Examples with BoolType net.imglib2.type.logic.BoolType used on opensource projects

Example 1 with BoolType

use of net.imglib2.type.logic.BoolType in project imagej-ops by imagej.

the class ConditionalTest method testDefault.

@Test
public void testDefault() {
    final ByteType out = new ByteType((byte) 10);
    final ByteType defaultVal = new ByteType((byte) 100);
    assertEquals(10, ((ByteType) ops.run(Default.class, out, new BoolType(true), defaultVal)).get());
    assertEquals(100, ((ByteType) ops.run(Default.class, out, new BoolType(false), defaultVal)).get());
}

Example 2 with BoolType

use of net.imglib2.type.logic.BoolType in project imagej-ops by imagej.

the class ConditionalTest method testIf.

@Test
public void testIf() {
    final ByteType ifTrueVal = new ByteType((byte) 10);
    final ByteType ifFalseVal = new ByteType((byte) 100);
    assertEquals(10, ((ByteType) ops.run(If.class, new BoolType(true), ifTrueVal, ifFalseVal)).get());
    assertEquals(100, ((ByteType) ops.run(If.class, new BoolType(false), ifTrueVal, ifFalseVal)).get());
}

Example 3 with BoolType

use of net.imglib2.type.logic.BoolType in project imagej-ops by imagej.

the class DefaultMarchingCubes method calculate.

@SuppressWarnings({ "unchecked" })
@Override
public DefaultMesh calculate(final RandomAccessibleInterval<T> input) {
    DefaultMesh output = new DefaultMesh();
    ExtendedRandomAccessibleInterval<T, RandomAccessibleInterval<T>> extended = Views.extendValue(input, (T) new BoolType(false));
    Cursor<T> c = Views.interval(extended, new FinalInterval(new long[] { input.min(0) - 1, input.min(1) - 1, input.min(2) - 1 }, new long[] { input.max(0) + 1, input.max(1) + 1, input.max(2) + 1 })).localizingCursor();
    while (c.hasNext()) {
        c.next();
        int cursorX = c.getIntPosition(0);
        int cursorY = c.getIntPosition(1);
        int cursorZ = c.getIntPosition(2);
        Cursor<T> cu = getCube(extended, cursorX, cursorY, cursorZ);
        int i = 0;
        double[] vertex_values = new double[8];
        while (cu.hasNext()) {
            vertex_values[i++] = (cu.next().get()) ? 1 : 0;
        }
        // 6------7
        // /| /|
        // 2-----3 |
        // | 4---|-5
        // |/ |/
        // 0-----1
        vertex_values = mapFlatIterableToLookUpCube(vertex_values);
        // 4------5
        // /| /|
        // 7-----6 |
        // | 0---|-1
        // |/ |/
        // 3-----2
        int cubeindex = getCubeIndex(vertex_values);
        if (EDGE_TABLE[cubeindex] != 0) {
            int[] p0 = new int[] { 0 + cursorX, 0 + cursorY, 1 + cursorZ };
            int[] p1 = new int[] { 1 + cursorX, 0 + cursorY, 1 + cursorZ };
            int[] p2 = new int[] { 1 + cursorX, 0 + cursorY, 0 + cursorZ };
            int[] p3 = new int[] { 0 + cursorX, 0 + cursorY, 0 + cursorZ };
            int[] p4 = new int[] { 0 + cursorX, 1 + cursorY, 1 + cursorZ };
            int[] p5 = new int[] { 1 + cursorX, 1 + cursorY, 1 + cursorZ };
            int[] p6 = new int[] { 1 + cursorX, 1 + cursorY, 0 + cursorZ };
            int[] p7 = new int[] { 0 + cursorX, 1 + cursorY, 0 + cursorZ };
            double[][] vertlist = new double[12][];
            /* Find the vertices where the surface intersects the cube */
            if (0 != (EDGE_TABLE[cubeindex] & 1)) {
                vertlist[0] = interpolatePoint(p0, p1, vertex_values[0], vertex_values[1]);
            }
            if (0 != (EDGE_TABLE[cubeindex] & 2)) {
                vertlist[1] = interpolatePoint(p1, p2, vertex_values[1], vertex_values[2]);
            }
            if (0 != (EDGE_TABLE[cubeindex] & 4)) {
                vertlist[2] = interpolatePoint(p2, p3, vertex_values[2], vertex_values[3]);
            }
            if (0 != (EDGE_TABLE[cubeindex] & 8)) {
                vertlist[3] = interpolatePoint(p3, p0, vertex_values[3], vertex_values[0]);
            }
            if (0 != (EDGE_TABLE[cubeindex] & 16)) {
                vertlist[4] = interpolatePoint(p4, p5, vertex_values[4], vertex_values[5]);
            }
            if (0 != (EDGE_TABLE[cubeindex] & 32)) {
                vertlist[5] = interpolatePoint(p5, p6, vertex_values[5], vertex_values[6]);
            }
            if (0 != (EDGE_TABLE[cubeindex] & 64)) {
                vertlist[6] = interpolatePoint(p6, p7, vertex_values[6], vertex_values[7]);
            }
            if (0 != (EDGE_TABLE[cubeindex] & 128)) {
                vertlist[7] = interpolatePoint(p7, p4, vertex_values[7], vertex_values[4]);
            }
            if (0 != (EDGE_TABLE[cubeindex] & 256)) {
                vertlist[8] = interpolatePoint(p0, p4, vertex_values[0], vertex_values[4]);
            }
            if (0 != (EDGE_TABLE[cubeindex] & 512)) {
                vertlist[9] = interpolatePoint(p1, p5, vertex_values[1], vertex_values[5]);
            }
            if (0 != (EDGE_TABLE[cubeindex] & 1024)) {
                vertlist[10] = interpolatePoint(p2, p6, vertex_values[2], vertex_values[6]);
            }
            if (0 != (EDGE_TABLE[cubeindex] & 2048)) {
                vertlist[11] = interpolatePoint(p3, p7, vertex_values[3], vertex_values[7]);
            }
            /* Create the triangle */
            for (i = 0; TRIANGLE_TABLE[cubeindex][i] != -1; i += 3) {
                TriangularFacet face = new TriangularFacet(new Vertex(vertlist[TRIANGLE_TABLE[cubeindex][i + 2]][0], vertlist[TRIANGLE_TABLE[cubeindex][i + 2]][1], vertlist[TRIANGLE_TABLE[cubeindex][i + 2]][2]), new Vertex(vertlist[TRIANGLE_TABLE[cubeindex][i + 1]][0], vertlist[TRIANGLE_TABLE[cubeindex][i + 1]][1], vertlist[TRIANGLE_TABLE[cubeindex][i + 1]][2]), new Vertex(vertlist[TRIANGLE_TABLE[cubeindex][i]][0], vertlist[TRIANGLE_TABLE[cubeindex][i]][1], vertlist[TRIANGLE_TABLE[cubeindex][i]][2]));
                face.getArea();
                output.addFace(face);
            }
        }
    }
    return output;
}