def test_cube_normals(self, tmpdir):
"""Generate a gmy from a simple cubic profile and check the computed
normals.
"""
cube = fixtures.cube(tmpdir)
cube.VoxelSize = 0.23
cube.StlFileUnitId = 0
"""The default VTK cube has 1m edges and it is centred at the origin
of coordinates. We place the inlet and the outlet at the faces
perpendicular to the z axis.
"""
inlet = Iolet(Name='inlet',
Centre=Vector(0., 0., -0.5),
Normal=Vector(0., 0., -1.),
Radius=np.sqrt(2) / 2)
outlet = Iolet(Name='outlet',
Centre=Vector(0., 0., 0.5),
Normal=Vector(0., 0., 1.),
Radius=np.sqrt(2) / 2)
cube.Iolets = [inlet, outlet]
generator = OutputGeneration.PolyDataGenerator(cube)
generator.skipNonIntersectingBlocks = True
generator.Execute()
"""Load back the resulting geometry file and assert things are as
expected
"""
checker = CubeNormalsTestingGmyParser(cube.OutputGeometryFile,
cube.VoxelSize)
checker.Load()
def test_cube_normals(self, tmpdir):
"""Generate a gmy from a simple cubic profile and check the computed
normals.
"""
cube = fixtures.cube(tmpdir)
cube.VoxelSize = 0.23
cube.StlFileUnitId = 0
"""The default VTK cube has 1m edges and it is centred at the origin
of coordinates. We place the inlet and the outlet at the faces
perpendicular to the z axis.
"""
inlet = Iolet(Name='inlet',
Centre=Vector(0., 0., -0.5),
Normal=Vector(0., 0., -1.),
Radius=np.sqrt(2) / 2)
outlet = Iolet(Name='outlet',
Centre=Vector(0., 0., 0.5),
Normal=Vector(0., 0., 1.),
Radius=np.sqrt(2) / 2)
cube.Iolets = [inlet, outlet]
generator = OutputGeneration.PolyDataGenerator(cube)
generator.skipNonIntersectingBlocks = True
generator.Execute()
"""Load back the resulting geometry file and assert things are as
expected
"""
checker = CubeNormalsTestingGmyParser(cube.OutputGeometryFile,
cube.VoxelSize)
checker.Load()
def test_cube(self, tmpdir):
"""Generate a gmy from a simple cubic profile and check the output"""
cube = fixtures.cube(tmpdir)
cube.VoxelSize = 0.23
cube.StlFileUnitId = 0
generator = OutputGeneration.PolyDataGenerator(cube)
generator.Execute()
# Load back the resulting geometry file and assert things are as
# expected
checker = CubeTestingGmyParser(cube.OutputGeometryFile, cube.VoxelSize)
checker.Load()
fluid_sites = sum(checker.Domain.BlockFluidSiteCounts)
block_count = len(checker.Domain.Blocks)
block_size = checker.Domain.BlockSize
sites = block_count * block_size ** 3
# assert(sites==4096)
# assert(fluid_sites==729)
assert(sites != fluid_sites)
# Now, turn on the skip-non-intersecting-blocks optimisation, and
# assert same result
generator.skipNonIntersectingBlocks = True
generator.Execute()
checker_skip_nonintersecting = CubeTestingGmyParser(
cube.OutputGeometryFile, cube.VoxelSize)
checker_skip_nonintersecting.Load()
fluid_sites_nonintersecting = sum(
checker_skip_nonintersecting.Domain.BlockFluidSiteCounts)
assert(fluid_sites_nonintersecting == fluid_sites)
def test_cube(self, tmpdir):
"""Generate a gmy from a simple cubic profile and check the output"""
cube = fixtures.cube(tmpdir)
cube.VoxelSize = 0.23
cube.StlFileUnitId = 0
generator = OutputGeneration.PolyDataGenerator(cube)
generator.Execute()
# Load back the resulting geometry file and assert things are as
# expected
checker = CubeTestingGmyParser(cube.OutputGeometryFile, cube.VoxelSize)
checker.Load()
fluid_sites = sum(checker.Domain.BlockFluidSiteCounts)
block_count = len(checker.Domain.Blocks)
block_size = checker.Domain.BlockSize
sites = block_count * block_size ** 3
# assert(sites==4096)
# assert(fluid_sites==729)
assert(sites != fluid_sites)
# Now, turn on the skip-non-intersecting-blocks optimisation, and
# assert same result
generator.skipNonIntersectingBlocks = True
generator.Execute()
checker_skip_nonintersecting = CubeTestingGmyParser(
cube.OutputGeometryFile, cube.VoxelSize)
checker_skip_nonintersecting.Load()
fluid_sites_nonintersecting = sum(
checker_skip_nonintersecting.Domain.BlockFluidSiteCounts)
assert(fluid_sites_nonintersecting == fluid_sites)
