Exemple #1
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def _generate_content(*args, **kwargs):
    grid = tpl.subplot_grid((2, 3), *args, **kwargs)
    grid[0, 0].aprint("Some text")
    grid[0, 1].aprint("Some more text\nand more")
    grid[0, 2].aprint("Some more text\nand more\neven more")
    grid[1, 0].aprint("Some more text\nand more\neven more")
    grid[1, 1].aprint("Some more text\nand more")
    grid[1, 2].aprint("Some text")
    return grid
Exemple #2
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def test_subplot_custom_border():
    grid = tpl.subplot_grid((1, 2), border_style="x", width=20)
    grid[0, 0].aprint("Some text")
    grid[0, 1].aprint("Some more text")
    string = grid.get_string()
    assert (string == """xxxxxxxxxxxxxxxxxxxx
x         x        x
x  Some   x  Some  x
x         x        x
xxxxxxxxxxxxxxxxxxxx""")
    return
Exemple #3
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def test_subplot():
    grid = tpl.subplot_grid((1, 2), width=20)
    grid[0, 0].aprint("Some text")
    grid[0, 1].aprint("Some more text")
    string = grid.get_string()
    assert (string == """┌─────────┬────────┐
│         │        │
│  Some   │  Some  │
│         │        │
└─────────┴────────┘""")
    return
Exemple #4
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def test_subplot2():
    grid = tpl.subplot_grid((1, 2), width=20, border_style="thick")
    grid[0, 0].aprint("Some text")
    grid[0, 1].aprint("Some more text\nand more")
    string = grid.get_string()
    assert (string == """┏━━━━━━━━━┳━━━━━━━━┓
┃         ┃        ┃
┃  Some   ┃  Some  ┃
┃         ┃  and   ┃
┃         ┃        ┃
┗━━━━━━━━━┻━━━━━━━━┛""")
    return
Exemple #5
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def test_subplot_padding():
    grid = tpl.subplot_grid((1, 2), width=20, padding=2, border_style="double")
    grid[0, 0].aprint("Some text")
    grid[0, 1].aprint("Some more text\nand more")
    string = grid.get_string()
    assert (string == """╔═════════╦════════╗
║         ║        ║
║         ║        ║
║  Some   ║  Some  ║
║         ║  and   ║
║         ║        ║
║         ║        ║
╚═════════╩════════╝""")
    return
Exemple #6
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def print_stats(mesh):
    import termplotlib

    q = mesh.q_radius_ratio
    q_hist, q_bin_edges = numpy.histogram(q,
                                          bins=numpy.linspace(0.0,
                                                              1.0,
                                                              num=41,
                                                              endpoint=True))

    grid = termplotlib.subplot_grid((1, 2),
                                    column_widths=None,
                                    border_style=None)
    grid[0, 0].hist(q_hist, q_bin_edges, bar_width=1, strip=True)
    grid[0, 1].aprint("min quality: {:5.3f}".format(numpy.min(q)))
    grid[0, 1].aprint("avg quality: {:5.3f}".format(numpy.average(q)))
    grid[0, 1].aprint("max quality: {:5.3f}".format(numpy.max(q)))

    grid.show()
def print_stats_2d(quality,
                   method="not specified",
                   elapsed=0.0,
                   num_verts=0.0,
                   num_cells=0.0):
    """https://github.com/nschloe/optimesh/blob/master/optimesh/helpers.py
    NTS: terminal dimension: 286x93, font size 11, Menlo Regular, Line spacing 0.8, Char. spacing 1.044
    """

    q = quality
    q_hist, q_bin_edges = numpy.histogram(q,
                                          bins=numpy.linspace(0.0,
                                                              1.0,
                                                              num=41,
                                                              endpoint=True))

    grid = tpl.subplot_grid((2, 1))
    grid[0, 0].aprint(method)
    grid[0, 0].aprint("Mesh creation time (sec.):  {:7.2f}".format(elapsed))
    grid[0, 0].aprint("Mesh creation speed (vertices/sec.):  {:7.2f}".format(
        num_verts / elapsed))
    grid[0, 0].aprint("Number of vertices:      {:7.0f}".format(num_verts))
    grid[0, 0].aprint("Number of cells:         {:7.0f}".format(num_cells))

    grid[1, 0].aprint("min quality: {:5.3f}".format(numpy.min(q)))
    grid[1, 0].aprint("avg quality: {:5.3f}".format(numpy.average(q)))
    grid[1, 0].aprint("max quality: {:5.3f}".format(numpy.max(q)))
    grid[1, 0].hist(q_hist, q_bin_edges, grid=[15, 25])

    grid.show()

    stats = numpy.array([
        elapsed,
        num_verts / elapsed,
        num_verts,
        num_cells,
        numpy.min(q),
        numpy.average(q),
        numpy.max(q),
    ])
    numpy.savetxt(method + "_2d.txt", stats, delimiter=",")
Exemple #8
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def print_stats(mesh, extra_cols=None):
    extra_cols = [] if extra_cols is None else extra_cols

    angles = mesh.angles / numpy.pi * 180
    angles_hist, angles_bin_edges = numpy.histogram(angles,
                                                    bins=numpy.linspace(
                                                        0.0,
                                                        180.0,
                                                        num=73,
                                                        endpoint=True))

    q = mesh.cell_quality
    q_hist, q_bin_edges = numpy.histogram(q,
                                          bins=numpy.linspace(0.0,
                                                              1.0,
                                                              num=41,
                                                              endpoint=True))

    grid = tpl.subplot_grid((1, 4 + len(extra_cols)),
                            column_widths=None,
                            border_style=None)
    grid[0, 0].hist(angles_hist,
                    angles_bin_edges,
                    grid=[24],
                    bar_width=1,
                    strip=True)
    grid[0, 1].aprint("min angle:     {:7.3f}".format(numpy.min(angles)))
    grid[0, 1].aprint("avg angle:     {:7.3f}".format(60))
    grid[0, 1].aprint("max angle:     {:7.3f}".format(numpy.max(angles)))
    grid[0, 1].aprint("std dev angle: {:7.3f}".format(numpy.std(angles)))
    grid[0, 2].hist(q_hist, q_bin_edges, bar_width=1, strip=True)
    grid[0, 3].aprint("min quality: {:5.3f}".format(numpy.min(q)))
    grid[0, 3].aprint("avg quality: {:5.3f}".format(numpy.average(q)))
    grid[0, 3].aprint("max quality: {:5.3f}".format(numpy.max(q)))

    for k, col in enumerate(extra_cols):
        grid[0, 4 + k].aprint(col)

    grid.show()
    return
def print_stats_3d(angles,
                   quality,
                   method="not specified",
                   elapsed=0.0,
                   num_verts=0.0,
                   num_cells=0.0):
    """https://github.com/nschloe/optimesh/blob/master/optimesh/helpers.py
    NTS: terminal dimension: 286x93, font size 11, Menlo Regular, Line spacing 0.8, Char. spacing 1.044
    """
    # convert to dihedral angles in radians
    const = 2 * math.sqrt(2) / 3
    angles = numpy.arcsin(const * angles)
    # convert to degrees
    angles = 180 * angles / numpy.pi
    angles_hist, angles_bin_edges = numpy.histogram(angles,
                                                    bins=numpy.linspace(
                                                        0.0,
                                                        180.0,
                                                        num=73,
                                                        endpoint=True))

    q = quality
    q_hist, q_bin_edges = numpy.histogram(q,
                                          bins=numpy.linspace(0.0,
                                                              1.0,
                                                              num=41,
                                                              endpoint=True))

    grid = tpl.subplot_grid((2, 2))
    grid[0, 0].aprint(method)
    grid[0, 0].aprint("Mesh creation time (sec.):  {:7.2f}".format(elapsed))
    grid[0, 0].aprint("Mesh creation speed (vertices/sec.):  {:7.2f}".format(
        num_verts / elapsed))
    grid[0, 1].aprint("Number of vertices:      {:7.0f}".format(num_verts))
    grid[0, 1].aprint("Number of cells:         {:7.0f}".format(num_cells))

    grid[1, 0].aprint("min. dihedral angles:     {:7.3f}".format(
        numpy.min(angles)))
    grid[1, 0].aprint("avg. dihedral angles:     {:7.3f}".format(
        numpy.mean(angles)))
    grid[1, 0].aprint("max  dihedral angles:     {:7.3f}".format(
        numpy.max(angles)))
    grid[1, 0].aprint("std dev. dihedral angles: {:7.3f}".format(
        numpy.std(angles)))
    grid[1, 0].hist(angles_hist, angles_bin_edges, grid=[15, 25])

    grid[1, 1].aprint("min quality: {:5.3f}".format(numpy.min(q)))
    grid[1, 1].aprint("avg quality: {:5.3f}".format(numpy.average(q)))
    grid[1, 1].aprint("max quality: {:5.3f}".format(numpy.max(q)))
    grid[1, 1].hist(q_hist, q_bin_edges, grid=[15, 25])

    grid.show()

    stats = numpy.array([
        elapsed,
        num_verts / elapsed,
        num_verts,
        num_cells,
        numpy.min(angles),
        numpy.mean(angles),
        numpy.max(angles),
        numpy.std(angles),
        numpy.min(q),
        numpy.average(q),
        numpy.max(q),
    ])
    numpy.savetxt(method + ".txt", stats, delimiter=",")