|
42 | 42 | # Define desired toroidal and poloidal angles for building the stellarator |
43 | 43 | toroidal_angles = [0.0, 11.25, 22.5, 33.75, 45.0, 56.25, 67.5, 78.75, 90.0] |
44 | 44 | poloidal_angles = [0.0, 45.0, 90.0, 135.0, 180.0, 225.0, 270.0, 315.0, 360.0] |
45 | | -wall_s = 1.08 |
| 45 | +wall_s = 1.0 |
46 | 46 |
|
47 | 47 | # Define a matrix of uniform unit thickness |
48 | 48 | uniform_unit_thickness = np.ones((len(toroidal_angles), len(poloidal_angles))) |
|
73 | 73 | } |
74 | 74 | # Construct in-vessel components |
75 | 75 | stellarator.construct_invessel_build( |
76 | | - toroidal_angles, poloidal_angles, wall_s, radial_build_dict, scale=1 |
| 76 | + toroidal_angles, poloidal_angles, wall_s, radial_build_dict |
77 | 77 | ) |
78 | 78 | # Export in-vessel component files |
79 | 79 | stellarator.export_invessel_build_step(export_dir=export_dir) |
|
89 | 89 | ) |
90 | 90 | # Export magnet files |
91 | 91 | stellarator.export_magnets_step(filename="magnets", export_dir=export_dir) |
92 | | -stellarator.export_magnet_mesh_cubit( |
93 | | - filename="magnet_mesh", export_dir=export_dir |
94 | | -) |
95 | 92 |
|
96 | 93 | # Define source mesh parameters |
97 | 94 | cfs_values = np.linspace(0.0, 1.0, num=11) |
|
102 | 99 | # Export source file |
103 | 100 | stellarator.export_source_mesh(filename="source_mesh", export_dir=export_dir) |
104 | 101 |
|
105 | | -# Build Cubit model of Parastell Components |
106 | | -stellarator.build_cubit_model(skip_imprint=True) |
107 | | - |
108 | | -# Export DAGMC neutronics H5M file |
109 | | -stellarator.export_cubit_dagmc(filename="dagmc", export_dir=export_dir) |
| 102 | +# Build DAGMC neutronics model |
| 103 | +stellarator.build_cad_to_dagmc_model() |
| 104 | +# Export DAGMC H5M file |
| 105 | +stellarator.export_cad_to_dagmc(filename="dagmc", export_dir=export_dir) |
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