def test_vertical_perspective():
crs = ProjectedCRS(
conversion=VerticalPerspectiveConversion(50, 0, 1, 0, 2, 3))
expected_cf = {
"semi_major_axis": 6378137.0,
"semi_minor_axis": crs.ellipsoid.semi_minor_metre,
"inverse_flattening": crs.ellipsoid.inverse_flattening,
"reference_ellipsoid_name": "WGS 84",
"longitude_of_prime_meridian": 0.0,
"prime_meridian_name": "Greenwich",
"horizontal_datum_name": "World Geodetic System 1984",
"grid_mapping_name": "vertical_perspective",
"perspective_point_height": 50.0,
"latitude_of_projection_origin": 0.0,
"longitude_of_projection_origin": 1.0,
"false_easting": 2.0,
"false_northing": 3.0,
"geographic_crs_name": "undefined",
"projected_crs_name": "undefined",
}
cf_dict = crs.to_cf()
assert cf_dict.pop("crs_wkt").startswith("PROJCRS[")
assert cf_dict == expected_cf
# test roundtrip
_test_roundtrip(expected_cf, "PROJCRS[")
def test_sinusoidal():
crs = ProjectedCRS(conversion=SinusoidalConversion(0, 1, 2))
expected_cf = {
"semi_major_axis": 6378137.0,
"semi_minor_axis": crs.ellipsoid.semi_minor_metre,
"inverse_flattening": crs.ellipsoid.inverse_flattening,
"reference_ellipsoid_name": "WGS 84",
"longitude_of_prime_meridian": 0.0,
"prime_meridian_name": "Greenwich",
"horizontal_datum_name": "World Geodetic System 1984",
"grid_mapping_name": "sinusoidal",
"longitude_of_projection_origin": 0.0,
"false_easting": 1.0,
"false_northing": 2.0,
}
cf_dict = crs.to_cf()
assert cf_dict.pop("crs_wkt").startswith("PROJCRS[")
assert cf_dict == expected_cf
# test roundtrip
_test_roundtrip(expected_cf, "PROJCRS[")
def test_polar_stereographic_b():
crs = ProjectedCRS(conversion=PolarStereographicBConversion(0, 1, 2, 3))
expected_cf = {
"semi_major_axis": 6378137.0,
"semi_minor_axis": crs.ellipsoid.semi_minor_metre,
"inverse_flattening": crs.ellipsoid.inverse_flattening,
"reference_ellipsoid_name": "WGS 84",
"longitude_of_prime_meridian": 0.0,
"prime_meridian_name": "Greenwich",
"horizontal_datum_name": "World Geodetic System 1984",
"grid_mapping_name": "polar_stereographic",
"standard_parallel": 0.0,
"straight_vertical_longitude_from_pole": 1.0,
"false_easting": 2.0,
"false_northing": 3.0,
}
cf_dict = crs.to_cf()
assert cf_dict.pop("crs_wkt").startswith("PROJCRS[")
assert cf_dict == expected_cf
# test roundtrip
_test_roundtrip(expected_cf, "PROJCRS[")
def test_lambert_cylindrical_equal_area():
crs = ProjectedCRS(
conversion=LambertCylindricalEqualAreaConversion(1, 2, 3, 4))
expected_cf = {
"semi_major_axis": 6378137.0,
"semi_minor_axis": crs.ellipsoid.semi_minor_metre,
"inverse_flattening": crs.ellipsoid.inverse_flattening,
"reference_ellipsoid_name": "WGS 84",
"longitude_of_prime_meridian": 0.0,
"prime_meridian_name": "Greenwich",
"horizontal_datum_name": "World Geodetic System 1984",
"grid_mapping_name": "lambert_cylindrical_equal_area",
"standard_parallel": 1.0,
"longitude_of_central_meridian": 2.0,
"false_easting": 3.0,
"false_northing": 4.0,
}
cf_dict = crs.to_cf()
assert cf_dict.pop("crs_wkt").startswith("PROJCRS[")
assert cf_dict == expected_cf
# test roundtrip
_test_roundtrip(expected_cf, "PROJCRS[")
def test_mercator_a():
crs = ProjectedCRS(conversion=MercatorAConversion(1, 2, 3, 4))
expected_cf = {
"semi_major_axis": 6378137.0,
"semi_minor_axis": crs.ellipsoid.semi_minor_metre,
"inverse_flattening": crs.ellipsoid.inverse_flattening,
"reference_ellipsoid_name": "WGS 84",
"longitude_of_prime_meridian": 0.0,
"prime_meridian_name": "Greenwich",
"horizontal_datum_name": "World Geodetic System 1984",
"grid_mapping_name": "mercator",
"standard_parallel": 1.0,
"longitude_of_projection_origin": 2.0,
"false_easting": 3.0,
"false_northing": 4.0,
"scale_factor_at_projection_origin": 1.0,
"geographic_crs_name": "undefined",
"projected_crs_name": "undefined",
}
cf_dict = crs.to_cf()
assert cf_dict.pop("crs_wkt").startswith("PROJCRS[")
assert cf_dict == expected_cf
# test roundtrip
_test_roundtrip(expected_cf, "PROJCRS[")
