Exemplo n.º 1
0
def main():
    # define where we'll read shapes from
    sources = [
        Path.cwd().parent / "oxford" / "master.dxf",
        Path.cwd().parent / "oxford" / "derivatives" /
        "5x5_cluster_master.dxf",
    ]

    support_thickness = 0.65
    feature_thickness = 0.2
    shim_thickness = 0.5

    support_color = "GOLDENROD"
    feature_color = "GRAY28"
    shim_color = "DARKGREEN"

    # define how we'll tile things
    spacing5 = 30
    array5 = [(x * spacing5, y * spacing5, 0)
              for x, y in itertools.product(range(-2, 3), range(-2, 3))]

    instructions = []
    instructions.append({
        "name":
        "active_mask_stack",
        "layers": [
            {
                "name":
                "active_support",
                "color":
                support_color,
                "thickness":
                support_thickness,
                "drawing_layer_names": [
                    "glass_extents",
                    "aggressive_support_active",
                ],
            },
            {
                "name": "active_feature",
                "color": feature_color,
                "thickness": feature_thickness,
                "drawing_layer_names": [
                    "glass_extents",
                    "active_layer",
                ],
            },
            {
                "name": "spacer_shim",
                "color": shim_color,
                "thickness": shim_thickness,
                "drawing_layer_names": [
                    "glass_extents",
                    "spacer_shim",
                ],
            },
        ],
    })

    instructions.append({
        "name":
        "active_mask_stack_5x5",
        "layers": [
            {
                "name":
                "active_support",
                "color":
                support_color,
                "thickness":
                support_thickness,
                "drawing_layer_names": [
                    "outline_5x5",
                    "aggressive_support_active",
                ],
                "edge_case":
                "inner_outline_5x5",
                "array":
                array5,
            },
            {
                "name":
                "active_feature",
                "color":
                feature_color,
                "thickness":
                feature_thickness,
                "drawing_layer_names": [
                    "outline_no_alignment_5x5",
                    "active_layer",
                ],
                "edge_case":
                "inner_outline_5x5",
                "array":
                array5,
            },
            {
                "name": "spacer_shim",
                "color": shim_color,
                "thickness": shim_thickness,
                "drawing_layer_names": [
                    "outline_no_alignment_5x5",
                    "spacer_shim",
                ],
                "edge_case": "inner_outline_5x5",
                "array": array5,
            },
        ],
    })

    instructions.append({
        "name":
        "metal_mask_stack",
        "layers": [
            {
                "name":
                "metal_support",
                "color":
                support_color,
                "thickness":
                support_thickness,
                "drawing_layer_names": [
                    "glass_extents",
                    "aggressive_metal_support_tc_metal",
                    "aggressive_metal_support_small_upper",
                    "aggressive_metal_support_large_lower",
                ],
            },
            {
                "name":
                "metal_feature",
                "color":
                feature_color,
                "thickness":
                feature_thickness,
                "drawing_layer_names": [
                    "glass_extents",
                    "tc_metal",
                    "pixel_electrodes_small_upper",
                    "pixel_electrodes_large_lower",
                ],
            },
            {
                "name": "spacer_shim_thin",
                "color": shim_color,
                "thickness": shim_thickness,
                "drawing_layer_names": [
                    "glass_extents",
                    "spacer_shim_thin",
                ],
            },
        ],
    })

    instructions.append({
        "name":
        "metal_mask_stack_5x5",
        "layers": [
            {
                "name":
                "metal_support",
                "color":
                support_color,
                "thickness":
                support_thickness,
                "drawing_layer_names": [
                    "outline_5x5",
                    "aggressive_metal_support_tc_metal",
                    "aggressive_metal_support_small_upper",
                    "aggressive_metal_support_large_lower",
                ],
                "edge_case":
                "inner_outline_5x5",
                "array":
                array5,
            },
            {
                "name":
                "metal_feature",
                "color":
                feature_color,
                "thickness":
                feature_thickness,
                "drawing_layer_names": [
                    "outline_no_alignment_5x5",
                    "tc_metal",
                    "pixel_electrodes_small_upper",
                    "pixel_electrodes_large_lower",
                ],
                "edge_case":
                "inner_outline_5x5",
                "array":
                array5,
            },
            {
                "name":
                "spacer_shim_thin",
                "color":
                shim_color,
                "thickness":
                shim_thickness,
                "drawing_layer_names": [
                    "outline_no_alignment_5x5",
                    "spacer_shim_thin",
                ],
                "edge_case":
                "inner_outline_5x5",
                "array":
                array5,
            },
        ],
    })

    ttt = TwoDToThreeD(instructions=instructions, sources=sources)
    to_build = ["active_mask_stack", "metal_mask_stack"]
    # to_build = ["active_mask_stack_5x5"]
    # to_build = [""]  # all of them
    asys = ttt.build(to_build)
    # asy: cadquery.Assembly = list(asys.values())[0]  # TODO:take more than the first value

    for stack_name, asy in asys.items():
        if "show_object" in globals():  # we're in cq-editor
            assembly_mode = True  # at the moment, when true we can't select/deselect subassembly parts
            if assembly_mode:
                show_object(asy)
            else:
                for key, val in asy.traverse():
                    shapes = val.shapes
                    if shapes != []:
                        c = cq.Compound.makeCompound(shapes)
                        odict = {}
                        if val.color is not None:
                            co = val.color.wrapped.GetRGB()
                            rgb = (co.Red(), co.Green(), co.Blue())
                            odict["color"] = rgb
                        show_object(c.locate(val.loc),
                                    name=val.name,
                                    options=odict)
        else:
            # save assembly
            asy.save(
                str(Path(__file__).parent / "output" / f"{stack_name}.step"))
            asy.save(
                str(Path(__file__).parent / "output" / f"{stack_name}.glb"),
                "GLTF")
            # cadquery.exporters.assembly.exportCAF(asy, str(Path(__file__).parent / "output" / f"{stack_name}.std"))
            # cq.Shape.exportBrep(cq.Compound.makeCompound(itertools.chain.from_iterable([x[1].shapes for x in asy.traverse()])), str(Path(__file__).parent / "output" / f"{stack_name}.brep"))

            save_individual_stls = False
            save_individual_steps = False
            save_individual_breps = False
            save_individual_dxfs = True

            # save each shape individually
            for key, val in asy.traverse():
                shapes = val.shapes
                if shapes != []:
                    c = cq.Compound.makeCompound(shapes)
                    if save_individual_stls == True:
                        cadquery.exporters.export(
                            c.locate(val.loc),
                            str(
                                Path(__file__).parent / "output" /
                                f"{stack_name}-{val.name}.stl"))
                    if save_individual_steps == True:
                        cadquery.exporters.export(
                            c.locate(val.loc),
                            str(
                                Path(__file__).parent / "output" /
                                f"{stack_name}-{val.name}.step"))
                    if save_individual_breps == True:
                        cq.Shape.exportBrep(
                            c.locate(val.loc),
                            str(
                                Path(__file__).parent / "output" /
                                f"{stack_name}-{val.name}.brep"))
                    if save_individual_dxfs == True:
                        cl = c.locate(val.loc)
                        bb = cl.BoundingBox()
                        zmid = (bb.zmin + bb.zmax) / 2
                        nwp = CQ("XY", origin=(0, 0, zmid)).add(cl)
                        dxface = nwp.section()
                        cadquery.exporters.export(
                            dxface,
                            str(
                                Path(__file__).parent / "output" /
                                f"{stack_name}-{val.name}.dxf"),
                            cadquery.exporters.ExportTypes.DXF)
Exemplo n.º 2
0
    def outputter(cls,
                  asys,
                  wrk_dir,
                  save_dxfs=False,
                  save_stls=False,
                  save_steps=False,
                  save_breps=False,
                  save_vrmls=False):
        """do output tasks on a dictionary of assemblies"""
        for stack_name, asy in asys.items():
            if "show_object" in globals():  # we're in cq-editor
                assembly_mode = True  # at the moment, when true we can't select/deselect subassembly parts
                if assembly_mode:
                    show_object(asy)
                else:
                    for key, val in asy.traverse():
                        shapes = val.shapes
                        if shapes != []:
                            c = cq.Compound.makeCompound(shapes)
                            odict = {}
                            if val.color is not None:
                                co = val.color.wrapped.GetRGB()
                                rgb = (co.Red(), co.Green(), co.Blue())
                                odict["color"] = rgb
                            show_object(c.locate(val.loc),
                                        name=val.name,
                                        options=odict)
            else:
                Path.mkdir(wrk_dir / "output", exist_ok=True)

                # save assembly
                asy.save(str(wrk_dir / "output" / f"{stack_name}.step"))
                # asy.save(str(wrk_dir / "output" / f"{stack_name}.brep"))
                asy.save(str(wrk_dir / "output" / f"{stack_name}.xml"), "XML")
                # asy.save(str(wrk_dir / "output" / f"{stack_name}.vtkjs"), "VTKJS")

                # stupid workaround for gltf export bug: https://github.com/CadQuery/cadquery/issues/993
                asy2 = None
                # for path, child in asy._flatten().items():
                for child in asy.children:
                    # if "/" in path:
                    if asy2 is None:
                        asy2 = cadquery.Assembly(child.obj,
                                                 name=child.name,
                                                 color=child.color)
                    else:
                        asy2.add(child.obj, name=child.name, color=child.color)
                asy2.save(str(wrk_dir / "output" / f"{stack_name}.glb"),
                          "GLTF")

                # cadquery.exporters.assembly.exportCAF(asy, str(wrk_dir / "output" / f"{stack_name}.std"))
                # cq.Shape.exportBrep(cq.Compound.makeCompound(itertools.chain.from_iterable([x[1].shapes for x in asy.traverse()])), str(wrk_dir / "output" / f"{stack_name}.brep"))

                # save each shape individually
                for key, val in asy.traverse():
                    shapes = val.shapes
                    if shapes != []:
                        c = cq.Compound.makeCompound(shapes)
                        if save_stls == True:
                            cadquery.exporters.export(
                                c.locate(val.loc),
                                str(wrk_dir / "output" /
                                    f"{stack_name}-{val.name}.stl"),
                                cadquery.exporters.ExportTypes.STL)
                        if save_steps == True:
                            cadquery.exporters.export(
                                c.locate(val.loc),
                                str(wrk_dir / "output" /
                                    f"{stack_name}-{val.name}.step"),
                                cadquery.exporters.ExportTypes.STEP)
                        if save_breps == True:
                            cq.Shape.exportBrep(
                                c.locate(val.loc),
                                str(wrk_dir / "output" /
                                    f"{stack_name}-{val.name}.brep"))
                        if save_vrmls == True:
                            cadquery.exporters.export(
                                c.locate(val.loc),
                                str(wrk_dir / "output" /
                                    f"{stack_name}-{val.name}.wrl"),
                                cadquery.exporters.ExportTypes.VRML)
                        if save_dxfs == True:
                            cl = c.locate(val.loc)
                            bb = cl.BoundingBox()
                            zmid = (bb.zmin + bb.zmax) / 2
                            nwp = CQ("XY", origin=(0, 0, zmid)).add(cl)
                            dxface = nwp.section()
                            cadquery.exporters.export(
                                dxface,
                                str(wrk_dir / "output" /
                                    f"{stack_name}-{val.name}.dxf"),
                                cadquery.exporters.ExportTypes.DXF)