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1. Import initial component geometry.

2. Define performance requirements and constraints.

3. Apply topology optimization to identify optimal material distribution.

4. Generate lattice structure for lightweighting.

5. Simulate performance using integrated FEA and CFD tools.

6. Iterate on design based on simulation results.

7. Export final design for manufacturing.

1. Import patient-specific anatomical data.

2. Design implant geometry based on anatomical data.

3. Generate porous structures for enhanced osseointegration.

4. Simulate mechanical performance under physiological loads.

5. Optimize design for biocompatibility and structural integrity.

6. Export design for 3D printing.

1. Import existing component geometry.

2. Define performance requirements and manufacturing constraints.

3. Apply topology optimization to reduce material usage.

4. Generate lattice structures for further weight reduction.

5. Simulate structural performance and crashworthiness.

6. Optimize design for weight, performance, and safety.

7. Export design for manufacturing.

1. Define system-level requirements and constraints.

2. Generate multiple design variants using parametric modeling.

3. Simulate performance of each variant under various scenarios.

4. Evaluate tradeoffs between mass, aero, and other factors.

5. Select the optimal design based on performance and feasibility.

6. Refine the design for production.

1. Define target geometry and constraints.

2. Implement support optimization.

3. Generate lightweighting.

4. Verify structural integrity.

5. Build reusable workflows.

6. Export final design for manufacturing.