High-fidelity 3D CAD profiles of Triply Periodic Minimal Surface (TPMS) structures and mechanical test specimens. Interact with the models below to inspect beam connectivity, cube boundaries, skeletal networks, and standardized tensile geometries.
An intricately chiral, non-intersecting surface containing no straight lines or planar faces. Confined within a strict cubic boundary for modular lattice assembly.
Characterized by three mutually orthogonal intersecting plates. This solid mesh representation highlights the continuous surface area ideal for fluid flow and thermal exchange.
The skeletal graph extraction of the Gyroid surface. Features highly tortuous beam paths that promote excellent energy absorption and structural compliance under multi-axial loading.
Translates the Schwarz Primitive surface into a simple cubic node-to-node beam network. Exhibits high connectivity at vertices, making it highly predictable for Gibson-Ashby mechanical modeling.
A flat (dog-bone) tensile test geometry for uniaxial mechanical characterization of additively manufactured materials. The reduced gauge section ensures controlled fracture localization for reliable stress–strain extraction.
A cylindrical tensile test geometry with a machined gauge length for uniaxial loading of bulk and LPBF-fabricated rod stock. Provides uniform stress distribution and compatibility with standard gripping fixtures.
Materials scientist specializing in additive manufacturing, metamaterials, and data-driven materials design. Research focuses on the development and characterization of advanced functional materials, with particular emphasis on laser powder bed fusion (LPBF), triply periodic minimal surface (TPMS) structures, and shape memory alloys including nickel–titanium (NiTi) systems.
This CAD topology laboratory serves as an interactive extension of my research portfolio, demonstrating parametric design capabilities, 3D CAD modeling, and mechanical analysis of lattice structures for next-generation smart manufacturing.