Columbia University | Digital Manufacturing Project
Project Overview Developed a specialized software solution designed to bridge the gap between parametric design and physical fabrication. The tool enables users to generate precise, laser-cutting-ready Scalable Vector Graphics (SVG) files based on custom dimensions, streamlining the transition from digital concept to physical prototype.
Technical Responsibilities & Methodologies
Parametric Design Engine: Engineered the core software logic to calculate and generate custom geometries based on user-defined parameters (length, width, height, and material thickness).
Digital Fabrication Optimization: Integrated functionality to output high-precision SVG files, ensuring compatibility with standard laser cutting equipment and industrial manufacturing workflows.
Design for Manufacturing (DFM): Applied DFM principles to create an "open-bin box" generator that accounts for material kerf and interlocking tab tolerances, ensuring structural integrity and ease of assembly.
UI/UX Implementation: Developed an accessible interface that allows for real-time parameter adjustment, enabling rapid iteration and customization for DIY and professional applications.
Key Achievements
Streamlined Workflow: Successfully reduced the time required to move from design to physical prototype by automating the generation of manufacturing-ready vector files.
Precision Manufacturing: Enhanced output quality by incorporating adjustable parameters that ensure tight tolerances and structural reliability across different materials (e.g., acrylic, plywood).
Scalability & Compatibility: Validated the tool's scalability through thorough material testing, ensuring precise execution of designs regardless of the physical scale.