def generate(self):
length = self.svg.unittouu(str(self.options.length) + 'px')
spacing = self.svg.unittouu(str(self.options.spacing) + 'px')
angle = radians(self.options.angle)
# generate points: list of (x, y) pairs
points = []
x = 0
tas = tan(angle) * spacing
while x < length:
# move along path, generating the next 'tooth'
points.append((x, 0))
points.append((x + tas, spacing))
points.append((x + spacing, spacing))
points.append((x + spacing + tas, 0))
x += spacing * 2.
path = points_to_svgd(points)
# Create SVG Path for gear
style = {
'stroke': '#000000',
'fill': 'none',
'stroke-width': str(self.svg.unittouu('1px'))
}
yield inkex.PathElement(style=str(inkex.Style(style)), d=str(path))
def draw_crop_line(self, x1, y1, x2, y2, name, parent):
style = {'stroke': '#000000', 'stroke-width': str(self.stroke_width),
'fill': 'none'}
line_attribs = {'style': str(inkex.Style(style)),
'id': name,
'd': 'M ' + str(x1) + ',' + str(y1) + ' L ' + str(x2) + ',' + str(y2)}
parent.add(inkex.PathElement(**line_attribs))
def generate(self):
# Let's simplify the variable names
ht = int(self.options.height)
wt = int(self.options.width)
sc = int(self.options.seg_count)
cp = self.svg.namedview.center # center point
maxx = cp[0] + (wt / 2)
maxy = cp[0] + (ht / 2)
minx = cp[1] - (wt / 2)
miny = cp[1] - (ht / 2)
# We need to decide what the maximum length we can draw a line
# maxlen is used to seed the random length of the line
# It may still be too long, but we'll check on that later!
if ht > wt:
maxlen = ht
else:
maxlen = wt
style = inkex.Style({
'stroke-linejoin': 'miter', 'stroke-width': str(self.svg.unittouu('1px')),
'stroke-opacity': '1.0', 'fill-opacity': '1.0',
'stroke': '#000000', 'stroke-linecap': 'butt',
'fill': 'none'
})
tur = pturtle.pTurtle()
tur.pu() # Pen up
tur.setpos(cp) # position to center of window
def nextmove(maxlen):
randdist = random.randint(0, maxlen) # how far should we draw?
tur.forward(randdist) # Let's move the new distance
newpos = tur.getpos() # Did we go to far?
return newpos, randdist
while sc > 0:
turpos = tur.getpos() # where are we?
randangle = random.randint(1, 360) # Let's Pick a new direction
tur.rt(randangle) # Let's turn to face that new direction
tur.pu() # We don't want to draw just yet, so pick up the pen/pencil
newpos, randdist = nextmove(maxlen) # If we make this move will we go out of bounds?
while newpos[0] > maxx or newpos[0] < minx or newpos[1] < miny or newpos[1] > maxy:
tur.setpos(turpos)
newpos, randdist = nextmove(maxlen)
# If it all tests ok, we reset the position
# and draw the line for real!
tur.setpos(turpos)
tur.pd()
tur.forward(randdist)
sc = sc - 1
return inkex.PathElement(d=tur.getPath(), style=str(style))
def csp_to_path(self, node, csp_list, transform=None):
"""Create new paths based on csp data, return group with paths."""
# set up stroke width, group
stroke_width = self.svg.unittouu('1px')
stroke_color = '#000000'
style = {
'fill': 'none',
'stroke': stroke_color,
'stroke-width': str(stroke_width),
}
group = inkex.Group()
# apply gradientTransform and node's preserved transform to group
group.transform = transform * node.transform
# convert each csp to path, append to group
for csp in csp_list:
elem = group.add(inkex.PathElement())
elem.style = style
elem.path = inkex.CubicSuperPath(csp)
if self.options.mode == 'outline':
elem.path.close()
elif self.options.mode == 'faces':
if len(csp) == 1 and len(csp[0]) == 5:
elem.path.close()
return group
def effect(self):
# get number of digits
prec = int(self.options.precision)
scale = self.svg.unittouu('1px') # convert to document units
self.options.offset *= scale
factor = 1.0
if self.svg.get('viewBox'):
factor = self.svg.scale / self.svg.unittouu('1px')
self.options.fontsize /= factor
factor *= scale / self.svg.unittouu('1' + self.options.unit)
# loop over all selected paths
for node in self.svg.selection.filter(inkex.PathElement):
csp = node.path.transform(node.composed_transform()).to_superpath()
if self.options.mtype == "length":
slengths, stotal = csplength(csp)
self.group = node.getparent().add(TextElement())
elif self.options.mtype == "area":
stotal = abs(csparea(csp) * factor * self.options.scale)
self.group = node.getparent().add(TextElement())
else:
try:
xc, yc = cspcofm(csp)
except ValueError as err:
raise inkex.AbortExtension(str(err))
self.group = node.getparent().add(inkex.PathElement())
self.group.set('id', 'MassCenter_' + node.get('id'))
self.add_cross(self.group, xc, yc, scale)
continue
# Format the length as string
val = round(stotal * factor * self.options.scale, prec)
self.options.method(node, str(val))
def generate(self, swatch):
if swatch:
self.draw_swatch()
# Round width/height to integer number of patterns.
self.e_length = self.width / \
max(round(self.width / self.e_length), 1.0)
self.e_height = self.height / \
max(round(self.height / self.e_height), 1.0)
self.prerender()
style = {
"stroke": cut_colour,
"stroke-width": str(self.stroke_width),
"fill": "none",
}
path_command = ""
y = self.y
while y < self.y + self.height:
x = self.x
while x < self.x + self.width:
path_command = "%s %s " % (path_command, self.draw_one(x, y))
x += self.e_length
y += self.e_height
link = self.canvas.add(inkex.PathElement())
link.update(**{
"style": style,
"inkscape:label": "lattice",
"d": path_command
})
def add_connector(document, symbol, element):
# I'd like it if I could position the connector endpoint nicely but inkscape just
# moves it to the element's center immediately after the extension runs.
start_pos = (symbol.get('x'), symbol.get('y'))
end_pos = element.shape.centroid
# Make sure the element's XML node has an id so that we can reference it.
if element.node.get('id') is None:
element.node.set('id', document.get_unique_id("object"))
path = inkex.PathElement(
attrib={
"id":
generate_unique_id(document, "command_connector"),
"d":
"M %s,%s %s,%s" %
(start_pos[0], start_pos[1], end_pos.x, end_pos.y),
"style":
"stroke:#000000;stroke-width:1px;stroke-opacity:0.5;fill:none;",
CONNECTION_START:
"#%s" % symbol.get('id'),
CONNECTION_END:
"#%s" % element.node.get('id'),
CONNECTOR_TYPE:
"polyline",
# l10n: the name of the line that connects a command to the object it applies to
INKSCAPE_LABEL:
_("connector")
})
symbol.getparent().insert(0, path)
def parameters_to_path(self, svg, parameters, layerNum, isPU):
"""split params and sanity check them"""
parameters = parameters.strip().split(',')
if parameters and len(parameters) % 2 == 0:
for i, param in enumerate(parameters):
# convert params to document units
if i % 2 == 0:
parameters[i] = str(float(param) / self.scaleX)
else:
parameters[i] = str(297.0 - (float(param) / self.scaleY))
# create path and add it to the corresponding layer
if not isPU or (self.options.showMovements and isPU):
# create layer if it does not exist
if layerNum not in self.layers:
label = self.textPenNumber + str(layerNum - 1)
self.layers[layerNum] = svg.add(inkex.Layer.new(label))
path = 'M %f,%f L %s' % (self.oldCoordinates[0],
self.oldCoordinates[1],
','.join(parameters))
style = 'stroke:#' + ('ff0000' if isPU else '000000'
) + '; stroke-width:0.2; fill:none;'
self.layers[layerNum].add(
inkex.PathElement(d=path, style=style))
self.oldCoordinates = (float(parameters[-2]),
float(parameters[-1]))
def effect(self):
zoom = self.svg.unittouu(str(self.options.zoom) + 'px')
if self.options.randomize:
imagelist = generate_random_string(self.options.text, zoom)
else:
tokens = tokenize(self.options.text)
imagelist = randomize_input_string(tokens, zoom)
image = layoutstring(imagelist, zoom)
if image:
s = {'stroke': 'none', 'fill': '#000000'}
new = inkex.PathElement(style=str(inkex.Style(s)),
d=str(inkex.Path(image)))
layer = self.svg.get_current_layer()
layer.append(new)
# compensate preserved transforms of parent layer
if layer.getparent() is not None:
mat = (
self.svg.get_current_layer().transform *
inkex.Transform([[1.0, 0.0, 0.0], [0.0, 1.0, 0.0]])).matrix
new.transform *= -inkex.Transform(mat)
def export_line(vals):
"""Draw a strait line from the dxf"""
# mandatory group codes : (10, 11, 20, 21) (x1, x2, y1, y2)
if vals.has_x1 and vals.has_x2 and vals.has_y1 and vals.has_y2:
path = inkex.PathElement()
path.style = style
path.path = 'M %f,%f %f,%f' % (vals.x1, vals.y1, vals.x2, vals.y2)
layer.add(path)
def draw_line(x1, y1, x2, y2, width, name, parent):
elem = parent.add(inkex.PathElement())
elem.style = {
'stroke': '#000000',
'stroke-width': str(width),
'fill': 'none'
}
elem.set('inkscape:label', name)
elem.path = [Move(x1, y1), Line(x2, y2)]
def draw_bleed_line(self, x1, y1, x2, y2, name, parent):
style = {'stroke': '#000000', 'stroke-width': str(self.stroke_width),
'fill': 'none',
'stroke-miterlimit': '4', 'stroke-dasharray': '4, 2, 1, 2',
'stroke-dashoffset': '0'}
line_attribs = {'style': str(inkex.Style(style)),
'id': name,
'd': 'M ' + str(x1) + ',' + str(y1) + ' L ' + str(x2) + ',' + str(y2)}
parent.add(inkex.PathElement(**line_attribs))
def effect(self):
# Classify path as horz or vert, ignore others
horzPaths = []
vertPaths = []
for elem in self.svg.get_selected_or_all(inkex.PathElement):
path = elem.path.to_absolute()
if len(path) != 2:
# warning: can only process singular, simple paths
pass
else:
if path[1].letter == 'H':
horzPaths.append(path)
elif path[1].letter == 'V':
vertPaths.append(path)
else:
#warning: can only process horizontal or vertical paths
pass
line_style = {
'stroke': '#FF0000',
'fill': 'none',
'stroke-width': str(self.svg.unittouu('{:0.2f}mm'.format(self.options.thickness * 0.1)))
}
# Create Divider objects used to generate new divider paths
Divider.height = self.options.depth
Divider.thickness = self.options.thickness
dividers = []
for hp in horzPaths:
hx1 = hp[0].args[0]
hx2 = hp[1].args[0]
d = Divider(abs(hx1 - hx2))
for vp in vertPaths:
if lines_intersect(hp, vp):
vx1 = vp[0].args[0]
d.notches.append(vx1 - min(hx1, hx2))
d.notches.sort()
dividers.append(d)
for vp in vertPaths:
vy1 = vp[0].args[1]
vy2 = vp[1].args[0]
d = Divider(abs(vy1 - vy2))
for hp in horzPaths:
if lines_intersect(hp, vp):
hy1 = hp[0].args[1]
d.notches.append(hy1 - min(vy1, vy2))
d.notches.sort()
dividers.append(d)
# Render Dividers
for d in dividers:
index = dividers.index(d)
pe = self.svg.get_current_layer().add(inkex.PathElement(id='Divider ' + str(index)))
pe.set_path(Path(d.path_string).translate(0, (index * (d.height + d.thickness))).rotate(180))
pe.style = line_style
def getLine(XYstring):
line = inkex.PathElement()
line.style = {
'stroke': '#000000',
'stroke-width': str(linethickness),
'fill': 'none'
}
line.path = XYstring
#inkex.etree.SubElement(parent, inkex.addNS('path','svg'), drw)
return line
def plot_beam(self, beam: List[Ray], node: inkex.ShapeElement) -> None:
path = inkex.Path()
if len(beam) > 0:
path += [Move(beam[0].origin[0], beam[0].origin[1])]
for ray in beam:
p1 = ray.origin + ray.travel * ray.direction
path += [Line(p1[0], p1[1])]
element = self._beam_layer.add(inkex.PathElement())
# Need to convert to path to get the correct style for inkex.Use
element.style = node.to_path_element().style
element.path = path
def plot_beam(beam: List[Tuple[Ray, float]],
node: inkex.ShapeElement) -> None:
path = inkex.Path()
if len(beam) > 0:
path += [Move(beam[0][0].origin[0], beam[0][0].origin[1])]
for ray, t in beam:
p1 = ray.origin + t * ray.direction
path += [Line(p1[0], p1[1])]
element = node.getparent().add(inkex.PathElement())
element.style = node.get("style")
element.path = path.transform(-node.composed_transform())
def plot_beam(self, beam: List[Tuple[Ray, float]],
node: inkex.ShapeElement) -> None:
path = inkex.Path()
if len(beam) > 0:
path += [Move(beam[0][0].origin[0], beam[0][0].origin[1])]
for ray, t in beam:
p1 = ray.origin + t * ray.direction
path += [Line(p1[0], p1[1])]
svg = self.document.getroot()
element = svg.add(inkex.PathElement())
element.style = node.get("style")
element.path = path
def generate(self):
self.options.step = self.svg.unittouu(str(self.options.step) + 'px')
sty = {
'stroke-linejoin': 'miter',
'stroke-width': str(self.svg.unittouu('1px')),
'stroke-opacity': '1.0',
'fill-opacity': '1.0',
'stroke': '#000000',
'stroke-linecap': 'butt',
'fill': 'none'
}
return inkex.PathElement(style=str(inkex.Style(sty)), d=self.iterate())
def effect(self):
str_IdName = 'Arrow1Mend'
str_stroke = 'rgb(255, 0, 177)'
str_strokeWidth = '5px'
marker_node = self.svg.getElement('/svg:svg//svg:marker[@id="%s"]' %
str_IdName)
if marker_node is None:
"""Create a marker in the defs of the svg"""
marker = inkex.Marker()
marker.set('inkscape:isstock', 'true')
marker.set('style', str(inkex.Style({'overflow': 'visible'})))
marker.set('id', str_IdName)
marker.set('refX', '0.0')
marker.set('refY', '0.0')
marker.set('orient', 'auto')
marker.set('inkscape:stockid', str_IdName)
self.svg.defs.append(marker)
arrow = inkex.PathElement(
d='M 0.0,0.0 L 5.0,-5.0 L -12.5,0.0 L 5.0,5.0 L 0.0,0.0 z ')
arrow.set(
'transform', 'scale(0.4) rotate(180) translate(10,0)'
) # <- なぜか `matrix(-0.4 4.89843e-17 -4.89843e-17 -0.4 -4 4.89843e-16)` のように変換されてしまう
arrow.set(
'style',
str(
inkex.Style({
'fill-rule': 'evenodd',
'stroke': '#000000',
'stroke-width': '1pt',
'stroke-opacity': '1',
'fill': '#000000',
'fill-opacity': '1'
})))
marker.append(arrow)
for id, node in self.svg.selected.items():
node_style = dict(inkex.Style.parse_str(node.get('style')))
node_style['stroke'] = str_stroke
node_style['stroke-width'] = self.svg.unittouu(str_strokeWidth)
node_style['marker-end'] = ('url(#' + str_IdName + ')')
node.set('style', str(inkex.Style(node_style)))
return
def draw_star_target(self, cx, cy, name, parent):
r = (self.mark_size / 2)
style = {'fill': '#000 device-cmyk(1,1,1,1)', 'fill-opacity': '1', 'stroke': 'none'}
d = ' M 0,0'
i = 0
while i < (2 * math.pi):
i += math.pi / 16
d += ' L 0,0 ' + \
' L ' + str(math.sin(i) * r) + ',' + str(math.cos(i) * r) + \
' L ' + str(math.sin(i + 0.09) * r) + ',' + str(math.cos(i + 0.09) * r)
elem = parent.add(inkex.PathElement())
elem.label = name
elem.transform.add_translate(cx, cy)
elem.path = d
elem.style = inkex.Style(style)
def satin_to_svg_node(self, rails, rungs, correction_transform, path_style):
d = ""
for path in chain(rails, rungs):
d += "M"
for x, y in path:
d += "%s,%s " % (x, y)
d += " "
return inkex.PathElement(attrib={
"id": self.uniqueId("path"),
"style": path_style,
"transform": correction_transform,
"d": d,
INKSTITCH_ATTRIBS['satin_column']: "true",
})
def to_element(self):
node = inkex.PathElement()
d = str(inkex.paths.CubicSuperPath(line_strings_to_csp([self.path])))
node.set("d", d)
dasharray = inkex.Style("stroke-dasharray:0.5,0.5;")
style = inkex.Style(self.original_element.node.get('style',
'')) + dasharray
node.set("style", str(style))
node.set(INKSTITCH_ATTRIBS['running_stitch_length_mm'],
self.running_stitch_length)
stroke = Stroke(node)
return stroke
def generate(self):
r1 = self.options.r1
r2 = self.options.r2
R1 = self.options.R1
R2 = self.options.R2
a1 = self.options.a1
a2 = self.options.a2
ad1 = self.options.ad1
ad2 = self.options.ad2
# generate points: list of (x, y) pairs
r1, r2 = checkSize(r1, r2)
R1, R2 = checkSize(R1, R2)
a1, a2 = checkSize(a1, a2)
ad1, ad2 = checkSize(ad1, ad2)
a = 0
oX = 0
oY = 0
style = {
'stroke': '#000000',
'fill': '#000000',
'stroke-width': str(self.svg.unittouu('1px'))
}
while a < 360:
a = a + random.randint(a1, a2)
dI = random.randint(r1, r2)
dO = random.randint(R1, R2)
ad = random.randint(ad1, ad2)
x0 = cos(radians(a)) * dI
y0 = sin(radians(a)) * dI
x10 = cos(radians(a - ad / 2)) * dO
y10 = sin(radians(a - ad / 2)) * dO
x11 = cos(radians(a + ad / 2)) * dO
y11 = sin(radians(a + ad / 2)) * dO
points = []
points.append((x0, y0))
points.append((x10, y10))
points.append((x11, y11))
path = points_to_svgd(points)
yield inkex.PathElement(style=str(inkex.Style(style)), d=str(path))
def draw_poly(pts, face, st, name, parent):
"""Draw polygone"""
style = {'stroke': '#000000', 'stroke-width': str(st.th), 'stroke-linejoin': st.linejoin,
'stroke-opacity': st.s_opac, 'fill': st.fill, 'fill-opacity': st.f_opac}
path = inkex.Path()
for facet in face:
if not path: # for first point
path.append(Move(pts[facet - 1][0], -pts[facet - 1][1]))
else:
path.append(Line(pts[facet - 1][0], -pts[facet - 1][1]))
path.close()
poly = parent.add(inkex.PathElement())
poly.label = name
poly.style = style
poly.path = path
def _render_dividers(self):
"""! Renders the Divider objects into paths Inkscape can interpret
"""
# Set the stroke properties
line_style = {
'stroke': '#FF0000',
'fill': 'none',
'stroke-width': str(self.svg.unittouu('{:0.2f}mm'.format(self.options.thickness * 0.1)))
}
# Render dividers
for d in self.dividers:
index = self.dividers.index(d)
pe = self.svg.get_current_layer().add(inkex.PathElement(id='Divider ' + str(index)))
pe.set_path(Path(d.path_string).translate(0, (index * (d.height + d.thickness))).rotate(180))
pe.style = line_style
def color_block_to_realistic_stitches(color_block, svg, destination):
for point_list in color_block_to_point_lists(color_block):
color = color_block.color.visible_on_white.darker.to_hex_str()
start = point_list[0]
for point in point_list[1:]:
destination.append(
inkex.PathElement(
attrib={
'style':
"fill: %s; stroke: none; filter: url(#realistic-stitch-filter);"
% color,
'd':
realistic_stitch(start, point),
'transform':
get_correction_transform(svg)
}))
start = point
def effect(self):
newpath = None
for node in self.svg.selected.values():
if isinstance(node, Rectangle):
# create new path with basic dimensions of selected rectangle
newpath = inkex.PathElement()
x = float(node.get('x'))
y = float(node.get('y'))
w = float(node.get('width'))
h = float(node.get('height'))
# copy attributes of rect
newpath.style = node.style
newpath.transform = node.transform
# top and bottom were exchanged
newpath.path = \
drawfunction(self.options.xstart,
self.options.xend,
self.options.ybottom,
self.options.ytop,
self.options.samples,
w, h, x, y + h,
self.options.fofx,
self.options.fpofx,
self.options.fponum,
self.options.times2pi,
self.options.polar,
self.options.isoscale,
self.options.drawaxis,
self.options.endpts)
newpath.set('title', self.options.fofx)
# add path into SVG structure
node.getparent().append(newpath)
# option whether to clip the path with rect or not.
if self.options.clip:
clip = self.svg.defs.add(ClipPath())
clip.set_random_id()
clip.append(node.copy())
newpath.set('clip-path', clip.get_id(as_url=2))
# option whether to remove the rectangle or not.
if self.options.remove:
node.getparent().remove(node)
if newpath is None:
raise inkex.AbortExtension(_("Please select a rectangle"))
def draw_SVG_tri(point1, point2, point3, offset, width, name, parent):
style = {'stroke': '#000000', 'stroke-width': str(width), 'fill': 'none'}
elem = parent.add(inkex.PathElement())
elem.update(
**{
'style':
style,
'inkscape:label':
name,
'd':
'M ' + str(point1[X] + offset[X]) + ',' +
str(point1[Y] + offset[Y]) + ' L ' + str(point2[X] + offset[X]) +
',' + str(point2[Y] + offset[Y]) + ' L ' +
str(point3[X] + offset[X]) + ',' + str(point3[Y] + offset[Y]) +
' L ' + str(point1[X] + offset[X]) + ',' +
str(point1[Y] + offset[Y]) + ' z'
})
return elem
def effect(self):
for node in self.svg.selected:
if isinstance(node, inkex.Rectangle):
# create new path with basic dimensions of selected rectangle
newpath = inkex.PathElement()
x = float(node.get('x'))
y = float(node.get('y'))
width = float(node.get('width'))
height = float(node.get('height'))
# copy attributes of rect
newpath.style = node.style
newpath.transform = node.transform
# top and bottom were exchanged
newpath.path = \
drawfunction(self.options.t_start,
self.options.t_end,
self.options.xleft,
self.options.xright,
self.options.ybottom,
self.options.ytop,
self.options.samples,
width, height, x, y + height,
self.options.fofx,
self.options.fofy,
self.options.times2pi,
self.options.isoscale,
self.options.drawaxis)
newpath.set('title',
self.options.fofx + " " + self.options.fofy)
# newpath.set('desc', '!func;' + self.options.fofx + ';' + self.options.fofy + ';'
# + `self.options.t_start` + ';'
# + `self.options.t_end` + ';'
# + `self.options.samples`)
# add path into SVG structure
node.getparent().append(newpath)
# option whether to remove the rectangle or not.
if self.options.remove:
node.getparent().remove(node)
def color_block_to_paths(color_block, svg, destination, visual_commands):
# If we try to import these above, we get into a mess of circular
# imports.
from ..commands import add_commands
from ..elements.stroke import Stroke
# We could emit just a single path with one subpath per point list, but
# emitting multiple paths makes it easier for the user to manipulate them.
first = True
path = None
for point_list in color_block_to_point_lists(color_block):
if first:
first = False
elif visual_commands:
add_commands(Stroke(destination[-1]), ["trim"])
color = color_block.color.visible_on_white.to_hex_str()
path = inkex.PathElement(
attrib={
'id':
svg.get_unique_id("object"),
'style':
"stroke: %s; stroke-width: 0.4; fill: none;" % color,
'd':
"M" + " ".join(" ".join(str(coord) for coord in point)
for point in point_list),
'transform':
get_correction_transform(svg),
INKSTITCH_ATTRIBS['manual_stitch']:
'true'
})
destination.append(path)
if path is not None and visual_commands:
if color_block.trim_after:
add_commands(Stroke(path), ["trim"])
if color_block.stop_after:
add_commands(Stroke(path), ["stop"])
