vector3d = project.tensortypes()["Vector3D"]
# Manifold and TangentSpace, both 3D
manifold = project.createManifold("domain", configuration, dim)
tangentspace = project.createTangentSpace("space", configuration, dim)
# Discretization for Manifold
discretization = manifold.createDiscretization("uniform", configuration)
blocks = []
import RegionCalculus as RC
for pk in range(npk):
for pj in range(npj):
for pi in range(npi):
p = pi + npi * (pj + npj * pk)
block = discretization.createDiscretizationBlock("grid.%d" % p)
lo = RC.point_t([nli * pi, nlj * pj, nlk * pk])
hi = lo + RC.point_t([nli, nlj, nlk])
box = RC.box_t(lo, hi)
block.setBox(box)
blocks.append(block)
# Basis for TangentSpace
basis = tangentspace.createBasis("Cartesian", configuration)
directions = []
for d in range(dim):
directions.append(basis.createBasisVector(dirnames[d], d))
# Coordinate system
coordinatesystem = project.createCoordinateSystem("Cartesian", configuration,
manifold)
coordinates = []
vector3d = project.tensortypes()["Vector3D"]
# Manifold and TangentSpace, both 3D
manifold = project.createManifold("domain", configuration, dim)
tangentspace = project.createTangentSpace("space", configuration, dim)
# Discretization for Manifold
discretization = manifold.createDiscretization("uniform", configuration)
blocks = []
import RegionCalculus as RC
for pk in range(npk):
for pj in range(npj):
for pi in range(npi):
p = pi + npi * (pj + npj * pk)
block = discretization.createDiscretizationBlock("grid.%d" % p)
lo = RC.point_t([nli*pi, nlj*pj, nlk*pk])
hi = lo + RC.point_t([nli, nlj, nlk])
box = RC.box_t(lo, hi)
block.setBox(box)
blocks.append(block)
# Basis for TangentSpace
basis = tangentspace.createBasis("Cartesian", configuration)
directions = []
for d in range(dim):
directions.append(basis.createBasisVector(dirnames[d], d))
# Coordinate system
coordinatesystem = project.createCoordinateSystem(
"Cartesian", configuration, manifold)
coordinates = []
discretization2 = \
manifold2.createDiscretization(discretization.name(),
configuration2)
# TODO: Handle subdiscretizations
# Read and combine discretizationblocks
boxes = []
actives = []
indent()
for discretizationblock in \
discretization.discretizationblocks().values():
message("DiscretizationBlock \"%s\"" % discretizationblock.name())
boxes.append(discretizationblock.box())
actives.append(discretizationblock.active())
outdent()
combined_box = RC.box_t(manifold.dimension())
for box in boxes:
combined_box = combined_box.bounding_box(box)
message("combined_box: %s" % combined_box)
combined_active = RC.region_t(manifold.dimension())
for active in actives:
if active.valid():
combined_active = combined_active.union(active)
message("combined_active: %s" % combined_active)
discretizationblock2 = \
discretization2.createDiscretizationBlock("discretizationblock")
discretizationblock2.setBox(combined_box)
discretizationblock2.setActive(combined_active)
outdent()
outdent()
discretization2 = \
manifold2.createDiscretization(discretization.name(),
configuration2)
# TODO: Handle subdiscretizations
# Read and combine discretizationblocks
boxes = []
actives = []
indent()
for discretizationblock in \
discretization.discretizationblocks().values():
message("DiscretizationBlock \"%s\"" % discretizationblock.name())
boxes.append(discretizationblock.box())
actives.append(discretizationblock.active())
outdent()
combined_box = RC.box_t(manifold.dimension())
for box in boxes:
combined_box = combined_box.bounding_box(box)
message("combined_box: %s" % combined_box)
combined_active = RC.region_t(manifold.dimension())
for active in actives:
if active.valid():
combined_active = combined_active.union(active)
message("combined_active: %s" % combined_active)
discretizationblock2 = \
discretization2.createDiscretizationBlock("discretizationblock")
discretizationblock2.setBox(combined_box)
discretizationblock2.setActive(combined_active)
outdent()
outdent()
