def effect(self):
width=self.unittouu(str(self.options.width)+self.options.unit)
depth=self.unittouu(str(self.options.depth)+self.options.unit)
height=self.unittouu(str(self.options.height)+self.options.unit)
thickness=self.unittouu(str(self.options.thickness)+self.options.unit)
closeBox=self.options.closebox
innerDim=self.options.inner
# Create main SVG element
tr= 'translate(' + str(self.view_center[0]) + ',' + \
str(self.view_center[1]) + ')'
g_attribs = {
inkex.addNS('label', 'inkscape'): 'Box' + str(width) + "x"+str(height),
'transform': tr }
g = inkex.etree.SubElement(self.current_layer, 'g', g_attribs)
# Create SVG Path for plate
style = formatStyle({ 'stroke': '#000000', \
'fill': 'none', \
'stroke-width': str(self.unittouu('1px')) })
lc.insert_box(g,
(width, depth, height),
(self.options.wsplit,self.options.dsplit,self.options.hsplit),
thickness, innerDim, closeBox, style)
def effect(self):
width = self.unittouu(str(self.options.width) + self.options.unit)
depth = self.unittouu(str(self.options.depth) + self.options.unit)
height = self.unittouu(str(self.options.height) + self.options.unit)
thickness = self.unittouu(
str(self.options.thickness) + self.options.unit)
closeBox = self.options.closebox
innerDim = self.options.inner
# Create main SVG element
tr= 'translate(' + str(self.view_center[0]) + ',' + \
str(self.view_center[1]) + ')'
g_attribs = {
inkex.addNS('label', 'inkscape'):
'Box' + str(width) + "x" + str(height),
'transform':
tr
}
g = inkex.etree.SubElement(self.current_layer, 'g', g_attribs)
# Create SVG Path for plate
style = formatStyle({ 'stroke': '#000000', \
'fill': 'none', \
'stroke-width': str(self.unittouu('1px')) })
lc.insert_box(
g, (width, depth, height),
(self.options.wsplit, self.options.dsplit, self.options.hsplit),
thickness, innerDim, closeBox, style)
def effect(self):
thickness=self.unittouu(str(self.options.thickness)+self.options.unit)
height=self.unittouu(str(self.options.height)+self.options.unit)
iheight=self.unittouu(str(self.options.iheight)+self.options.unit)
if len(self.options.ids)!=1:
print >> sys.stderr,"you must select exactly one object"
return
id=self.options.ids[0]
node=self.selected[id] # Element
(xmin,xmax,ymin,ymax)=simpletransform.computeBBox([node]) # Tuple
width=xmax-xmin
depth=ymax-ymin
nodes=[]
if (node.tag == inkex.addNS('path','svg')):
nodes = [simplepath.parsePath(node.get('d'))]
if (node.tag == inkex.addNS('g','svg')):
nodes = []
for n in node.getchildren():
if (n.tag == inkex.addNS('rect','svg')):
x = float(n.get('x'))
y = float(n.get('y'))
h = float(n.get('height'))
w = float(n.get('width'))
nodes.append([['M', [x,y]],['L', [x+w,y]],['L', [x+w,y+h]],['L', [x,y+h]]])
else:
nodes.append(simplepath.parsePath(n.get('d')))
# inkex.debug(nodes)
if (nodes == []):
print >> sys.stderr,"selected object must be a path or a group of paths"
return
# Create main SVG element
tr= 'translate(' + str(xmin+thickness) + ',' + str(ymax-thickness) + ')'
g_attribs = {
inkex.addNS('label', 'inkscape'): 'Boxify' + str(width) + \
"x" + str(height) , 'transform': tr }
g = inkex.etree.SubElement(self.current_layer, 'g', g_attribs)
# Create SVG Path for plate
style = formatStyle({ 'stroke': '#000000', \
'fill': 'none', \
'stroke-width': str(self.unittouu('1px')) })
# Create main box
vdivs = max(int(height/(2*thickness))-1,1)
lc.insert_box(g,
(width, depth, height),
(int(width/(2*thickness)),
int(depth/(2*thickness)),
vdivs),
thickness, False, False, style)
# Insert remaining edges
# inkex.debug(nodes)
edges = lc.decompose(nodes)
# Position border edges (*after* having translated)
e = edges.pop(0);
e.position((xmax-xmin-thickness,0),'w')
e = edges.pop(0);
e.position((-thickness,ymin-ymax+2*thickness),'e')
e = edges.pop(0);
e.position((xmax-xmin-2*thickness,ymin-ymax+thickness),'s')
e = edges.pop(0);
e.position((0,thickness),'n')
# Handle remaining edges
numedges = 0
for e in edges:
# inkex.debug("==========================")
# inkex.debug(str(e) + "\n")
# style = formatStyle({ 'stroke': "#%06x" % random.randint(0, 0xFFFFFF), \
# 'fill': 'none', \
# 'stroke-width': str(self.unittouu('3px')) })
numedges += 1
# Determine edge direction in the main plate
dir = e.getdir()
# Middle holes
leng = e.getlen()
for (f,df) in e.touch:
if not(f.bnd):
leng += thickness/2
num = int((leng-2*thickness)/(2*thickness))
if (dir == 's') or (dir == 'n'): # Vertical edge
dims = (thickness,(leng-2*thickness)/(2*num+1))
if (dir == 's'):
st = (e.p_from[0]-xmin-thickness,
e.p_from[1]-ymax-dims[1]/2+thickness)
else:
st = (e.p_from[0]-xmin-thickness,
e.p_from[1]-ymax+2*thickness+dims[1]/2)
if not((abs(e.p_from[1]-ymin) < 0.1) or
(abs(e.p_from[1]-ymax) < 0.1)): # Is the start point on the border ?
st = (st[0],st[1]-thickness/2)
else:
st = (st[0],st[1])
else: # Horizontal edge
dims = ((leng-2*thickness)/(2*num+1),thickness)
if (dir == 'e'):
st = (e.p_from[0]-xmin+dims[0]/2,
e.p_from[1]-ymax+thickness)
else:
st = (e.p_from[0]-xmin-2*thickness-dims[0]/2,
e.p_from[1]-ymax+thickness)
if not((abs(e.p_from[0]-xmin) < 0.1) or
(abs(e.p_from[0]-xmax) < 0.1)): # Is the start point on the border ?
if (dir == 'e'):
st = (st[0]-thickness/2,st[1])
else:
st = (st[0]+thickness/2,st[1])
lc.insert_holes(g, st, dims, num+1, dir, style)
# Do we need to split the joins of the edge ?
tm_from = 0; tm_to = 0
for (f,df) in e.touch:
tm_from += len(filter ((lambda q: ((q[0]-e.p_from[0])**2+(q[1]-e.p_from[1]))**2 < 0.1), f.attch))
tm_to += len(filter ((lambda q: ((q[0]-e.p_to[0])**2+(q[1]-e.p_to[1]))**2 < 0.1), f.attch))
vdivs = max(int((height-iheight)/(2*thickness))-1,1)
points=lc.make_plate((height-thickness-iheight,leng),(True,False),
thickness,vdivs,num,
'm' if tm_to <= 1 else ('x' if (e.getdir() == 'w') or (e.getdir() == 'n') else 'w'),False,
'm' if tm_from <= 1 else ('x' if (e.getdir() == 'w') or (e.getdir() == 'n') else 'w'),False,
'-',False,
'f',True)
(dpx,dpy) = (xmax-xmin-2*thickness+numedges*(height-iheight)+iheight,0)
points = lc.translate_points(points,dpx,dpy)
lc.insert_path(g, points, style)
e.position((xmax-xmin+(height-iheight)*(numedges+1)+iheight-2*thickness,
thickness), 'n')
# Left parts
for (f,df) in e.touch:
# inkex.debug("Touch " + str(f) + " -- DIST= " + str(df) + "\n")
vdir = lc.rotatedir(f.dir)
if (vdir == 's') or (vdir == 'n'):
xdim = thickness
ydim = (height-iheight-thickness)/(2*vdivs+1.)
dyf = -2*thickness-3*ydim/2 if vdir == 'n' else +3*ydim/2
df = 1-df
stf = (f.r_from[0]+df*(f.r_to[0]-f.r_from[0]),
f.r_from[1]+df*(f.r_to[1]-f.r_from[1])+thickness+dyf)
vdir = 's' if vdir == 'n' else 'n'
else:
ydim = thickness
xdim = (height-iheight-thickness)/(2*vdivs+1.)
df = 1-df
dxf = 2*thickness+3*xdim/2 if vdir == 'e' else -3*xdim/2
stf = (f.r_from[0]+df*(f.r_to[0]-f.r_from[0])-thickness+dxf,
f.r_from[1]+df*(f.r_to[1]-f.r_from[1]))
lc.insert_holes(g, stf, (xdim,ydim), vdivs, vdir, style)
def effect(self):
thickness = self.unittouu(
str(self.options.thickness) + self.options.unit)
height = self.unittouu(str(self.options.height) + self.options.unit)
iheight = self.unittouu(str(self.options.iheight) + self.options.unit)
if len(self.options.ids) != 1:
print >> sys.stderr, "you must select exactly one object"
return
id = self.options.ids[0]
node = self.selected[id] # Element
(xmin, xmax, ymin, ymax) = simpletransform.computeBBox([node]) # Tuple
width = xmax - xmin
depth = ymax - ymin
nodes = []
if (node.tag == inkex.addNS('path', 'svg')):
nodes = [simplepath.parsePath(node.get('d'))]
if (node.tag == inkex.addNS('g', 'svg')):
nodes = []
for n in node.getchildren():
if (n.tag == inkex.addNS('rect', 'svg')):
x = float(n.get('x'))
y = float(n.get('y'))
h = float(n.get('height'))
w = float(n.get('width'))
nodes.append([['M', [x, y]], ['L', [x + w, y]],
['L', [x + w, y + h]], ['L', [x, y + h]]])
else:
nodes.append(simplepath.parsePath(n.get('d')))
# inkex.debug(nodes)
if (nodes == []):
print >> sys.stderr, "selected object must be a path or a group of paths"
return
# Create main SVG element
tr = 'translate(' + str(xmin + thickness) + ',' + str(ymax -
thickness) + ')'
g_attribs = {
inkex.addNS('label', 'inkscape'): 'Boxify' + str(width) + \
"x" + str(height) , 'transform': tr }
g = inkex.etree.SubElement(self.current_layer, 'g', g_attribs)
# Create SVG Path for plate
style = formatStyle({ 'stroke': '#000000', \
'fill': 'none', \
'stroke-width': str(self.unittouu('1px')) })
# Create main box
vdivs = max(int(height / (2 * thickness)) - 1, 1)
lc.insert_box(g, (width, depth, height), (int(
width / (2 * thickness)), int(depth / (2 * thickness)), vdivs),
thickness, False, False, style)
# Insert remaining edges
# inkex.debug(nodes)
edges = lc.decompose(nodes)
# Position border edges (*after* having translated)
e = edges.pop(0)
e.position((xmax - xmin - thickness, 0), 'w')
e = edges.pop(0)
e.position((-thickness, ymin - ymax + 2 * thickness), 'e')
e = edges.pop(0)
e.position((xmax - xmin - 2 * thickness, ymin - ymax + thickness), 's')
e = edges.pop(0)
e.position((0, thickness), 'n')
# Handle remaining edges
numedges = 0
for e in edges:
# inkex.debug("==========================")
# inkex.debug(str(e) + "\n")
# style = formatStyle({ 'stroke': "#%06x" % random.randint(0, 0xFFFFFF), \
# 'fill': 'none', \
# 'stroke-width': str(self.unittouu('3px')) })
numedges += 1
# Determine edge direction in the main plate
dir = e.getdir()
# Middle holes
leng = e.getlen()
for (f, df) in e.touch:
if not (f.bnd):
leng += thickness / 2
num = int((leng - 2 * thickness) / (2 * thickness))
if (dir == 's') or (dir == 'n'): # Vertical edge
dims = (thickness, (leng - 2 * thickness) / (2 * num + 1))
if (dir == 's'):
st = (e.p_from[0] - xmin - thickness,
e.p_from[1] - ymax - dims[1] / 2 + thickness)
else:
st = (e.p_from[0] - xmin - thickness,
e.p_from[1] - ymax + 2 * thickness + dims[1] / 2)
if not ((abs(e.p_from[1] - ymin) < 0.1) or
(abs(e.p_from[1] - ymax) <
0.1)): # Is the start point on the border ?
st = (st[0], st[1] - thickness / 2)
else:
st = (st[0], st[1])
else: # Horizontal edge
dims = ((leng - 2 * thickness) / (2 * num + 1), thickness)
if (dir == 'e'):
st = (e.p_from[0] - xmin + dims[0] / 2,
e.p_from[1] - ymax + thickness)
else:
st = (e.p_from[0] - xmin - 2 * thickness - dims[0] / 2,
e.p_from[1] - ymax + thickness)
if not ((abs(e.p_from[0] - xmin) < 0.1) or
(abs(e.p_from[0] - xmax) <
0.1)): # Is the start point on the border ?
if (dir == 'e'):
st = (st[0] - thickness / 2, st[1])
else:
st = (st[0] + thickness / 2, st[1])
lc.insert_holes(g, st, dims, num + 1, dir, style)
# Do we need to split the joins of the edge ?
tm_from = 0
tm_to = 0
for (f, df) in e.touch:
tm_from += len(
filter((lambda q: ((q[0] - e.p_from[0])**2 +
(q[1] - e.p_from[1]))**2 < 0.1),
f.attch))
tm_to += len(
filter((lambda q: ((q[0] - e.p_to[0])**2 +
(q[1] - e.p_to[1]))**2 < 0.1), f.attch))
vdivs = max(int((height - iheight) / (2 * thickness)) - 1, 1)
points = lc.make_plate(
(height - thickness - iheight, leng), (True, False), thickness,
vdivs, num, 'm' if tm_to <= 1 else
('x' if (e.getdir() == 'w') or (e.getdir() == 'n') else 'w'),
False, 'm' if tm_from <= 1 else
('x' if (e.getdir() == 'w') or (e.getdir() == 'n') else 'w'),
False, '-', False, 'f', True)
(dpx, dpy) = (xmax - xmin - 2 * thickness + numedges *
(height - iheight) + iheight, 0)
points = lc.translate_points(points, dpx, dpy)
lc.insert_path(g, points, style)
e.position((xmax - xmin + (height - iheight) *
(numedges + 1) + iheight - 2 * thickness, thickness),
'n')
# Left parts
for (f, df) in e.touch:
# inkex.debug("Touch " + str(f) + " -- DIST= " + str(df) + "\n")
vdir = lc.rotatedir(f.dir)
if (vdir == 's') or (vdir == 'n'):
xdim = thickness
ydim = (height - iheight - thickness) / (2 * vdivs + 1.)
dyf = -2 * thickness - 3 * ydim / 2 if vdir == 'n' else +3 * ydim / 2
df = 1 - df
stf = (f.r_from[0] + df * (f.r_to[0] - f.r_from[0]),
f.r_from[1] + df * (f.r_to[1] - f.r_from[1]) +
thickness + dyf)
vdir = 's' if vdir == 'n' else 'n'
else:
ydim = thickness
xdim = (height - iheight - thickness) / (2 * vdivs + 1.)
df = 1 - df
dxf = 2 * thickness + 3 * xdim / 2 if vdir == 'e' else -3 * xdim / 2
stf = (f.r_from[0] + df * (f.r_to[0] - f.r_from[0]) -
thickness + dxf,
f.r_from[1] + df * (f.r_to[1] - f.r_from[1]))
lc.insert_holes(g, stf, (xdim, ydim), vdivs, vdir, style)