from __future__ import annotations
from pathlib import Path
from uuid import uuid4
import numpy as np
import pytest
import rasterio
from fastapi.testclient import TestClient
from geoalchemy2.shape import from_shape
from pyproj import Transformer
from rasterio.io import MemoryFile
from rasterio.transform import from_origin
from shapely.geometry import MultiPolygon, box
from app.core.config import Settings
from app.core.errors import AppError
from app.db.session import get_db
from app.main import app
from app.models import Area, Dataset, DatasetVersion, Job, Project, SourceRegistry, SourceSnapshot
from app.schemas.dhmv import DhmvAcquireRequest, TerrainPartitionSelectionRequest, TerrainSelectionRequest
from app.services.dhmv_acquisition_service import DhmvAcquisitionService
from app.services.terrain_analysis_service import TerrainAnalysisService
from tests.frontend_contract import read_map_workspace, read_feature
ROOT = Path(__file__).resolve().parents[2]
class FakeQuery:
def __init__(self, results=None):
self.results = list(results or [])
def filter(self, *_args):
return self
def order_by(self, *_args):
return self
def first(self):
return self.results[0] if self.results else None
def one_or_none(self):
return self.first()
def all(self):
return list(self.results)
class FakeSession:
def __init__(self, rows=None, query_result=None):
self.rows = rows or {}
self.query_result = query_result
self.added = []
def get(self, model, row_id):
row = self.rows.get((model, row_id))
if row is not None:
return row
return next((item for item in self.added if isinstance(item, model) and item.id == row_id), None)
def add(self, row):
self.added.append(row)
def flush(self):
# Exercise the governed source/snapshot import path with database-like
# primary-key assignment instead of silently falling back to legacy
# fixture behavior.
for row in self.added:
if getattr(row, "id", None) is None:
row.id = uuid4()
def commit(self):
return None
def rollback(self):
return None
def refresh(self, row):
return row
def query(self, model):
rows = [
row
for (row_model, _row_id), row in self.rows.items()
if row_model is model and isinstance(row, model)
]
rows.extend(row for row in self.added if isinstance(row, model))
if isinstance(self.query_result, model):
rows.append(self.query_result)
elif isinstance(self.query_result, list):
rows.extend(row for row in self.query_result if isinstance(row, model))
return FakeQuery(rows)
class FakeResponse:
def __init__(self, content: bytes, content_type: str):
self.content = content
self.headers = {"Content-Type": content_type, "Content-Length": str(len(content))}
def __enter__(self):
return self
def __exit__(self, *_args):
return None
def read(self, limit: int):
return self.content[:limit]
def lambert_bbox_payload(*, side_m: float = 100.0, product_key: str = "dtm_1m", area_id=None) -> DhmvAcquireRequest:
west, south = 200_000.0, 210_000.0
transformer = Transformer.from_crs("EPSG:31370", "EPSG:4326", always_xy=True)
min_x, min_y = transformer.transform(west, south)
max_x, max_y = transformer.transform(west + side_m, south + side_m)
return DhmvAcquireRequest(
bbox={"min_x": min_x, "min_y": min_y, "max_x": max_x, "max_y": max_y, "crs": "EPSG:4326"},
area_id=area_id,
product_key=product_key,
resolution_m=5.0,
force_refresh=True,
)
def elevation_tiff(*, left: float, top: float, width: int, height: int, resolution: float = 5.0) -> bytes:
rows, columns = np.indices((height, width))
values = (20.0 + columns * 0.5 + rows * 1.0).astype("float32")
with MemoryFile() as memory:
with memory.open(
driver="GTiff",
width=width,
height=height,
count=1,
dtype="float32",
crs="EPSG:31370",
transform=from_origin(left, top, resolution, resolution),
nodata=-9999.0,
) as output:
output.write(values, 1)
return memory.read()
def constant_elevation_tiff(*, left: float, top: float, value: float) -> bytes:
values = np.full((20, 20), value, dtype="float32")
with MemoryFile() as memory:
with memory.open(
driver="GTiff",
width=20,
height=20,
count=1,
dtype="float32",
crs="EPSG:31370",
transform=from_origin(left, top, 5.0, 5.0),
nodata=-9999.0,
) as output:
output.write(values, 1)
return memory.read()
def edge_elevation_tiff(*, left: float, top: float, x_resolution: float, y_resolution: float = 5.0) -> bytes:
rows, columns = np.indices((20, 20))
values = (20.0 + columns * 0.5 + rows).astype("float32")
with MemoryFile() as memory:
with memory.open(
driver="GTiff",
width=20,
height=20,
count=1,
dtype="float32",
crs="EPSG:31370",
transform=from_origin(left, top, x_resolution, y_resolution),
nodata=-9999.0,
) as output:
output.write(values, 1)
return memory.read()
def multipart_tiff(content: bytes) -> tuple[bytes, str]:
boundary = "wcs-test"
payload = (
f"--{boundary}\r\nContent-Type: text/xml\r\nContent-ID: GML-Part\r\n\r\n\r\n"
f"--{boundary}\r\nContent-Type: image/tiff\r\nContent-ID: coverage.tif\r\n\r\n"
).encode() + content + f"\r\n--{boundary}--\r\n".encode()
return payload, f'multipart/mixed; boundary="{boundary}"'
def test_dhmv_registry_is_governed_and_semantically_explicit() -> None:
products = DhmvAcquisitionService.list_products()
assert [item["key"] for item in products] == ["dtm_1m", "dsm_1m"]
assert {item["coverage_id"] for item in products} == {"DHMVII_DTM_1m", "DHMVII_DSM_1m"}
assert all(item["native_resolution_m"] == 1.0 for item in products)
assert all(item["source_crs"] == "EPSG:31370" for item in products)
assert all("TAW" in item["vertical_reference"] for item in products)
assert all(item["acquisition_period"] == "2013-2015" for item in products)
assert "waterdiepte" in products[0]["limitation_message"]
def test_dhmv_request_uses_bounded_official_wcs_scaling() -> None:
prepared = DhmvAcquisitionService._prepared_request(lambert_bbox_payload(), Settings(_env_file=None))
assert prepared["coverage_id"] == "DHMVII_DTM_1m"
assert prepared["params"]["SCALEFACTOR"] == "5"
assert prepared["params"]["SUBSET"][0].startswith("x(")
assert prepared["params"]["SUBSET"][1].startswith("y(")
assert "geo.api.vlaanderen.be%2FDHMV" not in prepared["request_url"]
assert prepared["request_url"].startswith("https://geo.api.vlaanderen.be/DHMV/wcs?")
assert prepared["width"] * prepared["height"] <= 12_000_000
assert len(prepared["request_hash"]) == 64
with pytest.raises(AppError) as exc_info:
DhmvAcquisitionService._prepared_request(
lambert_bbox_payload(product_key="arbitrary"),
Settings(_env_file=None),
)
assert exc_info.value.code == "DHMV_PRODUCT_NOT_SUPPORTED"
def test_dhmv_request_rejects_unsafe_size_and_resolution() -> None:
with pytest.raises(AppError) as exc_info:
DhmvAcquisitionService._prepared_request(lambert_bbox_payload(side_m=5.0), Settings(_env_file=None))
assert exc_info.value.code == "DHMV_SELECTION_TOO_SMALL"
payload = lambert_bbox_payload()
payload.resolution_m = 0.5
with pytest.raises(Exception):
DhmvAcquireRequest.model_validate(payload.model_dump())
def test_dhmv_large_scope_is_bounded_into_mosaicable_wcs_tiles() -> None:
prepared = DhmvAcquisitionService._prepared_request(
lambert_bbox_payload(side_m=15_000.0),
Settings(_env_file=None),
)
tile_bounds = DhmvAcquisitionService._tile_bounds(prepared)
assert len(tile_bounds) == 4
assert all(bounds[2] - bounds[0] <= 10_000.0 for bounds in tile_bounds)
assert all(bounds[3] - bounds[1] <= 10_000.0 for bounds in tile_bounds)
left = elevation_tiff(left=200_000, top=210_100, width=20, height=20)
right = elevation_tiff(left=200_100, top=210_100, width=20, height=20)
mosaic = DhmvAcquisitionService._mosaic_geotiffs([left, right])
with MemoryFile(mosaic) as memory, memory.open() as dataset:
assert dataset.crs.to_epsg() == 31370
assert dataset.res == pytest.approx((5.0, 5.0))
assert dataset.width == 40
assert dataset.height == 20
assert dataset.nodata == -9999.0
def test_dhmv_mosaic_harmonizes_only_bounded_wcs_edge_grid_rounding() -> None:
regular = elevation_tiff(left=200_000, top=210_100, width=20, height=20)
rounded_edge = edge_elevation_tiff(left=200_100, top=210_100, x_resolution=4.76555, y_resolution=5.0008)
diagnostics: dict[str, object] = {}
mosaic = DhmvAcquisitionService._mosaic_geotiffs(
[regular, rounded_edge],
expected_resolution_m=5.0,
diagnostics=diagnostics,
)
with MemoryFile(mosaic) as memory, memory.open() as dataset:
assert dataset.res == pytest.approx((5.0, 5.0))
assert diagnostics["harmonized_tile_indexes"] == [1]
assert diagnostics["harmonization_method"] == "rasterio_merge_target_resolution"
unsafe_edge = edge_elevation_tiff(left=200_100, top=210_100, x_resolution=4.5)
with pytest.raises(AppError) as exc_info:
DhmvAcquisitionService._mosaic_geotiffs([regular, unsafe_edge], expected_resolution_m=5.0)
assert exc_info.value.code == "DHMV_TILE_MISMATCH"
def test_dhmv_multipart_geotiff_is_extracted_and_invalid_response_fails_closed() -> None:
tiff = elevation_tiff(left=200_000, top=210_100, width=20, height=20)
multipart, content_type = multipart_tiff(tiff)
assert DhmvAcquisitionService._extract_geotiff(multipart, content_type) == tiff
with pytest.raises(AppError) as exc_info:
DhmvAcquisitionService._extract_geotiff(b"", "text/xml")
assert exc_info.value.code == "DHMV_PROVIDER_INVALID_RESPONSE"
def test_dhmv_fetch_sends_explicit_accept_header_required_by_official_wcs() -> None:
observed_headers: dict[str, str | None] = {}
def opener(request, **_kwargs):
observed_headers["accept"] = request.get_header("Accept")
observed_headers["user_agent"] = request.get_header("User-agent")
return FakeResponse(b"II*\x00test", "image/tiff")
content, content_type = DhmvAcquisitionService._fetch(
"https://geo.api.vlaanderen.be/DHMV/wcs?bounded=true",
Settings(_env_file=None),
opener,
)
assert content == b"II*\x00test"
assert content_type == "image/tiff"
assert observed_headers == {
"accept": "*/*",
"user_agent": "GeoIntel/0.1 bounded-dhmv-acquisition",
}
def test_dhmv_acquisition_clips_validates_and_persists_via_dataset_service(tmp_path) -> None:
project_id = uuid4()
area_id = uuid4()
payload = lambert_bbox_payload(area_id=area_id)
area_geometry = MultiPolygon([box(payload.bbox.min_x, payload.bbox.min_y, payload.bbox.max_x, payload.bbox.max_y)])
db = FakeSession(
{
(Project, project_id): Project(id=project_id, name="Mol"),
(Area, area_id): Area(
id=area_id,
project_id=project_id,
name="Gemeente Mol",
geometry=from_shape(area_geometry, srid=4326),
),
}
)
settings = Settings(_env_file=None, storage_root=str(tmp_path), dhmv_resolution_m=5.0)
prepared = DhmvAcquisitionService._prepared_request(payload, settings)
tiff = elevation_tiff(
left=prepared["bbox_epsg31370"][0],
top=prepared["bbox_epsg31370"][3],
width=prepared["width"],
height=prepared["height"],
)
multipart, content_type = multipart_tiff(tiff)
result = DhmvAcquisitionService.acquire(
db,
project_id,
payload,
settings=settings,
opener=lambda *_args, **_kwargs: FakeResponse(multipart, content_type),
)
dataset = next(item for item in db.added if isinstance(item, Dataset))
version = next(item for item in db.added if isinstance(item, DatasetVersion))
source = next(item for item in db.added if isinstance(item, SourceRegistry))
snapshot = next(item for item in db.added if isinstance(item, SourceSnapshot))
assert result["output_dataset_id"] == str(dataset.id)
assert dataset.source_name == "digitaal_vlaanderen_dhmv"
assert dataset.area_id == area_id
assert dataset.dataset_type == "raster"
assert dataset.crs == "EPSG:31370"
assert dataset.checksum_sha256 == version.checksum_sha256
assert dataset.source_metadata["surface_model"] == "terrain"
assert dataset.source_metadata["native_resolution_m"] == 1.0
assert dataset.source_metadata["analysis_resolution_m"] == 5.0
assert dataset.source_metadata["nodata_value"] == -9999.0
assert dataset.provenance_metadata["water_depth_available"] is False
assert dataset.provenance_metadata["water_volume_available"] is False
assert len(dataset.provenance_metadata["response_sha256"]) == 64
assert dataset.source_registry_id == source.id
assert dataset.source_snapshot_id == snapshot.id
assert dataset.validation_status == "passed"
assert dataset.provenance_status == "complete"
assert dataset.lineage_status == "not_applicable"
assert dataset.quarantine_status == "not_quarantined"
assert snapshot.source_registry_id == source.id
assert snapshot.checksum_sha256 == dataset.checksum_sha256
assert snapshot.ingest_status == "ingested"
assert snapshot.freshness_status == "current"
with rasterio.open(dataset.storage_path) as stored:
assert stored.crs.to_epsg() == 31370
assert stored.count == 1
assert stored.nodata == -9999.0
assert stored.res == pytest.approx((5.0, 5.0))
def test_terrain_analysis_returns_governed_elevation_relief_and_slope(tmp_path) -> None:
project_id = uuid4()
dataset_id = uuid4()
path = tmp_path / "terrain.tif"
path.write_bytes(elevation_tiff(left=200_000, top=210_100, width=20, height=20))
to_wgs84 = Transformer.from_crs("EPSG:31370", "EPSG:4326", always_xy=True)
min_x, min_y = to_wgs84.transform(200_000, 210_000)
max_x, max_y = to_wgs84.transform(200_100, 210_100)
dataset = Dataset(
id=dataset_id,
project_id=project_id,
name="dhmvii_terrain_5m.tif",
dataset_type="raster",
source="official WCS",
source_name="digitaal_vlaanderen_dhmv",
source_metadata={
"product_key": "dtm_1m",
"surface_model": "terrain",
"vertical_reference": "TAW (Tweede Algemene Waterpassing)",
},
status="ready",
storage_path=str(path),
)
db = FakeSession({(Dataset, dataset_id): dataset})
payload = TerrainSelectionRequest(
bbox={"min_x": min_x, "min_y": min_y, "max_x": max_x, "max_y": max_y, "crs": "EPSG:4326"}
)
result = TerrainAnalysisService.analyze(db, project_id, dataset_id, payload, settings=Settings(_env_file=None))
metrics = {item["metric_key"]: item for item in result["summary"]["metrics"]}
assert result["sample_count"] > 300
assert result["coverage_ratio"] > 0.99
assert result["resolution_m"] == 5.0
assert result["summary"]["metric_unit"] == "m TAW"
assert metrics["relief_m"]["metric_value"] > 20
assert metrics["slope_mean_deg"]["metric_value"] == pytest.approx(12.6044, abs=0.01)
assert result["unsupported_metrics"] == ["water_depth_m", "water_volume_m3"]
assert "Waterdiepte" in result["limitation_message"]
def test_partitioned_terrain_analysis_is_exact_across_municipality_boundaries(tmp_path) -> None:
project_id = uuid4()
transformer = Transformer.from_crs("EPSG:31370", "EPSG:4326", always_xy=True)
min_x, min_y = transformer.transform(200_000, 210_000)
middle_x, _ = transformer.transform(200_100, 210_000)
max_x, max_y = transformer.transform(200_200, 210_100)
paths = [tmp_path / "left-terrain.tif", tmp_path / "right-terrain.tif"]
paths[0].write_bytes(constant_elevation_tiff(left=200_000, top=210_100, value=10.0))
paths[1].write_bytes(constant_elevation_tiff(left=200_100, top=210_100, value=20.0))
datasets = [
Dataset(
id=uuid4(),
project_id=project_id,
area_id=uuid4(),
name=path.name,
dataset_type="raster",
source="official WCS",
source_name="digitaal_vlaanderen_dhmv",
source_metadata={
"product_key": "dtm_1m",
"surface_model": "terrain",
"bbox_epsg4326": [left, min_y, right, max_y],
},
status="ready",
storage_path=str(path),
)
for path, left, right in (
(paths[0], min_x, middle_x),
(paths[1], middle_x, max_x),
)
]
db = FakeSession(query_result=datasets)
payload = TerrainPartitionSelectionRequest(
bbox={"min_x": min_x, "min_y": min_y, "max_x": max_x, "max_y": max_y, "crs": "EPSG:4326"},
product_key="dtm_1m",
)
result = TerrainAnalysisService.analyze_partitions(
db,
project_id,
payload,
settings=Settings(_env_file=None),
)
metrics = {item["metric_key"]: item["metric_value"] for item in result["summary"]["metrics"]}
assert result["partition_count"] == 2
assert set(result["dataset_ids"]) == {str(dataset.id) for dataset in datasets}
assert result["sample_count"] >= 790
assert metrics["terrain_elevation_mean_m"] == pytest.approx(15.0, abs=0.1)
assert metrics["terrain_elevation_min_m"] == 10.0
assert metrics["terrain_elevation_max_m"] == 20.0
assert metrics["terrain_elevation_p90_m"] == 20.0
assert "2 persistente gemeentelijke rasterpartities" in result["limitation_message"]
def test_terrain_analysis_rejects_non_dhmv_raster(tmp_path) -> None:
project_id = uuid4()
dataset_id = uuid4()
path = tmp_path / "other.tif"
path.write_bytes(elevation_tiff(left=200_000, top=210_100, width=20, height=20))
dataset = Dataset(
id=dataset_id,
project_id=project_id,
name="other.tif",
dataset_type="raster",
source="manual",
source_name="manual",
status="ready",
storage_path=str(path),
)
db = FakeSession({(Dataset, dataset_id): dataset})
with pytest.raises(AppError) as exc_info:
TerrainAnalysisService.analyze(db, project_id, dataset_id, TerrainSelectionRequest(bbox=lambert_bbox_payload().bbox))
assert exc_info.value.code == "INVALID_TERRAIN_DATASET"
def test_terrain_renderer_returns_browser_png(tmp_path) -> None:
project_id = uuid4()
dataset_id = uuid4()
path = tmp_path / "terrain.tif"
path.write_bytes(elevation_tiff(left=200_000, top=210_100, width=20, height=20))
dataset = Dataset(
id=dataset_id,
project_id=project_id,
name="terrain.tif",
dataset_type="raster",
source="official",
source_name="digitaal_vlaanderen_dhmv",
source_metadata={"product_key": "dtm_1m", "surface_model": "terrain"},
status="ready",
storage_path=str(path),
)
db = FakeSession({(Dataset, dataset_id): dataset})
assert TerrainAnalysisService.render_png(db, project_id, dataset_id).startswith(b"\x89PNG\r\n\x1a\n")
def test_dhmv_endpoints_use_canonical_envelopes(monkeypatch) -> None:
project_id = uuid4()
output_dataset_id = uuid4()
db = FakeSession({(Project, project_id): Project(id=project_id, name="Mol")})
monkeypatch.setattr(
DhmvAcquisitionService,
"acquire",
lambda *_args, **_kwargs: {
"output_dataset_id": str(output_dataset_id),
"provider": "digitaal_vlaanderen_dhmv",
"reused": False,
},
)
monkeypatch.setattr(
TerrainAnalysisService,
"analyze",
lambda *_args, **_kwargs: {
"dataset_id": str(output_dataset_id),
"product_key": "dtm_1m",
"surface_model": "terrain",
"selection_bbox": lambert_bbox_payload().bbox.model_dump(),
"sample_count": 100,
"slope_sample_count": 81,
"coverage_ratio": 1.0,
"resolution_m": 5.0,
"vertical_reference": "TAW",
"summary": {
"metric_label": "Gemiddelde terreinhoogte",
"metric_value": 25.0,
"metric_unit": "m TAW",
"aggregation_method": "mean",
"primary_metric_key": "terrain_elevation_mean_m",
"metrics": [],
},
"unsupported_metrics": ["water_depth_m", "water_volume_m3"],
"limitation_message": "Terrain height is not water depth.",
"generated_at": "2026-07-18T00:00:00Z",
},
)
monkeypatch.setattr(
TerrainAnalysisService,
"analyze_partitions",
lambda *_args, **_kwargs: {
"dataset_id": str(output_dataset_id),
"dataset_ids": [str(output_dataset_id)],
"partition_count": 1,
"product_key": "dtm_1m",
"surface_model": "terrain",
"selection_bbox": lambert_bbox_payload().bbox.model_dump(),
"sample_count": 100,
"slope_sample_count": 81,
"coverage_ratio": 1.0,
"resolution_m": 5.0,
"vertical_reference": "TAW",
"summary": {
"metric_label": "Gemiddelde terreinhoogte",
"metric_value": 25.0,
"metric_unit": "m TAW",
"aggregation_method": "mean",
"primary_metric_key": "terrain_elevation_mean_m",
"metrics": [],
},
"unsupported_metrics": ["water_depth_m", "water_volume_m3"],
"limitation_message": "Terrain height is not water depth.",
"generated_at": "2026-07-18T00:00:00Z",
},
)
app.dependency_overrides[get_db] = lambda: db
try:
products = TestClient(app).get(f"/api/v1/projects/{project_id}/datasets/dhmv/products")
acquisition = TestClient(app).post(
f"/api/v1/projects/{project_id}/datasets/dhmv/acquire",
json=lambert_bbox_payload().model_dump(mode="json"),
)
terrain = TestClient(app).post(
f"/api/v1/projects/{project_id}/datasets/{output_dataset_id}/raster/terrain/select",
json={"bbox": lambert_bbox_payload().bbox.model_dump()},
)
regional_terrain = TestClient(app).post(
f"/api/v1/projects/{project_id}/datasets/raster/terrain/select",
json={"bbox": lambert_bbox_payload().bbox.model_dump(), "product_key": "dtm_1m"},
)
finally:
app.dependency_overrides.clear()
assert products.status_code == 200
assert set(products.json()) == {"data"}
assert products.json()["data"]["total"] == 2
assert acquisition.status_code == 200
assert set(acquisition.json()) == {"data"}
assert acquisition.json()["data"]["job_type"] == "raster.dhmv.acquire"
assert acquisition.json()["data"]["output_dataset_id"] == str(output_dataset_id)
assert terrain.status_code == 200
assert set(terrain.json()) == {"data"}
assert terrain.json()["data"]["sample_count"] == 100
assert terrain.json()["data"]["unsupported_metrics"] == ["water_depth_m", "water_volume_m3"]
assert regional_terrain.status_code == 200
assert set(regional_terrain.json()) == {"data"}
assert regional_terrain.json()["data"]["partition_count"] == 1
assert any(isinstance(item, Job) for item in db.added)
def test_frontend_and_runtime_expose_dhmv_workflow() -> None:
capabilities_source = (
ROOT / "frontend" / "src" / "lib" / "datasetCapabilities.ts"
).read_text(encoding="utf-8")
map_source = read_map_workspace()
hook_source = read_feature("map_workspace")
service_source = read_feature("datasets")
assert "digitaal_vlaanderen_dhmv" in capabilities_source
assert "isMapRasterDataset" in capabilities_source
assert "Hoogte & reliƫf" in map_source
assert "terrainImageUrl" in map_source
assert "analysisMode === 'current' && activeTheme.id === 'buildings' && mapSelectionBbox" in map_source
assert "selectTerrain" in hook_source
assert "/raster/terrain/select" in service_source
for path in (
ROOT / ".env.example",
ROOT / "docker-compose.yml",
ROOT / "docker-compose.unraid.yml",
ROOT / "deploy" / "unraid" / "run-dockerman-container.sh",
ROOT / "deploy" / "unraid" / "geointel-unraid-template.xml",
):
content = path.read_text(encoding="utf-8")
assert "DHMV_ENABLED" in content
assert "DHMV_RESOLUTION_M" in content
assert "DHMV_MAX_PIXELS" in content
def test_dhmv_operator_is_packaged_and_release_checked() -> None:
operator = (ROOT / "scripts" / "provision_mol_dhmv.py").read_text(encoding="utf-8")
readiness = (ROOT / "scripts" / "run_readiness_check.sh").read_text(encoding="utf-8")
backend_dockerfile = (ROOT / "backend" / "Dockerfile").read_text(encoding="utf-8")
all_in_one_dockerfile = (ROOT / "deploy" / "unraid" / "Dockerfile.all-in-one").read_text(encoding="utf-8")
assert "/datasets/dhmv/acquire" in operator
assert "/raster/terrain/select" in operator
assert "water_depth_m" in operator
assert "py_compile scripts/provision_mol_dhmv.py" in readiness
assert "COPY . /app" in backend_dockerfile
assert "COPY scripts/provision_mol_dhmv.py /app/scripts/provision_mol_dhmv.py" in all_in_one_dockerfile