--- name: prosthetics-design-optimizer description: Prosthetics and orthotics design optimization skill integrating biomechanical requirements with manufacturing constraints allowed-tools: - Read - Write - Glob - Grep - Edit - Bash metadata: specialization: biomedical-engineering domain: science category: Medical Imaging skill-id: BME-SK-032 --- # Prosthetics Design Optimizer Skill ## Purpose The Prosthetics Design Optimizer Skill supports design optimization of prosthetics and orthotics, integrating biomechanical analysis, patient-specific customization, and manufacturing constraints. ## Capabilities - Socket design parameterization - Load distribution analysis - Alignment optimization - Component selection guidance - Suspension system design - Cosmesis integration - Patient-specific customization from scanning - Gait analysis integration - Comfort assessment metrics - Range of motion optimization - Weight optimization ## Usage Guidelines ### When to Use - Designing prosthetic/orthotic devices - Optimizing socket fit - Selecting components - Customizing for individual patients ### Prerequisites - Patient assessment completed - Residual limb/anatomy scanned - Activity level determined - Component options identified ### Best Practices - Integrate gait analysis data - Optimize for patient activity level - Consider long-term wear patterns - Plan for adjustment needs ## Process Integration This skill integrates with the following processes: - Gait Analysis and Musculoskeletal Modeling - Finite Element Analysis for Medical Devices - Design Control Process Implementation - Human Factors Engineering and Usability ## Dependencies - CAD/CAM systems - 3D scanning systems - OpenSim - Gait analysis data - Component databases ## Configuration ```yaml prosthetics-design-optimizer: device-types: - transtibial - transfemoral - upper-extremity - AFO - KAFO - spinal design-parameters: - socket-geometry - alignment - suspension - cosmesis analysis-types: - FEA - gait-integration - comfort-mapping ``` ## Output Artifacts - Socket design specifications - Alignment parameters - Component recommendations - CAD models - FEA reports - Fitting protocols - Adjustment guidelines - Patient documentation ## Quality Criteria - Design meets biomechanical requirements - Socket fit optimized for comfort - Alignment appropriate for gait - Components suitable for activity level - Manufacturing feasible - Documentation supports clinical fitting