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curl -L -o task-12.json https://huggingface.co/datasets/HongchengGao/EngiWorld-Tasks/resolve/main/task/single-software-execution/cli/abaqus/task-12/task-12.json
3.35 kB
| { | |
| "id": "single-software-execution--cli--abaqus--task-12--windows", | |
| "snapshot": "ABAQUS-2025L", | |
| "instruction": "Perform a linear buckling analysis of a thin plate (Variant A) using Abaqus via the Command Line Interface (CLI). To start Abaqus/CAE, run `C:\\SIMULIA\\CAE\\2025LE\\win_b64\\resources\\install\\le\\launcher.bat cae` (adjust path to your install). Before starting the work, Abaqus command-line jobs should be launched through `C:\\SIMULIA\\Commands\\abaqus.bat`.\n\nUse the N-mm-MPa unit system. Part: Create a 3D Deformable Shell, Planar part. Sketch a square plate from (0,0) to (96,96) in the X-Y plane. Property: Create a material named Steel. Set Young's modulus E = 210000 MPa and Poisson's ratio nu = 0.3. Create a Homogeneous Shell Section with thickness = 1.2 mm and 5 integration points. Assign the shell section to the entire plate. Assembly: Create one dependent instance of the plate. Step: Create a Linear Perturbation > Buckle step named Step-Buckle-A. Request 3 eigenvalues. Mesh: Use global seed size = 6 mm. Use S4R shell elements. Generate the mesh. Load and Boundary Conditions: Represent the compressive edge load of 1.2 N/mm on the two vertical edges by equivalent nodal forces after meshing. On the X=0 edge, apply nodal forces in the +X direction. On the X=96 edge, apply nodal forces in the -X direction. Because the edge length is 96 mm and the mesh spacing is 6 mm, apply 7.2 N to each interior edge node and 3.6 N to each corner edge node on each loaded vertical edge. Apply U3 = 0 on all four plate edges: X=0, X=96, Y=0, and Y=96, to represent simply supported transverse conditions. Select the center mesh node at approximately (X=48, Y=48, Z=0) and apply U1 = U2 = 0 to suppress in-plane translational rigid-body motion. Select the bottom-edge midpoint mesh node at approximately (X=48, Y=0, Z=0) and apply U1 = 0 only to suppress the remaining in-plane rotational rigid-body mode. Job: Create Job-Buckle-A and submit it for solving. Visualization: Review the first buckling mode. Record the first eigenvalue. Save: Save the model database to C:\\Users\\user\\Desktop\\Job-Buckle-A.cae and ensure the output database is generated as C:\\Users\\user\\Desktop\\Job-Buckle-A.odb.", | |
| "source": "https://github.com/nasa/abaverify https://github.com/pantale/abaqusVumat https://github.com/davidmorinNTNU/ABAQUS_subroutines", | |
| "config": [ | |
| { | |
| "type": "upload_file", | |
| "parameters": { | |
| "files": [] | |
| } | |
| } | |
| ], | |
| "trajectory": "trajectories/", | |
| "related_apps": [ | |
| "abaqus" | |
| ], | |
| "artifact_paths": [ | |
| "C:\\Users\\user\\Desktop\\Job-Buckle-A.cae", | |
| "C:\\Users\\user\\Desktop\\Job-Buckle-A.odb" | |
| ], | |
| "evaluator": { | |
| "postconfig": [ | |
| { | |
| "type": "upload_file", | |
| "parameters": { | |
| "files": [ | |
| { | |
| "local_path": "task-12/eval.py", | |
| "path": "C:\\Users\\user\\Desktop\\eval.py" | |
| } | |
| ] | |
| } | |
| } | |
| ], | |
| "func": "exact_match", | |
| "result": { | |
| "type": "vm_command_line", | |
| "command": "C:\\SIMULIA\\Commands\\abaqus.bat cae noGUI=C:\\Users\\user\\Desktop\\eval.py", | |
| "shell": "true" | |
| }, | |
| "expected": { | |
| "type": "rule", | |
| "rules": { | |
| "expected": "True\n" | |
| } | |
| } | |
| }, | |
| "proxy": false, | |
| "fixed_ip": false, | |
| "possibility_of_env_change": "low" | |
| } | |