fix stroke width in living hinge boxes
This commit is contained in:
parent
fc2261ce96
commit
a52b8ccf08
@ -27,172 +27,168 @@ import math
|
||||
from lxml import etree
|
||||
import math
|
||||
|
||||
def drawS(XYstring): # Draw lines from a list
|
||||
name='part'
|
||||
style = { 'stroke': '#000000', 'fill': 'none' }
|
||||
drw = {'style': str(inkex.Style(style)),inkex.addNS('label','inkscape'):name,'d':XYstring}
|
||||
etree.SubElement(parent, inkex.addNS('path','svg'), drw )
|
||||
return
|
||||
|
||||
def draw_SVG_ellipse(centerx, centery, radiusx, radiusy, start_end):
|
||||
|
||||
style = { 'stroke' : '#000000',
|
||||
'fill' : 'none' }
|
||||
ell_attribs = {'style': str(inkex.Style(style)),
|
||||
inkex.addNS('cx','sodipodi') :str(centerx),
|
||||
inkex.addNS('cy','sodipodi') :str(centery),
|
||||
inkex.addNS('rx','sodipodi') :str(radiusx),
|
||||
inkex.addNS('ry','sodipodi') :str(radiusy),
|
||||
inkex.addNS('start','sodipodi') :str(start_end[0]),
|
||||
inkex.addNS('end','sodipodi') :str(start_end[1]),
|
||||
inkex.addNS('open','sodipodi') :'true', #all ellipse sectors we will draw are open
|
||||
inkex.addNS('type','sodipodi') :'arc',
|
||||
'transform' :''
|
||||
}
|
||||
|
||||
ell = etree.SubElement(parent, inkex.addNS('path','svg'), ell_attribs )
|
||||
|
||||
#draw an SVG line segment between the given (raw) points
|
||||
def draw_SVG_line( x1, y1, x2, y2, parent):
|
||||
style = { 'stroke': '#000000', 'fill': 'none' }
|
||||
|
||||
line_attribs = {'style' : str(inkex.Style(style)),
|
||||
'd' : 'M '+str(x1)+','+str(y1)+' L '+str(x2)+','+str(y2)}
|
||||
|
||||
line = etree.SubElement(parent, inkex.addNS('path','svg'), line_attribs )
|
||||
|
||||
def EllipseCircumference(a, b):
|
||||
"""
|
||||
Compute the circumference of an ellipse with semi-axes a and b.
|
||||
Require a >= 0 and b >= 0. Relative accuracy is about 0.5^53.
|
||||
"""
|
||||
import math
|
||||
x, y = max(a, b), min(a, b)
|
||||
digits = 53; tol = math.sqrt(math.pow(0.5, digits))
|
||||
if digits * y < tol * x: return 4 * x
|
||||
s = 0; m = 1
|
||||
while x - y > tol * y:
|
||||
x, y = 0.5 * (x + y), math.sqrt(x * y)
|
||||
m *= 2; s += m * math.pow(x - y, 2)
|
||||
return math.pi * (math.pow(a + b, 2) - s) / (x + y)
|
||||
|
||||
"""
|
||||
Gives you a list of points that make up a box.
|
||||
|
||||
Returns string suitable for input to drawS
|
||||
"""
|
||||
def box(sx, sy,ex, ey, leaveLeftSideOpen = False):
|
||||
s=[]
|
||||
s='M '+str(sx)+','+str(sy)+' '
|
||||
s+='L '+str(ex)+','+str(sy)+' '
|
||||
s+='L '+str(ex)+','+str(ey)+' '
|
||||
s+='L '+str(sx)+','+str(ey)+' '
|
||||
if not leaveLeftSideOpen:
|
||||
s+='L '+str(sx)+','+str(sy)+' '
|
||||
return s
|
||||
|
||||
"""
|
||||
Side function is used to render any of the sides so needs all this functionality:
|
||||
isLongSide -- long sides without tabs (for cover),
|
||||
truncate -- partial sides for the elipse
|
||||
gap -- extend the tabs on the curved side for ease of movement
|
||||
thumbTab -- Render individual boxes for slots instead of one continuous line
|
||||
|
||||
isTab is used to specify the male/female designation for a side so they mesh properly. Otherwise the tabs
|
||||
would be in the same spot for opposing sides, instead of interleaved.
|
||||
|
||||
Returns a list of lines to draw.
|
||||
"""
|
||||
def side(rx,ry,sox,soy,eox,eoy,tabVec,length, dirx, diry, isTab, isLongSide, truncate = False, gap = False, thumbTab = False):
|
||||
# root startOffset endOffset tabVec length direction isTab
|
||||
|
||||
#Long side length= length+((math.pi*(length/2))/4
|
||||
tmpLength = 0
|
||||
correctionLocal = correction
|
||||
if gap:
|
||||
correctionLocal = (correction)
|
||||
if isLongSide > 0:
|
||||
tmpLength = length
|
||||
length = isLongSide
|
||||
|
||||
divs=int(length/nomTab) # divisions
|
||||
if not divs%2: divs-=1 # make divs odd
|
||||
if isLongSide < 0:
|
||||
divs = 1
|
||||
|
||||
divs=float(divs)
|
||||
tabs=(divs-1)/2 # tabs for side
|
||||
|
||||
if isLongSide < 0:
|
||||
divs = 1
|
||||
tabWidth = length
|
||||
gapWidth = 0
|
||||
elif equalTabs:
|
||||
gapWidth=tabWidth=length/divs
|
||||
else:
|
||||
tabWidth=nomTab
|
||||
gapWidth=(length-tabs*nomTab)/(divs-tabs)
|
||||
|
||||
if isTab: # kerf correction
|
||||
gapWidth-=correctionLocal
|
||||
tabWidth+=correctionLocal
|
||||
first=correctionLocal/2
|
||||
else:
|
||||
gapWidth+=correctionLocal
|
||||
tabWidth-=correctionLocal
|
||||
first=-correctionLocal/2
|
||||
|
||||
s=[]
|
||||
firstVec=0; secondVec=tabVec
|
||||
if gap:
|
||||
secondVec *= 2
|
||||
dirxN=0 if dirx else 1 # used to select operation on x or y
|
||||
diryN=0 if diry else 1
|
||||
(Vx,Vy)=(rx+sox*thickness,ry+soy*thickness)
|
||||
s='M '+str(Vx)+','+str(Vy)+' '
|
||||
|
||||
if dirxN: Vy=ry # set correct line start
|
||||
if diryN: Vx=rx
|
||||
|
||||
if isLongSide > 0: #LongSide is a side without tabs for a portion.
|
||||
length = tmpLength
|
||||
divs=int((Z/2)/nomTab)
|
||||
if not divs%2: divs-=1
|
||||
divs = float(divs)
|
||||
|
||||
# generate line as tab or hole using:
|
||||
# last co-ord:Vx,Vy ; tab dir:tabVec ; direction:dirx,diry ; thickness:thickness
|
||||
# divisions:divs ; gap width:gapWidth ; tab width:tabWidth
|
||||
for n in range(1,int(divs)):
|
||||
if n%2:
|
||||
Vx=Vx+dirx*gapWidth+dirxN*firstVec+first*dirx
|
||||
Vy=Vy+diry*gapWidth+diryN*firstVec+first*diry
|
||||
s+='L '+str(Vx)+','+str(Vy)+' '
|
||||
Vx=Vx+dirxN*secondVec
|
||||
Vy=Vy+diryN*secondVec
|
||||
s+='L '+str(Vx)+','+str(Vy)+' '
|
||||
else:
|
||||
Vxs = Vx
|
||||
Vys = Vy
|
||||
Vx=Vx+dirx*tabWidth+dirxN*firstVec
|
||||
Vy=Vy+diry*tabWidth+diryN*firstVec
|
||||
s+='L '+str(Vx)+','+str(Vy)+' '
|
||||
Vx=Vx+dirxN*secondVec
|
||||
Vy=Vy+diryN*secondVec
|
||||
s+='L '+str(Vx)+','+str(Vy)+' '
|
||||
if thumbTab:
|
||||
drawS(box(Vxs,Vys,Vx,Vy))
|
||||
(secondVec,firstVec)=(-secondVec,-firstVec) # swap tab direction
|
||||
first=0
|
||||
if not truncate:
|
||||
s+='L '+str(rx+eox*thickness+dirx*length)+','+str(ry+eoy*thickness+diry*length)+' '
|
||||
else: #Truncate specifies that a side is incomplete in preperation for a curve
|
||||
s+='L '+str(rx+eox*thickness+dirx*(length/2))+','+str(ry+eoy*thickness+diry*(length/2))+' '
|
||||
return s
|
||||
|
||||
#God class. Makes poor design, but not much object oriented in this guy...
|
||||
class BoxMakerLivingHinge(inkex.EffectExtension):
|
||||
|
||||
def drawS(self, XYstring): # Draw lines from a list
|
||||
name='part'
|
||||
style = { 'stroke': '#000000', 'stroke-width': self.svg.unittouu('1px'), 'fill': 'none' }
|
||||
drw = {'style': str(inkex.Style(style)),inkex.addNS('label','inkscape'):name,'d':XYstring}
|
||||
etree.SubElement(parent, inkex.addNS('path','svg'), drw )
|
||||
return
|
||||
|
||||
def draw_SVG_ellipse(self, centerx, centery, radiusx, radiusy, start_end):
|
||||
style = { 'stroke': '#000000', 'stroke-width': self.svg.unittouu('1px'), 'fill': 'none' }
|
||||
ell_attribs = {'style': str(inkex.Style(style)),
|
||||
inkex.addNS('cx','sodipodi') :str(centerx),
|
||||
inkex.addNS('cy','sodipodi') :str(centery),
|
||||
inkex.addNS('rx','sodipodi') :str(radiusx),
|
||||
inkex.addNS('ry','sodipodi') :str(radiusy),
|
||||
inkex.addNS('start','sodipodi') :str(start_end[0]),
|
||||
inkex.addNS('end','sodipodi') :str(start_end[1]),
|
||||
inkex.addNS('open','sodipodi') :'true', #all ellipse sectors we will draw are open
|
||||
inkex.addNS('type','sodipodi') :'arc',
|
||||
'transform' :''
|
||||
}
|
||||
ell = etree.SubElement(parent, inkex.addNS('path','svg'), ell_attribs )
|
||||
|
||||
#draw an SVG line segment between the given (raw) points
|
||||
def draw_SVG_line(self, x1, y1, x2, y2, parent):
|
||||
style = { 'stroke': '#000000', 'stroke-width': self.svg.unittouu('1px'), 'fill': 'none' }
|
||||
line_attribs = {'style' : str(inkex.Style(style)),
|
||||
'd' : 'M '+str(x1)+','+str(y1)+' L '+str(x2)+','+str(y2)}
|
||||
line = etree.SubElement(parent, inkex.addNS('path','svg'), line_attribs )
|
||||
|
||||
def EllipseCircumference(self, a, b):
|
||||
"""
|
||||
Compute the circumference of an ellipse with semi-axes a and b.
|
||||
Require a >= 0 and b >= 0. Relative accuracy is about 0.5^53.
|
||||
"""
|
||||
import math
|
||||
x, y = max(a, b), min(a, b)
|
||||
digits = 53; tol = math.sqrt(math.pow(0.5, digits))
|
||||
if digits * y < tol * x: return 4 * x
|
||||
s = 0; m = 1
|
||||
while x - y > tol * y:
|
||||
x, y = 0.5 * (x + y), math.sqrt(x * y)
|
||||
m *= 2; s += m * math.pow(x - y, 2)
|
||||
return math.pi * (math.pow(a + b, 2) - s) / (x + y)
|
||||
|
||||
"""
|
||||
Gives you a list of points that make up a box.
|
||||
|
||||
Returns string suitable for input to drawS
|
||||
"""
|
||||
def box(self, sx, sy,ex, ey, leaveLeftSideOpen = False):
|
||||
s=[]
|
||||
s='M '+str(sx)+','+str(sy)+' '
|
||||
s+='L '+str(ex)+','+str(sy)+' '
|
||||
s+='L '+str(ex)+','+str(ey)+' '
|
||||
s+='L '+str(sx)+','+str(ey)+' '
|
||||
if not leaveLeftSideOpen:
|
||||
s+='L '+str(sx)+','+str(sy)+' '
|
||||
return s
|
||||
|
||||
"""
|
||||
Side function is used to render any of the sides so needs all this functionality:
|
||||
isLongSide -- long sides without tabs (for cover),
|
||||
truncate -- partial sides for the elipse
|
||||
gap -- extend the tabs on the curved side for ease of movement
|
||||
thumbTab -- Render individual boxes for slots instead of one continuous line
|
||||
|
||||
isTab is used to specify the male/female designation for a side so they mesh properly. Otherwise the tabs
|
||||
would be in the same spot for opposing sides, instead of interleaved.
|
||||
|
||||
Returns a list of lines to draw.
|
||||
"""
|
||||
def side(self, rx,ry,sox,soy,eox,eoy,tabVec,length, dirx, diry, isTab, isLongSide, truncate = False, gap = False, thumbTab = False):
|
||||
# root startOffset endOffset tabVec length direction isTab
|
||||
|
||||
#Long side length= length+((math.pi*(length/2))/4
|
||||
tmpLength = 0
|
||||
correctionLocal = correction
|
||||
if gap:
|
||||
correctionLocal = (correction)
|
||||
if isLongSide > 0:
|
||||
tmpLength = length
|
||||
length = isLongSide
|
||||
|
||||
divs=int(length/nomTab) # divisions
|
||||
if not divs%2: divs-=1 # make divs odd
|
||||
if isLongSide < 0:
|
||||
divs = 1
|
||||
|
||||
divs=float(divs)
|
||||
tabs=(divs-1)/2 # tabs for side
|
||||
|
||||
if isLongSide < 0:
|
||||
divs = 1
|
||||
tabWidth = length
|
||||
gapWidth = 0
|
||||
elif equalTabs:
|
||||
gapWidth=tabWidth=length/divs
|
||||
else:
|
||||
tabWidth=nomTab
|
||||
gapWidth=(length-tabs*nomTab)/(divs-tabs)
|
||||
|
||||
if isTab: # kerf correction
|
||||
gapWidth-=correctionLocal
|
||||
tabWidth+=correctionLocal
|
||||
first=correctionLocal/2
|
||||
else:
|
||||
gapWidth+=correctionLocal
|
||||
tabWidth-=correctionLocal
|
||||
first=-correctionLocal/2
|
||||
|
||||
s=[]
|
||||
firstVec=0; secondVec=tabVec
|
||||
if gap:
|
||||
secondVec *= 2
|
||||
dirxN=0 if dirx else 1 # used to select operation on x or y
|
||||
diryN=0 if diry else 1
|
||||
(Vx,Vy)=(rx+sox*thickness,ry+soy*thickness)
|
||||
s='M '+str(Vx)+','+str(Vy)+' '
|
||||
|
||||
if dirxN: Vy=ry # set correct line start
|
||||
if diryN: Vx=rx
|
||||
|
||||
if isLongSide > 0: #LongSide is a side without tabs for a portion.
|
||||
length = tmpLength
|
||||
divs=int((Z/2)/nomTab)
|
||||
if not divs%2: divs-=1
|
||||
divs = float(divs)
|
||||
|
||||
# generate line as tab or hole using:
|
||||
# last co-ord:Vx,Vy ; tab dir:tabVec ; direction:dirx,diry ; thickness:thickness
|
||||
# divisions:divs ; gap width:gapWidth ; tab width:tabWidth
|
||||
for n in range(1,int(divs)):
|
||||
if n%2:
|
||||
Vx=Vx+dirx*gapWidth+dirxN*firstVec+first*dirx
|
||||
Vy=Vy+diry*gapWidth+diryN*firstVec+first*diry
|
||||
s+='L '+str(Vx)+','+str(Vy)+' '
|
||||
Vx=Vx+dirxN*secondVec
|
||||
Vy=Vy+diryN*secondVec
|
||||
s+='L '+str(Vx)+','+str(Vy)+' '
|
||||
else:
|
||||
Vxs = Vx
|
||||
Vys = Vy
|
||||
Vx=Vx+dirx*tabWidth+dirxN*firstVec
|
||||
Vy=Vy+diry*tabWidth+diryN*firstVec
|
||||
s+='L '+str(Vx)+','+str(Vy)+' '
|
||||
Vx=Vx+dirxN*secondVec
|
||||
Vy=Vy+diryN*secondVec
|
||||
s+='L '+str(Vx)+','+str(Vy)+' '
|
||||
if thumbTab:
|
||||
self.drawS(self.box(Vxs,Vys,Vx,Vy))
|
||||
(secondVec,firstVec)=(-secondVec,-firstVec) # swap tab direction
|
||||
first=0
|
||||
if not truncate:
|
||||
s+='L '+str(rx+eox*thickness+dirx*length)+','+str(ry+eoy*thickness+diry*length)+' '
|
||||
else: #Truncate specifies that a side is incomplete in preperation for a curve
|
||||
s+='L '+str(rx+eox*thickness+dirx*(length/2))+','+str(ry+eoy*thickness+diry*(length/2))+' '
|
||||
return s
|
||||
|
||||
|
||||
|
||||
def add_arguments(self, pars):
|
||||
pars.add_argument('--unit',default='mm',help='Measure Units')
|
||||
pars.add_argument('--inside',type=int,default=0,help='Int/Ext Dimension')
|
||||
@ -241,14 +237,14 @@ class BoxMakerLivingHinge(inkex.EffectExtension):
|
||||
|
||||
for n in range(0,horizontalSlots+1):
|
||||
if n%2: #odd, exterior slot (slot should go all the way to the part edge)
|
||||
draw_SVG_line(Sx + (space * n), Sy, Sx + (space * n), Sy+(height/4)-(solidGap/2), grp)
|
||||
draw_SVG_line(Sx + (space * n), Sy+(height/4)+(solidGap/2), Sx + (space * n), Ey-(height/4)-(solidGap/2), grp)
|
||||
draw_SVG_line(Sx + (space * n), Ey-(height/4)+(solidGap/2), Sx + (space * n), Ey, grp)
|
||||
self.draw_SVG_line(Sx + (space * n), Sy, Sx + (space * n), Sy+(height/4)-(solidGap/2), grp)
|
||||
self.draw_SVG_line(Sx + (space * n), Sy+(height/4)+(solidGap/2), Sx + (space * n), Ey-(height/4)-(solidGap/2), grp)
|
||||
self.draw_SVG_line(Sx + (space * n), Ey-(height/4)+(solidGap/2), Sx + (space * n), Ey, grp)
|
||||
|
||||
else:
|
||||
#even, interior slot (slot shoud not touch edge of part)
|
||||
draw_SVG_line(Sx + (space * n), Sy+solidGap, Sx + (space * n), Sy+(height/2)-(solidGap/2), grp)
|
||||
draw_SVG_line(Sx + (space * n), Ey-(height/2)+(solidGap/2), Sx + (space * n), Ey-solidGap, grp)
|
||||
self.draw_SVG_line(Sx + (space * n), Sy+solidGap, Sx + (space * n), Sy+(height/2)-(solidGap/2), grp)
|
||||
self.draw_SVG_line(Sx + (space * n), Ey-(height/2)+(solidGap/2), Sx + (space * n), Ey-solidGap, grp)
|
||||
|
||||
"""
|
||||
The sprial based designs are built from multiple calls of this function.
|
||||
@ -280,13 +276,13 @@ class BoxMakerLivingHinge(inkex.EffectExtension):
|
||||
|
||||
for n in range(0,horizontalSlots):
|
||||
newX = (((space/2) + (space*n)) * reverse)
|
||||
draw_SVG_line((centerX - newX), centerY + (space/2) + (space * n), (centerX - newX ), centerY - (space * 1.5) - (space * n), grp)
|
||||
self.draw_SVG_line((centerX - newX), centerY + (space/2) + (space * n), (centerX - newX ), centerY - (space * 1.5) - (space * n), grp)
|
||||
if horizontalSlots - 1 != n: #Last line in center should be omited
|
||||
draw_SVG_line((centerX - (space + (space/2 * -reverse)) - (space*n) ), centerY - (space * 1.5) - (space * n), (centerX + (space + (space/2 * reverse)) + (space*n) ), centerY - (space * 1.5) - (space * n), grp)
|
||||
self.draw_SVG_line((centerX - (space + (space/2 * -reverse)) - (space*n) ), centerY - (space * 1.5) - (space * n), (centerX + (space + (space/2 * reverse)) + (space*n) ), centerY - (space * 1.5) - (space * n), grp)
|
||||
|
||||
draw_SVG_line((centerX + newX ), centerY - (space/2) - (space * n), (centerX + newX ), centerY + (space * 1.5) + (space * n), grp)
|
||||
self.draw_SVG_line((centerX + newX ), centerY - (space/2) - (space * n), (centerX + newX ), centerY + (space * 1.5) + (space * n), grp)
|
||||
if horizontalSlots - 1 != n: #Last line in center should be omited
|
||||
draw_SVG_line((centerX + (space + (space/2 * -reverse)) + (space*n) ), centerY + (space * 1.5) + (space * n), (centerX - (space + (space/2 * reverse)) - (space*n) ), centerY + (space * 1.5) + (space * n), grp)
|
||||
self.draw_SVG_line((centerX + (space + (space/2 * -reverse)) + (space*n) ), centerY + (space * 1.5) + (space * n), (centerX - (space + (space/2 * reverse)) - (space*n) ), centerY + (space * 1.5) + (space * n), grp)
|
||||
|
||||
"""
|
||||
The snake based designs are built from multiple calls of this function.
|
||||
@ -324,20 +320,20 @@ class BoxMakerLivingHinge(inkex.EffectExtension):
|
||||
for n in range(1 - skew,horizontalSlots + skew):
|
||||
if not rotate:
|
||||
if (n+mirror)%2:
|
||||
draw_SVG_line(Sx + (space * n), Sy + solidGap, Sx + (space * n), Ey, grp)
|
||||
self.draw_SVG_line(Sx + (space * n), Sy + solidGap, Sx + (space * n), Ey, grp)
|
||||
else:
|
||||
draw_SVG_line(Sx + (space * n), Sy, Sx + (space * n), Ey - solidGap, grp)
|
||||
self.draw_SVG_line(Sx + (space * n), Sy, Sx + (space * n), Ey - solidGap, grp)
|
||||
else:
|
||||
if (n+mirror)%2:
|
||||
draw_SVG_line(Sx + solidGap, Sy + (space * n), Ex, Sy + (space * n), grp)
|
||||
self.draw_SVG_line(Sx + solidGap, Sy + (space * n), Ex, Sy + (space * n), grp)
|
||||
else:
|
||||
draw_SVG_line(Sx, Sy + (space * n), Ex - solidGap, Sy + (space * n), grp)
|
||||
self.draw_SVG_line(Sx, Sy + (space * n), Ex - solidGap, Sy + (space * n), grp)
|
||||
if rotate and not mirror:
|
||||
draw_SVG_line(Sx, Sy, Sx, Ey - space, grp)
|
||||
draw_SVG_line(Ex, Sy + space, Ex, Ey, grp)
|
||||
self.draw_SVG_line(Sx, Sy, Sx, Ey - space, grp)
|
||||
self.draw_SVG_line(Ex, Sy + space, Ex, Ey, grp)
|
||||
elif mirror:
|
||||
draw_SVG_line(Sx, Sy + space, Sx, Ey, grp)
|
||||
draw_SVG_line(Ex, Sy, Ex, Ey - space, grp)
|
||||
self.draw_SVG_line(Sx, Sy + space, Sx, Ey, grp)
|
||||
self.draw_SVG_line(Ex, Sy, Ex, Ey - space, grp)
|
||||
|
||||
def effect(self):
|
||||
global parent,nomTab,equalTabs,thickness,correction, Z, unit
|
||||
@ -427,7 +423,7 @@ class BoxMakerLivingHinge(inkex.EffectExtension):
|
||||
#center middle row
|
||||
[(2,0,0,1),(2,0,0,1),X,Y,0b0000,0],
|
||||
#right middle row
|
||||
[(3,1,0,1),(2,0,0,1),Z+(EllipseCircumference(X/2, Z/2)/4)+thickness,Y,0b1011,1],
|
||||
[(3,1,0,1),(2,0,0,1),Z+(self.EllipseCircumference(X/2, Z/2)/4)+thickness,Y,0b1011,1],
|
||||
#center top row
|
||||
[(2,0,0,1),(1,0,0,0),X,Z,0b0010,-1]]
|
||||
elif layout==1: # Inline(compact) Layout
|
||||
@ -439,7 +435,6 @@ class BoxMakerLivingHinge(inkex.EffectExtension):
|
||||
[(3,1,0,1),(1,0,0,0),X,Z,0b1000,-2],
|
||||
[(4,2,0,1),(1,0,0,0),X,Z,0b0010,-1],
|
||||
#Long piece w/ hinge
|
||||
[(5,3,0,1),(1,0,0,0),Z+(EllipseCircumference(X/2, Z/2)/4)+thickness,Y,0b1011,1]
|
||||
]
|
||||
|
||||
for piece in pieces: # generate and draw each piece of the box
|
||||
@ -462,50 +457,50 @@ class BoxMakerLivingHinge(inkex.EffectExtension):
|
||||
|
||||
# generate and draw the sides of each piece
|
||||
if piece[5] != -1:
|
||||
drawS(side(x,y,d,a,-b,a,-thickness if a else thickness,dx,1,0,a,longSide)) # side a (top)
|
||||
self.drawS(self.side(x,y,d,a,-b,a,-thickness if a else thickness,dx,1,0,a,longSide)) # side a (top)
|
||||
else:
|
||||
drawS(side(x,y,d,a,-b,a,-thickness if a else thickness,dx/2,1,0,a,-1)) # side a (top) when the top participates in a curve
|
||||
self.drawS(self.side(x,y,d,a,-b,a,-thickness if a else thickness,dx/2,1,0,a,-1)) # side a (top) when the top participates in a curve
|
||||
|
||||
if piece[5] != -1 and piece[5] != 1:
|
||||
drawS(side(x+dx+skew,y,-b,a,-b,-c,thickness if b else -thickness,dy,0,1,b,shortSide, False if piece[5] != -2 else True, False if piece[5] != 1 else True)) # side b (right) except for side with living hinge or curves
|
||||
self.drawS(self.side(x+dx+skew,y,-b,a,-b,-c,thickness if b else -thickness,dy,0,1,b,shortSide, False if piece[5] != -2 else True, False if piece[5] != 1 else True)) # side b (right) except for side with living hinge or curves
|
||||
elif piece[5] == -1:
|
||||
drawS(side(x+dx+skew,y+dy,-b,-c,-b,a,thickness if b else -thickness,dy,0,-1,b,shortSide, True)) # side b (right) when the right side participates in a curve
|
||||
self.drawS(self.side(x+dx+skew,y+dy,-b,-c,-b,a,thickness if b else -thickness,dy,0,-1,b,shortSide, True)) # side b (right) when the right side participates in a curve
|
||||
else:
|
||||
#It is a cardnal sin to compare floats, so assume <0.0005 is 0 since the front end only gives you 3 digits of precision
|
||||
if float(0.0005) <= float(self.options.thumbTab):
|
||||
side(x+dx+skew,y,-b,a,-b,-c,thickness if b else -thickness,dy,0,1,b,shortSide, False, True, True) #The one call to side that doesn't actually draw. Instead, side draws boxes on its own
|
||||
drawS(box(x+dx+skew,y+thickness,x+dx+skew+self.svg.unittouu( thumbTab + unit ),y+dy-thickness, True))
|
||||
self.side(x+dx+skew,y,-b,a,-b,-c,thickness if b else -thickness,dy,0,1,b,shortSide, False, True, True) #The one call to side that doesn't actually draw. Instead, side draws boxes on its own
|
||||
self.drawS(self.box(x+dx+skew,y+thickness,x+dx+skew+self.svg.unittouu( thumbTab + unit ),y+dy-thickness, True))
|
||||
else:
|
||||
drawS(side(x+dx+skew,y,-b,a,-b,-c,thickness if b else -thickness,dy,0,1,b,shortSide, False, True)) #side b (right) on the right side of a living hinge
|
||||
self.drawS(self.side(x+dx+skew,y,-b,a,-b,-c,thickness if b else -thickness,dy,0,1,b,shortSide, False, True)) #side b (right) on the right side of a living hinge
|
||||
|
||||
|
||||
if piece[5] != -2:
|
||||
drawS(side(x,y+dy,d,-c,-b,-c,thickness if c else -thickness,dx,1,0,c,longSide)) # side c (bottom)
|
||||
self.drawS(self.side(x,y+dy,d,-c,-b,-c,thickness if c else -thickness,dx,1,0,c,longSide)) # side c (bottom)
|
||||
else:
|
||||
drawS(side(x,y+dy,d,-c,-b,-c,thickness if c else -thickness,dx/2,1,0,c,-1)) # side c (bottom) when the bottom participates in a curve
|
||||
self.drawS(self.side(x,y+dy,d,-c,-b,-c,thickness if c else -thickness,dx/2,1,0,c,-1)) # side c (bottom) when the bottom participates in a curve
|
||||
|
||||
drawS(side(x,y+dy,d,-c,d,a,-thickness if d else thickness,dy,0,-1,d,0)) # side d (left)
|
||||
self.drawS(self.side(x,y+dy,d,-c,d,a,-thickness if d else thickness,dy,0,-1,d,0)) # side d (left)
|
||||
|
||||
if piece[5] < 0:
|
||||
draw_SVG_ellipse(x+(dx/2), y+(dy/2), (dx/2), (dy/2), [(1.5*math.pi), 0] if piece[5] == -1 else [0, 0.5*math.pi]) #draw the curve
|
||||
self.draw_SVG_ellipse(x+(dx/2), y+(dy/2), (dx/2), (dy/2), [(1.5*math.pi), 0] if piece[5] == -1 else [0, 0.5*math.pi]) #draw the curve
|
||||
|
||||
if piece[5] == 1: #Piece should contain a living hinge
|
||||
if hingeOpt == 0: #Traditional parallel slit
|
||||
self.livingHinge2(x+(Z/2), y, x+(Z/2)+(EllipseCircumference(X/2, Z/2)/4), y + (dy), hingeThick)
|
||||
self.livingHinge2(x+(Z/2), y, x+(Z/2)+(self.EllipseCircumference(X/2, Z/2)/4), y + (dy), hingeThick)
|
||||
elif hingeOpt == 1: #Single spiral
|
||||
if not inside:
|
||||
self.livingHinge3(x+(Z/2), y+thickness, x+(Z/2)+(EllipseCircumference(X/2, Z/2)/4), y + dy - thickness, 1, hingeThick)
|
||||
self.livingHinge3(x+(Z/2), y+thickness, x+(Z/2)+(self.EllipseCircumference(X/2, Z/2)/4), y + dy - thickness, 1, hingeThick)
|
||||
else:
|
||||
self.livingHinge3(x+(Z/2), y + 2*thickness, x+(Z/2)+(EllipseCircumference(X/2, Z/2)/4), y + dy - 2*thickness, 1, hingeThick)
|
||||
self.livingHinge3(x+(Z/2), y + 2*thickness, x+(Z/2)+(self.EllipseCircumference(X/2, Z/2)/4), y + dy - 2*thickness, 1, hingeThick)
|
||||
|
||||
elif hingeOpt == 2: #Double spiral
|
||||
self.livingHinge3(x+(Z/2), y+thickness, x+(Z/2)+(EllipseCircumference(X/2, Z/2)/4), y + (dy/2), 1, hingeThick)
|
||||
self.livingHinge3(x+(Z/2), y+(dy/2), x+(Z/2)+(EllipseCircumference(X/2, Z/2)/4), y + dy - thickness, -1, hingeThick)
|
||||
self.livingHinge3(x+(Z/2), y+thickness, x+(Z/2)+(self.EllipseCircumference(X/2, Z/2)/4), y + (dy/2), 1, hingeThick)
|
||||
self.livingHinge3(x+(Z/2), y+(dy/2), x+(Z/2)+(self.EllipseCircumference(X/2, Z/2)/4), y + dy - thickness, -1, hingeThick)
|
||||
elif hingeOpt == 3 or hingeOpt == 4: #Both snake-based designs
|
||||
self.livingHinge4(x+(Z/2), y, x+(Z/2)+(EllipseCircumference(X/2, Z/2)/4), y + (dy), False if hingeOpt == 3 else True, 0, hingeThick)
|
||||
self.livingHinge4(x+(Z/2), y, x+(Z/2)+(self.EllipseCircumference(X/2, Z/2)/4), y + (dy), False if hingeOpt == 3 else True, 0, hingeThick)
|
||||
elif hingeOpt == 5: #Double snake design
|
||||
self.livingHinge4(x+(Z/2), y, x+(Z/2)+EllipseCircumference(X/2, Z/2)/4, y + (dy/2) + thickness, True, 0, hingeThick) #Add thickness as a cheat so design 4 doesn't have to know if it's a short or long variant
|
||||
self.livingHinge4(x+(Z/2), y + (dy/2) - thickness, (x+(Z/2)+(EllipseCircumference(X/2, Z/2)/4)), y + dy, True, 1, hingeThick)
|
||||
self.livingHinge4(x+(Z/2), y, x+(Z/2)+self.EllipseCircumference(X/2, Z/2)/4, y + (dy/2) + thickness, True, 0, hingeThick) #Add thickness as a cheat so design 4 doesn't have to know if it's a short or long variant
|
||||
self.livingHinge4(x+(Z/2), y + (dy/2) - thickness, (x+(Z/2)+(self.EllipseCircumference(X/2, Z/2)/4)), y + dy, True, 1, hingeThick)
|
||||
|
||||
if __name__ == '__main__':
|
||||
BoxMakerLivingHinge().run()
|
||||
Loading…
Reference in New Issue
Block a user