def cmd_str(self, tab_level=0):
v_str = utility.val_to_str(self.v)
if self.a: # If there's an angle use axis/angle
a_str = utility.val_to_str(self.a)
return 'rotate(a=%s,v=%s)' % (a_str, v_str)
# If not a then interpret v as a vector of angles
return 'rotate(a=%s)' % (v_str)
def cmd_str(self, tab_level=0):
facets = self.facets() # Retreve object facet information
tab_str0 = ' ' * utility.TAB_WIDTH * tab_level
tab_str1 = ' ' * utility.TAB_WIDTH * (tab_level + 1)
rtn_str = 'polygon(\n'
rtn_str = '%s%spoints = [\n' % (
rtn_str,
tab_str1,
)
for p in self.points:
p_str = utility.val_to_str(p, tab_level=tab_level + 2)
rtn_str = '%s%s,\n' % (rtn_str, p_str)
rtn_str = '%s%s],\n' % (
rtn_str,
tab_str1,
)
rtn_str = '%s%spaths = [\n' % (
rtn_str,
tab_str1,
)
for p in self.paths:
p_str = utility.val_to_str(p, tab_level=tab_level + 2)
rtn_str = '%s%s,\n' % (rtn_str, p_str)
rtn_str = '%s%s]\n' % (
rtn_str,
tab_str1,
)
rtn_str += facets
rtn_str = '%s%s);\n' % (rtn_str, tab_str0)
return rtn_str
def cmd_str(self,tab_level=0):
v_str = utility.val_to_str(self.v)
if self.a: # If there's an angle use axis/angle
a_str = utility.val_to_str(self.a)
return 'rotate(a=%s,v=%s)'%(a_str,v_str)
# If not a then interpret v as a vector of angles
return 'rotate(a=%s)'%(v_str)
def cmd_str(self,tab_level=0):
h_str = utility.val_to_str(self.h)
twist_str = utility.val_to_str(self.twist)
center_str = self.center_str()
if self.slices == None:
str_tup = (h_str,twist_str,center_str,self.convexity)
rtn_str = 'linear_extrude(height=%s,twist=%s,center=%s,convexity=%d)'%str_tup
else:
str_tup = (h_str,twist_str,center_str,self.convexity,self.slices)
rtn_str = 'linear_extrude(height=%s,twist=%s,center=%s,convexity=%d,slices=%d)'%str_tup
return rtn_str
def cmd_str(self, tab_level=0):
h_str = utility.val_to_str(self.h)
twist_str = utility.val_to_str(self.twist)
center_str = self.center_str()
if self.slices == None:
str_tup = (h_str, twist_str, center_str, self.convexity)
rtn_str = 'linear_extrude(height=%s,twist=%s,center=%s,convexity=%d)' % str_tup
else:
str_tup = (h_str, twist_str, center_str, self.convexity,
self.slices)
rtn_str = 'linear_extrude(height=%s,twist=%s,center=%s,convexity=%d,slices=%d)' % str_tup
return rtn_str
def cmd_str(self, tab_level=0):
facets = self.facets() # Retreve object facet information
center_str = self.center_str()
h_str = utility.val_to_str(self.h)
r1_str = utility.val_to_str(self.r1)
if self.r2:
r2_str = utility.val_to_str(self.r2)
return 'cylinder(h={0},r1={1},r2={2},center={3});'.format(
h_str, r1_str, r2_str, center_str, facets)
# When Cylinder is constant radius the argument is just called 'r'
return 'cylinder(h={0},r={1},center={2}{3});'.format(
h_str, r1_str, center_str, facets)
def cmd_str(self, tab_level=0):
tab_str = ' ' * utility.TAB_WIDTH * tab_level
rtn_str = ''
for k, v in self.items():
rtn_str += '{0}{1} = {2};\n'.format(tab_str, k,
utility.val_to_str(v))
return rtn_str + '\n'
def cmd_str(self,tab_level=0):
facets = self.facets() # Retreve object facet information
r_str = utility.val_to_str(self.r)
center_str = self.center_str()
return 'sphere(r={0}, center={1}{2});'.format(r_str,
center_str,
facets)
def cmd_str(self,tab_level=0):
facets = self.facets() # Retreve object facet information
size_str = utility.val_to_str(self.size)
center_str = self.center_str()
return 'cube(size={0}, center={1}{2});'.format(size_str,
center_str,
facets)
def cmd_str(self,tab_level=0):
facets = self.facets() # Retreve object facet information
center_str = self.center_str()
h_str = utility.val_to_str(self.h)
r1_str = utility.val_to_str(self.r1)
if self.r2:
r2_str = utility.val_to_str(self.r2)
return 'cylinder(h={0},r1={1},r2={2},center={3});'.format(h_str,
r1_str,
r2_str,
center_str,
facets)
# When Cylinder is constant radius the argument is just called 'r'
return 'cylinder(h={0},r={1},center={2}{3});'.format(h_str,
r1_str,
center_str,
facets)
def cmd_str(self,tab_level=0):
facets = self.facets() # Retreve object facet information
tab_str0 = ' '*utility.TAB_WIDTH*tab_level
tab_str1 = ' '*utility.TAB_WIDTH*(tab_level+1)
rtn_str = 'polygon(\n'
rtn_str = '%s%spoints = [\n'%(rtn_str,tab_str1,)
for p in self.points:
p_str = utility.val_to_str(p,tab_level=tab_level+2)
rtn_str = '%s%s,\n'%(rtn_str,p_str)
rtn_str = '%s%s],\n'%(rtn_str,tab_str1,)
rtn_str = '%s%spaths = [\n'%(rtn_str,tab_str1,)
for p in self.paths:
p_str = utility.val_to_str(p,tab_level=tab_level+2)
rtn_str = '%s%s,\n'%(rtn_str,p_str)
rtn_str = '%s%s]\n'%(rtn_str,tab_str1,)
rtn_str += facets
rtn_str = '%s%s);\n'%(rtn_str,tab_str0)
return rtn_str
def __call__(self, mod='', *args):
"""Returns a string calling this module with provided arguments."""
if mod and not mod in list('*!#%'): # mod can eat he first arg
args = (mod,) + args
mod = ''
if len(args) > len(self.args):
raise TypeError("{0}() takes exactly {1} argument(s) ({2} given)".format(self.name, len(self.args), len(args)))
return "{0}{1}({2});".format(mod, self.name,
', '.join(utility.val_to_str(arg) for arg in args))
def __call__(self, mod='', *args):
"""Returns a string calling this module with provided arguments."""
if mod and not mod in list('*!#%'): # mod can eat he first arg
args = (mod, ) + args
mod = ''
if len(args) > len(self.args):
raise TypeError(
"{0}() takes exactly {1} argument(s) ({2} given)".format(
self.name, len(self.args), len(args)))
return "{0}{1}({2});".format(
mod, self.name, ', '.join(utility.val_to_str(arg) for arg in args))
def __str__(self, tab_level=0):
tab_str = ' ' * TAB_WIDTH * tab_level
mod_str = self.mod
comment = ''
if self.comment:
comment = tab_str + '// ' + self.comment + '\n'
rtn_str = '{0}{1}{2}'.format(tab_str, mod_str,
self.cmd_str(tab_level=tab_level))
if self.translate:
translate = tab_str + "translate(" + val_to_str(self.translate)
rtn_str = translate + ") {\n" + ' ' * TAB_WIDTH + rtn_str + "\n}"
return comment + rtn_str
def cmd_str(self, tab_level=0):
facets = self.facets() # Retreve object facet information
size_str = utility.val_to_str(self.size)
center_str = self.center_str()
return 'cube(size={0}, center={1}{2});'.format(size_str, center_str,
facets)
def cmd_str(self,tab_level=0):
rgba_str = utility.val_to_str(self.rgba)
return 'color(%s)'%(rgba_str,)
def cmd_str(self,tab_level=0):
v_str = utility.val_to_str(self.v)
return 'mirror(v=%s)'%(v_str,)
def cmd_str(self, tab_level=0):
v_str = utility.val_to_str(self.v)
return 'translate(v=%s)' % (v_str, )
def cmd_str(self, tab_level=0):
facets = self.facets() # Retreve object facet information
r_str = utility.val_to_str(self.r)
center_str = self.center_str()
return 'sphere(r={0}, center={1}{2});'.format(r_str, center_str,
facets)
def cmd_str(self, tab_level=0):
v_str = utility.val_to_str(self.v)
return 'scale(v=%s)' % (v_str)
def cmd_str(self, tab_level=0):
rgba_str = utility.val_to_str(self.rgba)
return 'color(%s)' % (rgba_str, )
def cmd_str(self, tab_level=0):
facets = self.facets() # Retreve object facet information
r_str = utility.val_to_str(self.r)
rtn_str = 'circle(r={0}{1});'.format(r_str, facets)
return rtn_str
def cmd_str(self, tab_level=0):
tab_str = ' '*utility.TAB_WIDTH*tab_level
rtn_str = ''
for k,v in self.items():
rtn_str += '{0}{1} = {2};\n'.format(tab_str, k, utility.val_to_str(v))
return rtn_str + '\n'
def cmd_str(self,tab_level=0):
v_str = utility.val_to_str(self.v)
return 'scale(v=%s)'%(v_str)
def cmd_str(self,tab_level=0):
facets = self.facets() # Retreve object facet information
r_str = utility.val_to_str(self.r)
rtn_str = 'circle(r={0}{1});'.format(r_str, facets)
return rtn_str
def cmd_str(self,tab_level=0):
v_str = utility.val_to_str(self.v)
return 'translate(v=%s)'%(v_str,)
def cmd_str(self, tab_level=0):
v_str = utility.val_to_str(self.v)
return 'mirror(v=%s)' % (v_str, )