Example #1
0
            coupon = coupon | coupon.web('laser', 1, 5).setMaterial(3)

        # Add mold to coupon model
        coupon = coupon | mold_model.setMaterial(3)

    end = time.time()
    processingTime = (end - start)
    print("Processing time = %s" % processingTime)

    # Create mesh data
    print('Meshing')
    mesh1 = Mesh.fromVoxelModel(coupon)

    # Create plot
    print('Plotting')
    plot1 = Plot(mesh1, grids=True)
    plot1.show()
    app1.processEvents()

    if export:
        print('Exporting')

        # Get non-cast components
        # Find all voxels containing <50% material 2
        material_vector = np.zeros(len(material_properties) + 1)
        material_vector[0] = 1
        material_vector[3] = 0.5
        printed_components = coupon - coupon.setMaterialVector(material_vector)
        printed_components.materials = np.around(printed_components.materials, 0)
        printed_components = printed_components.scaleValues()
        printed_components = printed_components.setMaterial(1)
import PyQt5.QtGui as qg
import sys
from voxelfuse.voxel_model import VoxelModel
from voxelfuse.mesh import Mesh
from voxelfuse.plot import Plot
from voxelfuse.primitives import *

if __name__ == '__main__':
    app1 = qg.QApplication(sys.argv)

    model1 = cube(11, (0, 0, 0), 1)
    model2 = cuboid((11, 20, 6), (13, 0, 0), 2)
    model3 = sphere(5, (31, 5, 5), 3)
    model4 = cylinder(5, 15, (44, 5, 0), 4)
    model5 = cone(1, 5, 15, (57, 5, 0), 5)
    model6 = pyramid(0, 5, 15, (70, 5, 0), 6)

    model_result = model1 | model2 | model3 | model4 | model5 | model6

    # Create mesh data
    mesh1 = Mesh.fromVoxelModel(model_result)
    mesh1.export('primitives.stl')

    # Create plot
    plot1 = Plot(mesh1)
    plot1.show()
    app1.processEvents()

    app1.exec_()
            model.coords = (0, 0, 0)

        # Apply scale factor
        # model = model.scale(scaleFactor)

        # Apply rubber material
        # modelRubber = model.isolateMaterial(1)
        # modelRubber = modelRubber.setMaterial(5)
        # model = modelRubber | model

        # Cleanup operations
        if cleanup:
            model.materials = np.round(model.materials, 3)
            model = model.removeDuplicateMaterials()
            model.saveVF(file)

        # Create stl files
        if export:
            for m in range(1, len(model.materials)):
                mesh = Mesh.fromVoxelModel(model.isolateMaterial(m).fitWorkspace(), 5)
                mesh.export(file + '-' + str(m) + '.stl')

        # Display viewer window
        if display:
            mesh = Mesh.fromVoxelModel(model)

            # Create Plot
            plot1 = Plot(mesh, grids=True)
            plot1.show()
            app1.processEvents()
            app1.exec_()
    # Create base model
    box1 = cuboid((box_x, box_y, box_z), (0, 0, 0), 1)
    box2 = cuboid((box_x, box_y, box_z), (box_x, 0, 0), 3)
    result1 = box1.union(box2)
    print('Model Created')

    # Process Model
    ditherResult = dither(result1, int(round(box_x/2)), use_full=False, y_error=1/3)

    # Scale result
    ditherResult = ditherResult.scale(5) # 15

    # Isolate materials
    result1 = ditherResult.isolateMaterial(1)
    result2 = ditherResult.isolateMaterial(2)

    result1 = result1.closing(2, Axes.XY) # 7
    result1 = thin(result1, 3) #100

    # Save result
    result1.saveVF('thin-test')

    # Create mesh
    ditherMesh = Mesh.fromVoxelModel(result1)

    # Create plot
    plot1 = Plot(ditherMesh)
    plot1.show()

    app1.processEvents()
    app1.exec_()
Example #5
0
    # Isolate materials with blurring requested
    modelBlur = VoxelModel.emptyLike(modelIn)
    for i in blur:
        modelBlur = modelBlur + modelIn.isolateMaterial(i)

    # Blur compatible materials
    # modelBlur = modelBlur.dither(blurRadius)
    modelBlur = modelBlur.blur(blurRadius)

    # Add unmodified voxels to result
    modelResult = modelBlur.union(modelIn)

    # Clean up result
    modelResult = modelResult.scaleValues()

    # Create mesh data
    mesh1 = Mesh.fromVoxelModel(modelIn)
    mesh2 = Mesh.fromVoxelModel(modelResult)

    # Create plots
    plot1 = Plot(mesh1)
    plot1.show()
    app1.processEvents()
    #plot1.export('input.png')

    plot2 = Plot(mesh2)
    plot2.show()
    app1.processEvents()
    #plot2.export('output.png')

    app1.exec_()
        print("Processing time = %s" % processingTime)

        if display:
            # Create mesh data
            print('Meshing')
            mesh1 = Mesh.fromVoxelModel(
                coupon_input.difference(transition_regions).setMaterial(3)
                | coupon,
                resolution=res)

            # Create plot
            print('Plotting')
            plot1 = Plot(mesh1,
                         grids=True,
                         drawEdges=True,
                         positionOffset=(35, 2, 0),
                         viewAngle=(50, 40, 200),
                         resolution=(720, 720),
                         name=filename)
            plot1.show()
            app1.processEvents()

        if save:
            try:
                os.mkdir(outputFolder)
            except OSError:
                print('Output folder already exists')
            else:
                print('Output folder successfully created')

            print('Saving')
    t = T.voxels.shape[0]
    size = M.voxels.shape

    # Create empty model to hold result
    V = VoxelModel.empty(size)

    # Add tiled lattice elements
    for x in range(int(np.ceil(size[0]/t))):
        for y in range(int(np.ceil(size[1] / t))):
            for z in range(int(np.ceil(size[2]/t))):
                T = T.setCoords((M.coords[0]+(x*t), M.coords[1]+(y*t), M.coords[2]+(z*t)))
                V = V | T

    # Intersect lattice with target volume
    V = M & V

    # Create Mesh
    mesh1 = Mesh.fromVoxelModel(T)
    mesh2 = Mesh.fromVoxelModel(M)
    mesh3 = Mesh.fromVoxelModel(V)

    mesh1.export('T.stl')
    mesh2.export('M.stl')
    mesh3.export('V.stl')

    # Create Plot
    plot3 = Plot(mesh3)
    plot3.show()
    app1.processEvents()
    app1.exec_()