3D-Printed Hip Implant with Lattice Structure

Post-Processor Screenshot - PostProcessorScreenshot
Post-Processor Screenshot - PostProcessorScreenshot
PostProcessorScreenshot
2D
Post-Processor Screenshot - PostProcessorScreenshot
PostProcessorScreenshot
2D
Post-Processor Screenshot - PostProcessorScreenshot
PostProcessorScreenshot
2D
Post-Processor Screenshot - PostProcessorScreenshot
PostProcessorScreenshot
2D
Post-Processor Screenshot - PostProcessorScreenshot
PostProcessorScreenshot
2D
Post-Processor Screenshot - PostProcessorScreenshot
PostProcessorScreenshot
2D
Post-Processor Screenshot - PostProcessorScreenshot
PostProcessorScreenshot
2D
Post-Processor Screenshot - PostProcessorScreenshot
PostProcessorScreenshot
2D
Post-Processor Screenshot - PostProcessorScreenshot
PostProcessorScreenshot
2D
Post-Processor Screenshot - PostProcessorScreenshot
PostProcessorScreenshot
2D
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Yogi099
Created

4 months ago

Last modified

4 months ago

Statistics
geometries 2 Geometries
meshes 3 Meshes
simulations 8 Simulation setups
runs 10 Results

About this project

Compare stress in solid vs. lattice-structured implants. Geometry: • Implant dimensions: 0.15 m × 0.02 m (diameter). • Lattice structure: Gyroid (50% porosity). Material: Titanium (E = 110 GPa, ν = 0.33). Boundary Conditions: • 1 kN compressive load simulating body weight. • Fixed support at the distal end. Analysis Steps (SimScale): 1. Static structural analysis. 2. Homogenize lattice properties (simplified model). 3. Compare stress and weight reduction. Deliverables: • Stress distribution in lattice vs. solid. • Weight reduction percentage. Validation: Compare with experimental data on lattice compression.

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3D-Printed Hip Implant with Lattice Structure by Yogi099 | SimScale