def test_octree():
name = "MyTestOctree"
with tempfile.TemporaryDirectory() as tempdir:
h5file_path = Path(tempdir) / r"octree.geoh5"
# Create a workspace
workspace = Workspace(h5file_path)
# Create an octree mesh with variable dimensions
mesh = Octree.create(
workspace,
name=name,
origin=[0, 0, 0],
u_count=32,
v_count=16,
w_count=8,
u_cell_size=1.0,
v_cell_size=1.0,
w_cell_size=2.0,
rotation=45,
)
assert mesh.n_cells == 8, "Number of octree cells after base_refine is wrong"
# Refine
workspace.save_entity(mesh)
workspace.finalize()
# Read the mesh back in
new_workspace = Workspace(h5file_path)
rec_obj = new_workspace.get_entity(name)[0]
compare_entities(mesh, rec_obj)
def test_create_curve_data():
curve_name = "TestCurve"
# Generate a random cloud of points
n_data = 12
with tempfile.TemporaryDirectory() as tempdir:
h5file_path = Path(tempdir) / r"testCurve.geoh5"
# Create a workspace
workspace = Workspace(h5file_path)
curve = Curve.create(workspace,
vertices=np.random.randn(n_data, 3),
name=curve_name)
# Get and change the parts
parts = curve.parts
parts[-3:] = 1
curve.parts = parts
data_objects = curve.add_data({
"vertexValues": {
"values": np.random.randn(curve.n_vertices)
},
"cellValues": {
"values": np.random.randn(curve.n_cells)
},
})
workspace.finalize()
# Re-open the workspace and read data back in
ws2 = Workspace(h5file_path)
obj_rec = ws2.get_entity(curve_name)[0]
data_vert_rec = ws2.get_entity("vertexValues")[0]
data_cell_rec = ws2.get_entity("cellValues")[0]
# Check entities
compare_entities(curve, obj_rec)
compare_entities(data_objects[0], data_vert_rec)
compare_entities(data_objects[1], data_cell_rec)
# Modify and write
obj_rec.vertices = np.random.randn(n_data, 3)
data_vert_rec.values = np.random.randn(n_data)
ws2.finalize()
# Read back and compare
ws3 = Workspace(h5file_path)
obj = ws3.get_entity(curve_name)[0]
data_vertex = ws3.get_entity("vertexValues")[0]
compare_entities(obj_rec, obj)
compare_entities(data_vert_rec, data_vertex)
def test_create_group():
group_name = "MyTestContainer"
with tempfile.TemporaryDirectory() as tempdir:
h5file_path = Path(tempdir) / r"testGroup.geoh5"
# Create a workspace
workspace = Workspace(h5file_path)
group = ContainerGroup.create(workspace, name=group_name)
workspace.save_entity(group)
workspace.finalize()
# Read the group back in
rec_obj = workspace.get_entity(group_name)[0]
compare_entities(group, rec_obj)
def test_create_grid_2d_data():
name = "MyTestGrid2D"
# Generate a 2D array
n_x, n_y = 10, 15
values, _ = np.meshgrid(np.linspace(0, np.pi, n_x),
np.linspace(0, np.pi, n_y))
with tempfile.TemporaryDirectory() as tempdir:
h5file_path = Path(tempdir) / r"test2Grid.geoh5"
# Create a workspace
workspace = Workspace(h5file_path)
grid = Grid2D.create(
workspace,
origin=[0, 0, 0],
u_cell_size=20.0,
v_cell_size=30.0,
u_count=n_x,
v_count=n_y,
name=name,
allow_move=False,
)
data = grid.add_data({"DataValues": {"values": values}})
grid.rotation = 45.0
workspace.finalize()
# Read the data back in from a fresh workspace
new_workspace = Workspace(h5file_path)
rec_obj = new_workspace.get_entity(name)[0]
rec_data = new_workspace.get_entity("DataValues")[0]
compare_entities(grid, rec_obj)
compare_entities(data, rec_data)
def test_create_surface_data():
with tempfile.TemporaryDirectory() as tempdir:
h5file_path = Path(tempdir) / r"testSurface.geoh5"
workspace = Workspace(h5file_path)
# Create a grid of points and triangulate
x, y = np.meshgrid(np.arange(10), np.arange(10))
x, y = x.ravel(), y.ravel()
z = np.random.randn(x.shape[0])
xyz = np.c_[x, y, z]
simplices = np.unique(np.random.randint(0, xyz.shape[0] - 1,
(xyz.shape[0], 3)),
axis=1)
# Create random data
values = np.mean(np.c_[x[simplices[:, 0]], x[simplices[:, 1]],
x[simplices[:, 2]]],
axis=1)
# Create a geoh5 surface
surface = Surface.create(workspace,
name="mySurf",
vertices=xyz,
cells=simplices)
data = surface.add_data({"TMI": {"values": values}})
# Read the object from a different workspace object on the same file
new_workspace = Workspace(h5file_path)
rec_obj = new_workspace.get_entity("mySurf")[0]
rec_data = rec_obj.get_data("TMI")[0]
compare_entities(surface, rec_obj)
compare_entities(data, rec_data)
def test_create_reference_data():
name = "MyTestPointset"
# Generate a random cloud of points with reference values
n_data = 12
values = np.random.randint(1, high=8, size=n_data)
refs = np.unique(values)
value_map = {}
for ref in refs:
value_map[ref] = "".join(
random.choice(string.ascii_lowercase) for i in range(8))
with tempfile.TemporaryDirectory() as tempdir:
h5file_path = Path(tempdir) / r"testPoints.geoh5"
# Create a workspace
workspace = Workspace(h5file_path)
points = Points.create(workspace,
vertices=np.random.randn(n_data, 3),
name=name,
allow_move=False)
data = points.add_data({
"DataValues": {
"type": "referenced",
"values": values,
"value_map": value_map,
}
})
new_workspace = Workspace(h5file_path)
rec_obj = new_workspace.get_entity(name)[0]
rec_data = new_workspace.get_entity("DataValues")[0]
compare_entities(points, rec_obj)
compare_entities(data, rec_data)
def test_remove_root():
# Generate a random cloud of points
n_data = 12
xyz = np.random.randn(n_data, 3)
with tempfile.TemporaryDirectory() as tempdir:
h5file_path = Path(tempdir) / r"testProject.geoh5"
# Create a workspace
workspace = Workspace(h5file_path)
points = Points.create(workspace, vertices=xyz)
data = points.add_data({
"DataValues": {
"association": "VERTEX",
"values": np.random.randn(n_data),
},
"DataValues2": {
"association": "VERTEX",
"values": np.random.randn(n_data),
},
})
group_name = "SomeGroup"
data_group = points.add_data_to_group(data, group_name)
workspace.finalize()
# Remove the root
with File(h5file_path, "r+") as project:
base = list(project.keys())[0]
del project[base]["Root"]
del project[base]["Groups"]
del project[base]["Types"]["Group types"]
# Read the data back in from a fresh workspace
new_workspace = Workspace(h5file_path)
rec_points = new_workspace.get_entity(points.name)[0]
rec_group = rec_points.find_or_create_property_group(name=group_name)
rec_data = new_workspace.get_entity(data[0].name)[0]
compare_entities(
points,
rec_points,
ignore=["_parent", "_existing_h5_entity", "_property_groups"],
)
compare_entities(data[0],
rec_data,
ignore=["_parent", "_existing_h5_entity"])
compare_entities(data_group,
rec_group,
ignore=["_parent", "_existing_h5_entity"])
def test_create_point_data():
new_name = "TestName"
# Generate a random cloud of points
xyz = np.random.randn(12, 3)
values = np.random.randn(12)
with tempfile.TemporaryDirectory() as tempdir:
h5file_path = Path(tempdir) / r"testPoints.geoh5"
workspace = Workspace(h5file_path)
points = Points.create(workspace, vertices=xyz, allow_move=False)
data = points.add_data(
{"DataValues": {
"association": "VERTEX",
"values": values
}})
tag = points.add_data(
{"my_comment": {
"association": "OBJECT",
"values": "hello_world"
}})
# Change some data attributes for testing
data.allow_delete = False
data.allow_move = True
data.allow_rename = False
data.name = new_name
# Fake ANALYST creating a StatsCache
with fetch_h5_handle(h5file_path) as h5file:
etype_handle = H5Writer.fetch_handle(h5file, data.entity_type)
etype_handle.create_group("StatsCache")
# Trigger replace of values
data.values = values * 2.0
workspace.finalize()
# Read the data back in from a fresh workspace
new_workspace = Workspace(h5file_path)
rec_obj = new_workspace.get_entity("Points")[0]
rec_data = new_workspace.get_entity(new_name)[0]
rec_tag = new_workspace.get_entity("my_comment")[0]
compare_entities(points, rec_obj)
compare_entities(data, rec_data)
compare_entities(tag, rec_tag)
with fetch_h5_handle(h5file_path) as h5file:
etype_handle = H5Writer.fetch_handle(h5file, rec_data.entity_type)
assert (
etype_handle.get("StatsCache") is None
), "StatsCache was not properly deleted on update of values"
def test_create_survey_dcip():
name = "TestCurrents"
n_data = 12
with tempfile.TemporaryDirectory() as tempdir:
path = Path(tempdir) / r"testDC.geoh5"
# Create a workspace
workspace = Workspace(path)
# Create sources along line
x_loc, y_loc = np.meshgrid(np.arange(n_data), np.arange(-1, 3))
vertices = np.c_[x_loc.ravel(), y_loc.ravel(), np.zeros_like(x_loc).ravel()]
parts = np.kron(np.arange(4), np.ones(n_data)).astype("int")
currents = CurrentElectrode.create(
workspace, name=name, vertices=vertices, parts=parts
)
currents.add_default_ab_cell_id()
potentials = PotentialElectrode.create(
workspace, name=name + "_rx", vertices=vertices
)
n_dipoles = 9
dipoles = []
current_id = []
for val in currents.ab_cell_id.values:
cell_id = int(currents.ab_map[val]) - 1
for dipole in range(n_dipoles):
dipole_ids = currents.cells[cell_id, :] + 2 + dipole
if (
any(dipole_ids > (potentials.n_vertices - 1))
or len(np.unique(parts[dipole_ids])) > 1
):
continue
dipoles += [dipole_ids]
current_id += [val]
potentials.cells = np.vstack(dipoles).astype("uint32")
fake_ab = potentials.add_data(
{"fake_ab": {"values": np.random.randn(potentials.n_cells)}}
)
with pytest.raises(TypeError):
potentials.ab_cell_id = fake_ab
potentials.ab_cell_id = np.hstack(current_id).astype("int32")
# Change again only the values
ab_data = potentials.get_data("A-B Cell ID")[0]
new_values = ab_data.values
new_values[0] = 5
potentials.ab_cell_id = new_values
assert (
len(potentials.get_data("A-B Cell ID")) == 1
), "Issue with new A-B Cell ID data created"
fake_meta = {
"Current Electrodes": uuid.uuid4(),
"Potential Electrodes": uuid.uuid4(),
"One too many key": uuid.uuid4(),
}
with pytest.raises(ValueError):
potentials.metadata = fake_meta
del fake_meta["One too many key"]
with pytest.raises(IndexError):
potentials.metadata = fake_meta
fake_meta["Current Electrodes"] = currents.uid
with pytest.raises(IndexError):
potentials.metadata = fake_meta
fake_meta["Potential Electrodes"] = potentials.uid
potentials.current_electrodes = currents
assert (
currents.potential_electrodes == potentials
), "Error assigning the potentiel_electrodes."
assert (
potentials.current_electrodes == currents
), "Error assigning the current_electrodes."
assert (
currents.metadata
== potentials.metadata
== {
"Current Electrodes": currents.uid,
"Potential Electrodes": potentials.uid,
}
), "Error assigning metadata"
# Repeat the other way
with pytest.raises(TypeError) as info:
potentials.current_electrodes = None
assert info.type == TypeError, "Code did not catch TypeError"
with pytest.raises(TypeError) as info:
currents.potential_electrodes = None
assert info.type == TypeError, "Code did not catch TypeError"
setattr(potentials, "_current_electrodes", None)
setattr(currents, "_potential_electrodes", None)
currents.potential_electrodes = potentials
assert (
currents.potential_electrodes == potentials
), "Error assigning the potentiel_electrodes."
assert (
potentials.current_electrodes == currents
), "Error assigning the current_electrodes."
assert (
currents.metadata
== potentials.metadata
== {
"Current Electrodes": currents.uid,
"Potential Electrodes": potentials.uid,
}
), "Error assigning metadata"
workspace.finalize()
# Re-open the workspace and read data back in
new_workspace = Workspace(path)
currents_rec = new_workspace.get_entity(name)[0]
potentials_rec = new_workspace.get_entity(name + "_rx")[0]
# Check entities
compare_entities(
currents, currents_rec, ignore=["_potential_electrodes", "_parent"]
)
compare_entities(
potentials, potentials_rec, ignore=["_current_electrodes", "_parent"]
)
def test_create_block_model_data():
name = "MyTestBlockModel"
# Generate a 3D array
n_x, n_y, n_z = 8, 9, 10
nodal_x = np.r_[
0,
np.cumsum(
np.r_[
np.pi / n_x * 1.5 ** np.arange(3)[::-1],
np.ones(n_x) * np.pi / n_x,
np.pi / n_x * 1.5 ** np.arange(4),
]
),
]
nodal_y = np.r_[
0,
np.cumsum(
np.r_[
np.pi / n_y * 1.5 ** np.arange(5)[::-1],
np.ones(n_y) * np.pi / n_y,
np.pi / n_y * 1.5 ** np.arange(6),
]
),
]
nodal_z = -np.r_[
0,
np.cumsum(
np.r_[
np.pi / n_z * 1.5 ** np.arange(7)[::-1],
np.ones(n_z) * np.pi / n_z,
np.pi / n_z * 1.5 ** np.arange(8),
]
),
]
with tempfile.TemporaryDirectory() as tempdir:
h5file_path = Path(tempdir) / r"block_model.geoh5"
# Create a workspace
workspace = Workspace(h5file_path)
grid = BlockModel.create(
workspace,
origin=[0, 0, 0],
u_cell_delimiters=nodal_x,
v_cell_delimiters=nodal_y,
z_cell_delimiters=nodal_z,
name=name,
rotation=30,
allow_move=False,
)
data = grid.add_data(
{
"DataValues": {
"association": "CELL",
"values": (
np.cos(grid.centroids[:, 0])
* np.cos(grid.centroids[:, 1])
* np.cos(grid.centroids[:, 2])
),
}
}
)
# Read the data back in from a fresh workspace
new_workspace = Workspace(h5file_path)
rec_obj = new_workspace.get_entity(name)[0]
rec_data = new_workspace.get_entity("DataValues")[0]
compare_entities(grid, rec_obj)
compare_entities(data, rec_data)
def test_copy_entity():
# Generate a random cloud of points
n_data = 12
xyz = np.random.randn(n_data, 3)
# Create surface
cells = np.unique(np.random.randint(0, xyz.shape[0] - 1, (xyz.shape[0], 3)), axis=1)
objects = {
Points: {"name": "Something", "vertices": np.random.randn(n_data, 3)},
Surface: {
"name": "Surface",
"vertices": np.random.randn(n_data, 3),
"cells": cells,
},
Curve: {
"name": "Curve",
"vertices": np.random.randn(n_data, 3),
},
Octree: {
"origin": [0, 0, 0],
"u_count": 32,
"v_count": 16,
"w_count": 8,
"u_cell_size": 1.0,
"v_cell_size": 1.0,
"w_cell_size": 2.0,
"rotation": 45,
},
}
with tempfile.TemporaryDirectory() as tempdir:
h5file_path = Path(tempdir) / r"testProject.geoh5"
# Create a workspace
workspace = Workspace(h5file_path)
for obj, kwargs in objects.items():
entity = obj.create(workspace, **kwargs)
if getattr(entity, "vertices", None) is not None:
values = np.random.randn(entity.n_vertices)
else:
values = np.random.randn(entity.n_cells)
entity.add_data({"DataValues": {"values": values}})
workspace = Workspace(h5file_path)
new_workspace = Workspace(Path(tempdir) / r"testProject_2.geoh5")
for entity in workspace.objects:
entity.copy(parent=new_workspace)
# workspace = Workspace(h5file_path)
for entity in workspace.objects:
# Read the data back in from a fresh workspace
rec_entity = new_workspace.get_entity(entity.uid)[0]
rec_data = new_workspace.get_entity(entity.children[0].uid)[0]
compare_entities(entity, rec_entity, ignore=["_parent"])
compare_entities(entity.children[0], rec_data, ignore=["_parent"])
def test_create_drillhole_data():
well_name = "bullseye"
n_data = 10
collocation = 1e-5
with tempfile.TemporaryDirectory() as tempdir:
h5file_path = Path(tempdir) / r"testCurve.geoh5"
# Create a workspace
workspace = Workspace(h5file_path)
max_depth = 100
well = Drillhole.create(
workspace,
collar=np.r_[0.0, 10.0, 10],
surveys=np.c_[np.linspace(0, max_depth, n_data),
np.linspace(-89, -75, n_data),
np.ones(n_data) * 45.0, ],
name=well_name,
default_collocation_distance=collocation,
)
value_map = {}
for ref in range(8):
value_map[ref] = "".join(
random.choice(string.ascii_lowercase) for i in range(8))
# Create random from-to
from_to_a = np.sort(
np.random.uniform(low=0.05, high=max_depth, size=(50, ))).reshape(
(-1, 2))
from_to_b = np.vstack([from_to_a[0, :], [30.1, 55.5], [56.5, 80.2]])
# Add from-to data
data_objects = well.add_data({
"interval_values": {
"values": np.random.randn(from_to_a.shape[0]),
"from-to": from_to_a,
},
"int_interval_list": {
"values": [1, 2, 3],
"from-to": from_to_b,
"value_map": {
1: "Unit_A",
2: "Unit_B",
3: "Unit_C"
},
"type": "referenced",
},
})
assert well.n_cells == (
from_to_a.shape[0] +
2), "Error with number of cells on interval data creation."
assert well.n_vertices == (
from_to_a.size +
4), "Error with number of vertices on interval data creation."
assert not np.any(np.isnan(
well.get_data("FROM")[0].values)), "FROM values not fully set."
assert not np.any(np.isnan(
well.get_data("TO")[0].values)), "TO values not fully set."
assert (well.get_data("TO")[0].values.shape[0] ==
well.get_data("FROM")[0].values.shape[0] ==
well.n_cells), "Shape or FROM to n_cells differ."
# Add log-data
data_objects += [
well.add_data({
"log_values": {
"depth": np.sort(np.random.rand(n_data) * max_depth),
"type": "referenced",
"values": np.random.randint(1, high=8, size=n_data),
"value_map": value_map,
}
})
]
workspace.finalize()
new_count = from_to_a.size + 4 + n_data
assert well.n_vertices == (
new_count
), "Error with new number of vertices on log data creation."
# Re-open the workspace and read data back in
new_workspace = Workspace(h5file_path)
# Check entities
compare_entities(
well,
new_workspace.get_entity(well_name)[0],
ignore=["_default_collocation_distance"],
)
compare_entities(
data_objects[0],
new_workspace.get_entity("interval_values")[0],
ignore=["_parent"],
)
compare_entities(
data_objects[1],
new_workspace.get_entity("int_interval_list")[0],
ignore=["_parent"],
)
compare_entities(
data_objects[2],
new_workspace.get_entity("log_values")[0],
ignore=["_parent"],
)
def test_copy_survey_dcip():
name = "TestCurrents"
n_data = 12
with tempfile.TemporaryDirectory() as tempdir:
path = Path(tempdir) / r"testDC.geoh5"
# Create a workspace
workspace = Workspace(path)
# Create sources along line
x_loc, y_loc = np.meshgrid(np.arange(n_data), np.arange(-1, 3))
vertices = np.c_[x_loc.ravel(), y_loc.ravel(), np.zeros_like(x_loc).ravel()]
parts = np.kron(np.arange(4), np.ones(n_data)).astype("int")
currents = CurrentElectrode.create(
workspace, name=name, vertices=vertices, parts=parts
)
currents.add_default_ab_cell_id()
potentials = PotentialElectrode.create(
workspace, name=name + "_rx", vertices=vertices
)
n_dipoles = 9
dipoles = []
current_id = []
for val in currents.ab_cell_id.values:
cell_id = int(currents.ab_map[val]) - 1
for dipole in range(n_dipoles):
dipole_ids = currents.cells[cell_id, :] + 2 + dipole
if (
any(dipole_ids > (potentials.n_vertices - 1))
or len(np.unique(parts[dipole_ids])) > 1
):
continue
dipoles += [dipole_ids]
current_id += [val]
potentials.cells = np.vstack(dipoles).astype("uint32")
potentials.add_data(
{"fake_ab": {"values": np.random.randn(potentials.n_cells)}}
)
potentials.ab_cell_id = np.hstack(current_id).astype("int32")
currents.potential_electrodes = potentials
workspace.finalize()
# Copy the survey to a new workspace
path = Path(tempdir) / r"testDC_copy_current.geoh5"
new_workspace = Workspace(path)
currents.copy(parent=new_workspace)
# Re-open the workspace and read data back in
new_workspace = Workspace(path)
currents_rec = new_workspace.get_entity(name)[0]
potentials_rec = new_workspace.get_entity(name + "_rx")[0]
# Check entities
compare_entities(
currents, currents_rec, ignore=["_potential_electrodes", "_parent"]
)
compare_entities(
potentials, potentials_rec, ignore=["_current_electrodes", "_parent"]
)
# Repeat with potential entity
path = Path(tempdir) / r"testDC_copy_potential.geoh5"
new_workspace = Workspace(path)
potentials.copy(parent=new_workspace)
# Re-open the workspace and read data back in
new_workspace = Workspace(path)
currents_rec = new_workspace.get_entity(name)[0]
potentials_rec = new_workspace.get_entity(name + "_rx")[0]
# Check entities
compare_entities(
currents, currents_rec, ignore=["_potential_electrodes", "_parent"]
)
compare_entities(
potentials, potentials_rec, ignore=["_current_electrodes", "_parent"]
)