simple_figure_info = """
Some info there
that will appear in the parameter window
"""
# display the figure
cnc25d_api.figure_simple_display(simple_figure, overlay_figure, simple_figure_info)
simple_extrude_height = 20.0
# create a FreeCAD part
simple_part = cnc25d_api.figure_to_freecad_25d_part(simple_figure, simple_extrude_height)
# create the test_output_dir
test_output_dir = "test_output"
cnc25d_api.mkdir_p(test_output_dir)
# write the SVG file with mozman svgwrite
cnc25d_api.write_figure_in_svg(simple_figure, "{:s}/simple_part_mozman.svg".format(test_output_dir))
# write the DXF file with mozman dxfwrite
cnc25d_api.write_figure_in_dxf(simple_figure, "{:s}/simple_part_mozman.dxf".format(test_output_dir))
# simple_part in 3D BRep
print("Generate {:s}/simple_part.brep".format(test_output_dir))
simple_part.exportBrep("{:s}/simple_part.brep".format(test_output_dir))
# simple_part in 2D DXF
print("Generate {:s}/simple_part.dxf".format(test_output_dir))
# slice simple_part in the XY plan at a height of simple_extrude_height/2
cnc25d_api.export_to_dxf(simple_part, Base.Vector(0,0,1), simple_extrude_height/2, "{:s}/simple_part.dxf".format(test_output_dir))
Some info there
that will appear in the parameter window
"""
# display the figure
cnc25d_api.figure_simple_display(simple_figure, overlay_figure,
simple_figure_info)
simple_extrude_height = 20.0
# create a FreeCAD part
simple_part = cnc25d_api.figure_to_freecad_25d_part(simple_figure,
simple_extrude_height)
# create the test_output_dir
test_output_dir = "test_output"
cnc25d_api.mkdir_p(test_output_dir)
# write the SVG file with mozman svgwrite
cnc25d_api.write_figure_in_svg(
simple_figure, "{:s}/simple_part_mozman.svg".format(test_output_dir))
# write the DXF file with mozman dxfwrite
cnc25d_api.write_figure_in_dxf(
simple_figure, "{:s}/simple_part_mozman.dxf".format(test_output_dir))
# simple_part in 3D BRep
six.print_(("Generate {:s}/simple_part.brep".format(test_output_dir)))
simple_part.exportBrep("{:s}/simple_part.brep".format(test_output_dir))
# simple_part in 2D DXF
six.print_(("Generate {:s}/simple_part.dxf".format(test_output_dir)))
# slice simple_part in the XY plan at a height of simple_extrude_height/2
("overlay_lines", cnc25d_api.outline_arc_line((100, 100, 40), "tkinter"), "orange", 1)
) # create a circle
r_canvas_graphics.append(("overlay_lines", cnc25d_api.outline_arc_line(my_curve, "tkinter"), "green", 2))
r_canvas_graphics.append(("graphic_lines", cnc25d_api.outline_arc_line(my_curve_for_cnc, "tkinter"), "blue", 1))
return r_canvas_graphics
# end of callback function
my_canvas.add_canvas_graphic_function(sub_canvas_graphics)
tk_root.mainloop()
del (my_canvas, tk_root) # because Tkinter will be used again later in this script
#
l_output_dir = "test_output"
print("Create the output directory: {:s}".format(l_output_dir))
cnc25d_api.mkdir_p(l_output_dir)
################################################################
# Write the outline in a SVG file
################################################################
## write my_outline_for_cnc in a SVG file
print("Write the outlines in a SVG file with svgwrite")
output_svg_file_name = "{:s}/outlines_with_svgwrite.svg".format(l_output_dir)
my_circle = (100, 100, 40)
svg_figures = [my_outline_for_cnc, my_outline_for_cnc_rotated, my_circle] # figure = list of (format B) outlines
cnc25d_api.write_figure_in_svg(svg_figures, output_svg_file_name)
################################################################
# Write the outline in a DXF file
################################################################
r_canvas_graphics.append(('graphic_lines', cnc25d_api.outline_arc_line(my_outline_for_cnc_closed, 'tkinter'), 'blue', 1))
r_canvas_graphics.append(('graphic_lines', cnc25d_api.outline_arc_line(my_outline_for_cnc_reverse, 'tkinter'), 'blue', 1))
#r_canvas_graphics.append(('overlay_lines', cnc25d_api.outline_circle((100,100), 40, 'tkinter'), 'orange', 1)) # create a circle (obsolete)
r_canvas_graphics.append(('overlay_lines', cnc25d_api.outline_arc_line((100, 100, 40), 'tkinter'), 'orange', 1)) # create a circle
r_canvas_graphics.append(('overlay_lines', cnc25d_api.outline_arc_line(my_curve, 'tkinter'), 'green', 2))
r_canvas_graphics.append(('graphic_lines', cnc25d_api.outline_arc_line(my_curve_for_cnc, 'tkinter'), 'blue', 1))
return(r_canvas_graphics)
# end of callback function
my_canvas.add_canvas_graphic_function(sub_canvas_graphics)
tk_root.mainloop()
del (my_canvas, tk_root) # because Tkinter will be used again later in this script
#
l_output_dir = "test_output"
six.print_(("Create the output directory: {:s}".format(l_output_dir)))
cnc25d_api.mkdir_p(l_output_dir)
################################################################
# Write the outline in a SVG file
################################################################
## write my_outline_for_cnc in a SVG file
print("Write the outlines in a SVG file with svgwrite")
output_svg_file_name = "{:s}/outlines_with_svgwrite.svg".format(l_output_dir)
my_circle = (100, 100, 40)
svg_figures = [my_outline_for_cnc, my_outline_for_cnc_rotated, my_circle] # figure = list of (format B) outlines
cnc25d_api.write_figure_in_svg(svg_figures, output_svg_file_name)
################################################################
# Write the outline in a DXF file
################################################################
