writer.resolution.unit = 'mil'
writer.resolution.resolution = 10
obj = writer._convert_shape(rect)
self.assertEqual(
to_string(writer, obj),
'( (rect signal 104.166667 208.333333 156.250000 104.166667) )')
def test_rectangle(self):
"""
Rectangles are output correctly.
"""
writer = KiCAD()
rect = Rectangle(10, 20, 5, 10)
line = writer.get_shape_line(rect)
self.assertEqual(line, 'S ' + str(int(10 / MULT)) + ' '
+ str(int(20 / MULT)) + ' '
+ str(int(15 / MULT)) + ' '
+ str(int(10 / MULT)) + ' '
+ '%(unit)d %(convert)d 0 N\n')
def make_body_from_symbol(self, lib, symbol_name):
""" Construct an openjson Body from an eagle symbol in a library. """
body = Body()
symbol = [
s for s in get_subattr(lib, 'symbols.symbol')
if s.name == symbol_name
][0]
for wire in symbol.wire:
body.add_shape(
Line((self.make_length(wire.x1), self.make_length(wire.y1)),
(self.make_length(wire.x2), self.make_length(wire.y2))))
for rect in symbol.rectangle:
x = self.make_length(rect.x1)
y = self.make_length(rect.y1)
width = self.make_length(rect.x2) - x
height = self.make_length(rect.y2) - y
body.add_shape(Rectangle(x, y + height, width, height))
pin_map = {}
for pin in symbol.pin:
connect_point = (self.make_length(pin.x), self.make_length(pin.y))
null_point = self.get_pin_null_point(connect_point, pin.length,
pin.rot)
label = self.get_pin_label(pin, null_point)
pin_map[pin.name] = Pin(pin.name, null_point, connect_point, label)
body.add_pin(pin_map[pin.name])
ann_map = {}
for text in symbol.text:
x = self.make_length(text.x)
y = self.make_length(text.y)
content = '' if text.valueOf_ is None else text.valueOf_
rotation = self.make_angle('0' if text.rot is None else text.rot)
if content == '>NAME':
ann_map['name'] = Annotation(content, x, y, rotation, 'true')
elif content == '>VALUE':
ann_map['value'] = Annotation(content, x, y, rotation, 'true')
else:
body.add_shape(Label(x, y, content, 'left', rotation))
return body, pin_map, ann_map
def test_get_pin(self):
""" The get_pin function returns the correct Pins """
shape = Rectangle(0, 0, 4, 8)
pin = get_pin(shape)
self.assertEqual(pin.p1.x, 2)
self.assertEqual(pin.p1.y, 4)
self.assertEqual(pin.p2.x, pin.p1.x)
self.assertEqual(pin.p2.y, pin.p1.y)
shape = Circle(0, 0, 4)
pin = get_pin(shape)
self.assertEqual(pin.p1.x, 0)
self.assertEqual(pin.p1.y, 0)
self.assertEqual(pin.p2.x, pin.p1.x)
self.assertEqual(pin.p2.y, pin.p1.y)
self.assertEqual(get_pin(Shape()), None)
def bodies(self, offset, instance_attributes):
bodies = []
attached_layers = self.get_attr('attached_layers', '',
instance_attributes).split(',')
width = self.get_int_attr('width', 0, instance_attributes)
height = self.get_int_attr('height', 0, instance_attributes)
radius = self.get_int_attr('radius', 0, instance_attributes)
shape_type = self.get_attr('shape', '', instance_attributes)
pos = Point(self.x, self.y)
for layer_name in attached_layers:
layer_name = layer_name
pad = FBody()
# invert top/bottom if the footprint is on the bottom of the board
if offset.side == 'bottom':
rev_sides = {'top': 'bottom', 'bottom': 'top'}
layer_name = ' '.join([
rev_sides.get(piece, piece)
for piece in layer_name.split(' ')
])
if shape_type == 'rectangle':
pad.add_shape(
Rectangle((width / 2), -(height / 2), width, height))
elif shape_type == 'rounded rectangle':
pad.add_shape(
RoundedRectangle((width / 2), -(height / 2), width, height,
radius))
elif shape_type == 'circle':
pad.add_shape(Circle(0, 0, radius))
else:
raise ValueError('unexpected shape type for padstack')
pad.rotate(self.rotation)
pad.shift(pos.x, pos.y)
bodies.append((FootprintAttribute(0, 0, 0, False,
layer_name), pad))
return bodies
def parse_s_line(self, parts):
""" Parse an S (Rectangle) line """
x, y, x2, y2 = [int(i) for i in parts[1:5]]
return Rectangle(x, y, x2 - x, y - y2)
def parse_shape(self, shape):
""" Extract a shape. """
# pylint: disable=R0914
# pylint: disable=R0911
rotation = shape.get('rotation', 0.0)
flip_horizontal = shape.get('flip_horizontal', False)
shape_type = shape.get('type')
if 'rectangle' == shape_type:
x = int(shape.get('x'))
y = int(shape.get('y'))
height = int(shape.get('height'))
width = int(shape.get('width'))
parsed_shape = Rectangle(x, y, width, height)
elif 'rounded_rectangle' == shape_type:
x = int(shape.get('x'))
y = int(shape.get('y'))
height = int(shape.get('height'))
width = int(shape.get('width'))
radius = int(shape.get('radius'))
parsed_shape = RoundedRectangle(x, y, width, height, radius)
elif 'arc' == shape_type:
x = int(shape.get('x'))
y = int(shape.get('y'))
start_angle = float(shape.get('start_angle'))
end_angle = float(shape.get('end_angle'))
radius = int(shape.get('radius'))
parsed_shape = Arc(x, y, start_angle, end_angle, radius)
elif 'circle' == shape_type:
x = int(shape.get('x'))
y = int(shape.get('y'))
radius = int(shape.get('radius'))
parsed_shape = Circle(x, y, radius)
elif 'label' == shape_type:
parsed_shape = self.parse_label(shape)
elif 'line' == shape_type:
p1 = self.parse_point(shape.get('p1'))
p2 = self.parse_point(shape.get('p2'))
parsed_shape = Line(p1, p2)
elif 'polygon' == shape_type:
parsed_shape = Polygon()
for point in shape.get('points'):
parsed_shape.add_point(self.parse_point(point))
elif 'bezier' == shape_type:
control1 = self.parse_point(shape.get('control1'))
control2 = self.parse_point(shape.get('control2'))
p1 = self.parse_point(shape.get('p1'))
p2 = self.parse_point(shape.get('p2'))
parsed_shape = BezierCurve(control1, control2, p1, p2)
elif 'rounded_segment' == shape_type:
p1 = self.parse_point(shape.get('p1'))
p2 = self.parse_point(shape.get('p2'))
width = int(shape.get('width'))
parsed_shape = RoundedSegment(p1, p2, width)
parsed_shape.rotation = rotation
parsed_shape.flip_horizontal = flip_horizontal
parsed_shape.styles = shape.get('styles') or {}
parsed_shape.attributes = shape.get('attributes') or {}
return parsed_shape
def parse_s_line(self, parts):
""" Parse an S (Rectangle) line """
x, y, x2, y2 = [int(i) for i in parts[1:5]]
return Rectangle(make_length(x), make_length(y), make_length(x2 - x),
make_length(y - y2))
def parse_box(self, args):
""" Returns a parsed box. """
x1, y1, x2, y2 = [int(a) for a in args.split()]
return ('shape', Rectangle.from_corners(x1, y1, x2, y2))
def test_rectangle_min_point(self):
'''Test Rectangle.min_point()'''
rect = Rectangle(-2, -3, 8, 5)
top_left = rect.min_point()
self.assertEqual(top_left.x, -2)
self.assertEqual(top_left.y, -3)
def test_rectangle_max_point(self):
'''Test Rectangle.max_point()'''
rect = Rectangle(-2, -3, 8, 5)
bottom_right = rect.max_point()
self.assertEqual(bottom_right.x, 6)
self.assertEqual(bottom_right.y, 2)
def make_body_from_symbol(self, lib, symbol_name, pin_number_lookup):
""" Construct an openjson SBody from an eagle symbol in a library. """
body = SBody()
symbol = [
s for s in get_subattr(lib, 'symbols.symbol')
if s.name == symbol_name
][0]
for wire in symbol.wire:
body.add_shape(self.make_shape_for_wire(wire))
for rect in symbol.rectangle:
rotation = make_angle('0' if rect.rot is None else rect.rot)
x1, y1 = rotate_point(
(self.make_length(rect.x1), self.make_length(rect.y1)),
rotation)
x2, y2 = rotate_point(
(self.make_length(rect.x2), self.make_length(rect.y2)),
rotation)
ux, uy = min(x1, x2), max(y1, y2)
lx, ly = max(x1, x2), min(y1, y2)
body.add_shape(Rectangle(ux, uy, lx - ux, uy - ly))
for poly in symbol.polygon:
map(body.add_shape, self.make_shapes_for_poly(poly))
for circ in symbol.circle:
body.add_shape(self.make_shape_for_circle(circ))
pin_map = {}
for pin in symbol.pin:
connect_point = (self.make_length(pin.x), self.make_length(pin.y))
null_point = self.get_pin_null_point(connect_point, pin.length,
pin.rot)
label = self.get_pin_label(pin, null_point)
pin_map[pin.name] = Pin(pin_number_lookup(pin.name), null_point,
connect_point, label)
if pin.direction:
pin_map[pin.name].add_attribute('eaglexml_direction',
pin.direction)
if pin.visible:
pin_map[pin.name].add_attribute('eaglexml_visible',
pin.visible)
body.add_pin(pin_map[pin.name])
ann_map = {}
for text in symbol.text:
x = self.make_length(text.x)
y = self.make_length(text.y)
content = '' if text.valueOf_ is None else text.valueOf_
rotation = make_angle('0' if text.rot is None else text.rot)
align = 'right' if is_mirrored(text.rot) else 'left'
if rotation == 0.5:
rotation = 1.5
if content.lower() == '>name':
ann_map['name'] = Annotation(content, x, y, rotation, 'true')
elif content.lower() == '>value':
ann_map['value'] = Annotation(content, x, y, rotation, 'true')
else:
body.add_shape(
Label(x, y, content, align=align, rotation=rotation))
return body, pin_map, ann_map
def add_shape(self, shape, parent, parent_offset, offset):
""" Add a shape to the image. (might be added as a smear or fill) """
# Copy the shape so it can be mutated without affecting other instances
shapecpy = copy.deepcopy(shape)
# XXX(shamer): a label needs to be rendered before in-place rotations are made so the bounding box for the shape
# are known
if isinstance(shapecpy, Label):
self.face.set_char_size(int(shapecpy.font_size))
label_contours = []
x_offset = 0
y_offset = 0
label_text = self.resolve_text(shapecpy.text, parent.get_attribute)
for i, c in enumerate(label_text):
self.face.load_char(c,
flags=freetype.ft_enums.FT_LOAD_NO_BITMAP)
slot = self.face.glyph
outline = slot.outline
glyph_contours = []
start, end = 0, 0
# Iterate over each contour separately. Characters like 'g' have multiple contours as they cannot be
# walked with a contiguous set of arcs. The contours list contains the index of the point that the
# contour starts on.
for contour_idx in range(len(outline.contours)):
end = outline.contours[contour_idx]
points = [
Point(t[0], t[1])
for t in outline.points[start:end + 1]
]
tags = outline.tags[start:end + 1]
# Close the contour by repeating the last point.
points.append(copy.deepcopy(points[0]))
tags.append(copy.deepcopy(tags[0]))
segments = [
[
points[0],
],
]
# Group points into segments. The tag identifies real vs control points.
for point_idx in range(1, len(points)):
segments[-1].append(points[point_idx])
if tags[point_idx] & (1 << 0) and point_idx < (
len(points) - 1):
segments.append([
copy.deepcopy(points[point_idx]),
])
# take the fist and last points of each segment (the non-control points). To approximate the curves
# using straight lines.
glyph_contours.append([[segment[0], segment[-1]]
for segment in segments])
start = end + 1
# update the segments in the glyph with the x_offset
for contour_segments in glyph_contours:
for segments in contour_segments:
for point in segments:
point.x += x_offset
point.y += y_offset
label_contours.extend(glyph_contours)
x_offset += slot.advance.x
# adjust amount to advance with kerning offset
if i + 1 < len(label_text):
next_c = label_text[i + 1]
x_offset += self.face.get_kerning(c, next_c).x
# Update the segments for pre-render shifts, rotates, alignment
for contour_segments in label_contours:
for segments in contour_segments:
if shapecpy.align == 'center':
segments[0].shift(-(x_offset / 2), 0)
segments[1].shift(-(x_offset / 2), 0)
if shapecpy.rotation:
segments[0].rotate(shapecpy.rotation)
segments[1].rotate(shapecpy.rotation)
if shapecpy.flip_horizontal:
segments[0].flip(shapecpy.flip_horizontal)
segments[1].flip(shapecpy.flip_horizontal)
shapecpy._segments.append(segments)
# Calculate the bounding fox the label from the segments
min_point = [2**100, 2**100]
max_point = [-2**100, -2**100]
for contour_segments in label_contours:
for segments in contour_segments:
min_point[0] = min(segments[0].x, segments[1].x,
min_point[0])
max_point[0] = max(segments[0].x, segments[1].x,
max_point[0])
min_point[1] = min(segments[0].y, segments[1].y,
min_point[1])
max_point[1] = max(segments[0].y, segments[1].y,
max_point[1])
shapecpy._min_point = Point(min_point[0], min_point[1])
shapecpy._max_point = Point(max_point[0], max_point[1])
shapecpy.shift(offset.x, offset.y)
if parent_offset.rotation != 0:
shapecpy.rotate(parent_offset.rotation)
if parent_offset.flip_horizontal:
shapecpy.flip(parent_offset.flip_horizontal)
shapecpy.shift(parent_offset.x, parent_offset.y)
if offset.rotation != 0:
if parent_offset.flip_horizontal:
shapecpy.rotate(-offset.rotation, in_place=True)
else:
shapecpy.rotate(offset.rotation, in_place=True)
if offset.flip_horizontal:
shapecpy.flip(offset.flip_horizontal)
if isinstance(shapecpy, Line):
# FIXME(shamer): line doesn't have an explicit width. Gets used for outlines. Defaulted to 0.15mm
self.smears.append(Smear(shapecpy, Circle(0, 0, 0.15 * 1000000)))
elif isinstance(shapecpy, Circle):
self.shape_instances.append(
ShapeInstance(Point(shapecpy.x, shapecpy.y),
Aperture(None, shapecpy, None)))
elif isinstance(shapecpy, Rectangle):
#shapecpy.x += shapecpy.width
#shapecpy.y -= shapecpy.height / 2
shapecpy.width = abs(shapecpy.width)
shapecpy.height = abs(shapecpy.height)
if shapecpy.rotation != 0:
instance_name = 'Rect-W{width}-H{height}-RO{rotation}'.format(
height=shapecpy.height,
width=shapecpy.width,
rotation=shapecpy.rotation)
# XXX(shamer): additional copy is made so the x, y can be reset for use as a ComplexInstance
shapecpycpy = copy.deepcopy(shapecpy)
shapecpycpy.x = 0
shapecpycpy.y = 0
shapecpycpy.is_centered = True
primitives = [Primitive(1, 0.0, shapecpycpy)]
self.complex_instances.append(
ComplexInstance(instance_name,
Point(shapecpy.x, shapecpy.y), primitives))
else:
self.shape_instances.append(
ShapeInstance(Point(shapecpy.x, shapecpy.y),
Aperture(None, shapecpy, None)))
elif isinstance(shapecpy, RoundedRectangle):
# Rounded rectangle is added as a macro with two rectangles to fill out the body and four circles to make up
# the corners. `roundrect` is assumed to already be centered.
primitives = []
radius = abs(shapecpy.radius)
inner_height = abs(shapecpy.height) - (radius * 2)
inner_width = abs(shapecpy.width) - (radius * 2)
half_width = inner_width / 2.0
half_height = inner_height / 2.0
high_rect = Rectangle(0,
0,
abs(inner_width),
abs(shapecpy.height),
is_centered=True)
wide_rect = Rectangle(0,
0,
abs(shapecpy.width),
abs(inner_height),
is_centered=True)
primitives.append(Primitive(1, 0.0, high_rect))
primitives.append(Primitive(1, 0.0, wide_rect))
primitives.append(
Primitive(1, 0.0,
Circle(-half_width, half_height, shapecpy.radius)))
primitives.append(
Primitive(1, 0.0,
Circle(half_width, half_height, shapecpy.radius)))
primitives.append(
Primitive(1, 0.0,
Circle(half_width, -half_height, shapecpy.radius)))
primitives.append(
Primitive(1, 0.0,
Circle(-half_width, -half_height, shapecpy.radius)))
# rotate the positioning of the rounded corners (the circles)
for primitive in primitives:
primitive.shape.rotate(shapecpy.rotation)
instance_name = 'RR-H{height}-W{width}-R{radius}-RO{rotation}'.format(
height=abs(shapecpy.height),
width=abs(shapecpy.width),
radius=radius,
rotation=shapecpy.rotation)
self.complex_instances.append(
ComplexInstance(instance_name, Point(shapecpy.x, shapecpy.y),
primitives))
elif isinstance(shapecpy, Label):
# TODO(shamer): cache positions segments for glyphs
# FIXME((shamer): make baseline shift
# TODO(shamer) select the correct font based off of the label.font_family
# Debugging, used to show the anchor point of the label
#self.shape_instances.append(ShapeInstance(Point(shapecpy.x, shapecpy.y), Aperture(None, Circle(0, 0, 1000000 / 5), None)))
for segments in shapecpy._segments:
line = Line(segments[0], segments[1])
line.shift(shapecpy.x, shapecpy.y)
self.smears.append(Smear(line,
Circle(0, 0,
0.1016 * 1000000))) # 4 Mils
def parse_shape(self, shape):
""" Extract a shape. """
# pylint: disable=R0914
# pylint: disable=R0911
rotation = shape.get('rotation', 0.0)
flip_horizontal = shape.get('flip_horizontal', False)
shape_type = shape.get('type')
if 'rectangle' == shape_type:
x = int(shape.get('x'))
y = int(shape.get('y'))
height = int(shape.get('height'))
width = int(shape.get('width'))
parsed_shape = Rectangle(x, y, width, height)
elif 'rounded_rectangle' == shape_type:
x = int(shape.get('x'))
y = int(shape.get('y'))
height = int(shape.get('height'))
width = int(shape.get('width'))
radius = int(shape.get('radius'))
parsed_shape = RoundedRectangle(x, y, width, height, radius)
elif 'arc' == shape_type:
x = int(shape.get('x'))
y = int(shape.get('y'))
start_angle = float(shape.get('start_angle'))
end_angle = float(shape.get('end_angle'))
radius = int(shape.get('radius'))
parsed_shape = Arc(x, y, start_angle, end_angle, radius)
elif 'circle' == shape_type:
x = int(shape.get('x'))
y = int(shape.get('y'))
radius = int(shape.get('radius'))
parsed_shape = Circle(x, y, radius)
elif 'label' == shape_type:
parsed_shape = self.parse_label(shape)
elif 'line' == shape_type:
p1 = self.parse_point(shape.get('p1'))
p2 = self.parse_point(shape.get('p2'))
parsed_shape = Line(p1, p2)
elif 'polygon' == shape_type:
parsed_shape = Polygon()
for point in shape.get('points'):
parsed_shape.add_point(self.parse_point(point))
elif 'bezier' == shape_type:
control1 = self.parse_point(shape.get('control1'))
control2 = self.parse_point(shape.get('control2'))
p1 = self.parse_point(shape.get('p1'))
p2 = self.parse_point(shape.get('p2'))
parsed_shape = BezierCurve(control1, control2, p1, p2)
elif 'rounded_segment' == shape_type:
p1 = self.parse_point(shape.get('p1'))
p2 = self.parse_point(shape.get('p2'))
width = int(shape.get('width'))
parsed_shape = RoundedSegment(p1, p2, width)
parsed_shape.rotation = rotation
parsed_shape.flip_horizontal = flip_horizontal
parsed_shape.styles = shape.get('styles') or {}
parsed_shape.attributes = shape.get('attributes') or {}
return parsed_shape
def parse_box(self, args):
""" Returns a parsed box. """
x1, y1, x2, y2 = [int(a) for a in args.split()]
return ('shape', Rectangle.from_corners(x1, y1, x2, y2))
def parse_shape(self, shape):
""" Extract a shape. """
# pylint: disable=R0914
# pylint: disable=R0911
typ = shape.get('type')
if 'rectangle' == typ:
x = int(shape.get('x'))
y = int(shape.get('y'))
height = int(shape.get('height'))
width = int(shape.get('width'))
parsed_shape = Rectangle(x, y, width, height)
elif 'rounded_rectangle' == typ:
x = int(shape.get('x'))
y = int(shape.get('y'))
height = int(shape.get('height'))
width = int(shape.get('width'))
radius = int(shape.get('radius'))
parsed_shape = RoundedRectangle(x, y, width, height, radius)
elif 'arc' == typ:
x = int(shape.get('x'))
y = int(shape.get('y'))
start_angle = float(shape.get('start_angle'))
end_angle = float(shape.get('end_angle'))
radius = int(shape.get('radius'))
parsed_shape = Arc(x, y, start_angle, end_angle, radius)
elif 'circle' == typ:
x = int(shape.get('x'))
y = int(shape.get('y'))
radius = int(shape.get('radius'))
parsed_shape = Circle(x, y, radius)
elif 'label' == typ:
x = int(shape.get('x'))
y = int(shape.get('y'))
rotation = float(shape.get('rotation'))
text = shape.get('text')
align = shape.get('align')
parsed_shape = Label(x, y, text, align, rotation)
elif 'line' == typ:
p1 = self.parse_point(shape.get('p1'))
p2 = self.parse_point(shape.get('p2'))
parsed_shape = Line(p1, p2)
elif 'polygon' == typ:
parsed_shape = Polygon()
for point in shape.get('points'):
parsed_shape.add_point(self.parse_point(point))
elif 'bezier' == typ:
control1 = self.parse_point(shape.get('control1'))
control2 = self.parse_point(shape.get('control2'))
p1 = self.parse_point(shape.get('p1'))
p2 = self.parse_point(shape.get('p2'))
parsed_shape = BezierCurve(control1, control2, p1, p2)
parsed_shape.styles = shape.get('styles') or {}
parsed_shape.attributes = shape.get('attributes') or {}
return parsed_shape
def parse_shape(self, shape):
""" Extract a shape. """
# pylint: disable=R0914
# pylint: disable=R0911
rotation = shape.get("rotation", 0.0)
flip_horizontal = shape.get("flip_horizontal", False)
shape_type = shape.get("type")
if "rectangle" == shape_type:
x = int(shape.get("x"))
y = int(shape.get("y"))
height = int(shape.get("height"))
width = int(shape.get("width"))
parsed_shape = Rectangle(x, y, width, height)
elif "rounded_rectangle" == shape_type:
x = int(shape.get("x"))
y = int(shape.get("y"))
height = int(shape.get("height"))
width = int(shape.get("width"))
radius = int(shape.get("radius"))
parsed_shape = RoundedRectangle(x, y, width, height, radius)
elif "arc" == shape_type:
x = int(shape.get("x"))
y = int(shape.get("y"))
start_angle = float(shape.get("start_angle"))
end_angle = float(shape.get("end_angle"))
radius = int(shape.get("radius"))
parsed_shape = Arc(x, y, start_angle, end_angle, radius)
elif "circle" == shape_type:
x = int(shape.get("x"))
y = int(shape.get("y"))
radius = int(shape.get("radius"))
parsed_shape = Circle(x, y, radius)
elif "label" == shape_type:
parsed_shape = self.parse_label(shape)
elif "line" == shape_type:
p1 = self.parse_point(shape.get("p1"))
p2 = self.parse_point(shape.get("p2"))
parsed_shape = Line(p1, p2)
elif "polygon" == shape_type:
parsed_shape = Polygon()
for point in shape.get("points"):
parsed_shape.add_point(self.parse_point(point))
elif "bezier" == shape_type:
control1 = self.parse_point(shape.get("control1"))
control2 = self.parse_point(shape.get("control2"))
p1 = self.parse_point(shape.get("p1"))
p2 = self.parse_point(shape.get("p2"))
parsed_shape = BezierCurve(control1, control2, p1, p2)
elif "rounded_segment" == shape_type:
p1 = self.parse_point(shape.get("p1"))
p2 = self.parse_point(shape.get("p2"))
width = int(shape.get("width"))
parsed_shape = RoundedSegment(p1, p2, width)
parsed_shape.rotation = rotation
parsed_shape.flip_horizontal = flip_horizontal
parsed_shape.styles = shape.get("styles") or {}
parsed_shape.attributes = shape.get("attributes") or {}
return parsed_shape
def bodies(self, offset, instance_attributes):
""" Generated the bodies for the Via with instance attribute overrides. Returns placment attribute and body
pairs.
"""
attached_layers = self.get_attr('attached_layers', '',
instance_attributes).split(',')
internal_diameter = self.get_float_attr('internal_diameter', 0,
instance_attributes)
plating_shape = self.get_attr('plating_shape', '', instance_attributes)
# Local vars for use in closures to generate shapes
# XXX(shamer): The assignment of width and lenght are reversed from the javascript. Not sure why this is.
plating_width = self.get_float_attr('plating_length', 0,
instance_attributes)
plating_height = self.get_float_attr('plating_width', 0,
instance_attributes)
plating_radius = self.get_float_attr('plating_radius', 0,
instance_attributes)
plating_diameter = self.get_float_attr('plating_diameter', 0,
instance_attributes)
solder_mask_expansion = self.get_float_attr('solder_mask_expansion', 0,
instance_attributes)
#thermal_inner_diameter = self.get_float_attr('thermal_inner_diameter', 0, instance_attributes)
#thermal_spoke_width = self.get_float_attr('thermal_spoke_width', 0, instance_attributes)
#antipad_diameter = self.get_float_attr('antipad_diameter', 0, instance_attributes)
# placment attribute + body pairs making up the generated object
bodies = []
pad_pos = Point(self.x, self.y)
sme_pos = Point(self.x, self.y)
# Debugging marker for displaying the placment position for generated objects.
#marker = FBody()
#marker.add_shape(Circle(pad_pos.x, pad_pos.y, 1000000))
#bodies.append((FootprintAttribute(0, 0, 0, False, 'top silkscreen'), marker))
if plating_shape == 'square':
solder_mask_width = (solder_mask_expansion * 2) + plating_diameter
create_shape = lambda: Rectangle(
pad_pos.x, pad_pos.y, plating_diameter, plating_diameter)
create_solder_mask_expansion = lambda: Rectangle(
sme_pos.x, sme_pos.y, solder_mask_width, solder_mask_width)
elif plating_shape == 'circle':
create_shape = lambda: Circle(pad_pos.x, pad_pos.y,
plating_diameter / 2)
solder_mask_radius = solder_mask_expansion + (plating_diameter / 2)
create_solder_mask_expansion = lambda: Circle(
sme_pos.x, sme_pos.y, solder_mask_radius)
elif plating_shape == 'rectangle':
solder_mask_width = (solder_mask_expansion * 2) + plating_width
solder_mask_height = (solder_mask_expansion * 2) + plating_height
create_shape = lambda: Rectangle(pad_pos.x, pad_pos.y,
plating_width, plating_height)
create_solder_mask_expansion = lambda: Rectangle(
sme_pos.x, sme_pos.y, solder_mask_width, solder_mask_height)
elif plating_shape == 'rounded rectangle':
solder_mask_width = (solder_mask_expansion * 2) + plating_width
solder_mask_height = (solder_mask_expansion * 2) + plating_height
create_shape = lambda: RoundedRectangle(
pad_pos.x, pad_pos.y, plating_width, plating_height,
plating_radius)
create_solder_mask_expansion = lambda: RoundedRectangle(
sme_pos.x, sme_pos.y, solder_mask_width, solder_mask_height,
plating_radius)
else:
raise ValueError(
'unexpected shape for plated through hole "{0}"'.format(
plating_shape))
# cirle of radius 'solder_mask_expansion' + ('plating_diameter' / 2) in the top and bottom silkscreen layers
solder_mask_radius = solder_mask_expansion + (plating_diameter / 2)
top_solder_mask = FBody()
top_solder_mask.add_shape(create_solder_mask_expansion())
bodies.append((FootprintAttribute(0, 0, 0, False,
'top solder mask'), top_solder_mask))
bottom_solder_mask = FBody()
bottom_solder_mask.add_shape(create_solder_mask_expansion())
bodies.append(
(FootprintAttribute(0, 0, 0, False,
'bottom solder mask'), bottom_solder_mask))
# circle of diameter 'internal_diameter' on the hole layer
hole = FBody()
hole.add_shape(Circle(pad_pos.x, pad_pos.y, internal_diameter / 2))
bodies.append((FootprintAttribute(0, 0, 0, False, 'hole'), hole))
# circles of diameter 'plating_diameter' on each connection layer
for layer_name in attached_layers:
connected_layer = FBody()
if layer_name == 'top copper' or layer_name == 'bottom copper':
connected_layer.add_shape(create_shape())
else:
connected_layer.add_shape(
Circle(pad_pos.x, pad_pos.y, plating_diameter / 2))
bodies.append((FootprintAttribute(0, 0, 0, False,
layer_name), connected_layer))
return bodies