Cooper Shea

Cooper Shea

coopershea.com | LinkedIn ↗ | Google Scholar ↗

Mechanical & materials engineer specializing in computational 3D design, AI-assisted engineering workflows, and rapid hardware prototyping. Experience across robotics, medical devices, hydrogen systems, and automated design pipelines.


Research Interests


Education

Stanford University -- Stanford, CA


Professional Experience

Founding Prototype Engineer -- Uncapped Potential, San Francisco

July 2025 -- Present

Chief Engineer -- JAS Surgical, Palo Alto

April 2025 -- Present

Mechanical Engineer, Product Design -- Verne, San Francisco

November 2024 -- July 2025

Master's Residency, Ocean Hardware -- X, the moonshot factory (Tidal), Mountain View

July 2023 -- December 2023

R&D Intern, Battery Pilot Plant -- Blue Current, Hayward

June 2022 -- August 2022


Research Experience

DeSimone Lab -- Stanford University, Chemical Engineering

Researcher: Computational Design of Coronary Stents, Microneedles, and Orofacial Devices September 2020 -- June 2023

Okamura Lab -- Stanford University, Mechanical Engineering

Rotation Student March 2024 -- May 2024

Gordon Lab -- Stanford University, Biology

Undergraduate Field Researcher August 2019 -- September 2019


Publications

Patents


Teaching and Mentoring


Leadership and Service


Live Development Projects


Awards and Fellowships


Technical Skills

Programming: Python (Proficient), MATLAB (Proficient), C/C++ (Basic/Proficient), Agentic AI workflows (Intermediate), AI-assisted IDEs: Windsurf, Cursor, Replit, Claude Code (Expert)

Design: 3D CAD -- Fusion 360, SolidWorks, Onshape (Expert: complex assemblies, tooling, GD&T). Prototyping -- CNC, lathe, mill, additive (FDM/SLA), jig/fixture fabrication. 2D drafting with GD&T per ASME Y14.5. Electromechanical integration -- Arduino, Raspberry Pi, sensors, motors, wire harnesses. Testing -- custom test rigs, reliability evaluation, FEA, TEA, DFMEA.

Lab: Additive manufacturing (Expert), Mill/Lathe/CNC/Casting/Welding (Proficient), Materials testing (Proficient), Viscometry (Proficient), X-Ray Diffraction (Proficient), General Wet Lab (Proficient), Arduino/Raspberry Pi (Proficient), Process engineering and PLC (Basic)


Research Statement

I call the core bottleneck I study "Representational Friction": the chasm between digital abstractions and physical manufacturing. A mesh captures geometry but loses semantics; a B-Rep captures clean boundaries but resists neural manipulation; implicit fields offer topological freedom but are slow to craft. Engineers spend their time writing scripts to patch context between these formats rather than solving the actual problem.

My objective is to dismantle this friction by defining the next paradigm of computational design -- building the digital thread that preserves exact constraints while enabling the generative power of modern AI, creating the infrastructure to turn scientific discovery into scalable solutions.