William Huang
IPhO Gold (2021). Lynbrook graduate (2022). Harvard Med Researcher (2023). NeurIPS first author (2024). Waymo patent creator (2025). Stanford CS BS (2026).


















I'm William, a theoretical physicist turned AI/hardware researcher from Stanford. When I was a kid, my parents took me to The Physics Show, and since then I've always found beauty in the predictive power of physics, leading me to the International Physics Olympiad. In this time, I also thought plenty about worlds beyond our own: I researched ongoing mysteries in astrophysics, from fast radio bursts to intermediate-mass black holes. When I reached college, I decided I wanted to pursue a field where the cutting edge was more readily applicable to society's problems, so I studied AI and Computer Science at Stanford. This led me to exciting research at Harvard Medical School, The Movement Lab @ Stanford, Citadel Securities, and Waymo. Ultimately, I missed the elegance of my first love in physics; I'm now combining my two fields of expertise in chip architecture for AI.
Get in touch at willsh@stanford.edu.
Projects. A selection of featured projects.
- Sparse Bird’s-Eye-View Backbone for Autonomous Vehicle PerceptionA novel sparse architecture for efficient perception in self-driving vehicles, created in collaboration with Waymo. Patent pending.Learn more
- sv-excel-agentAn open-source Excel AI agent that uses MCP tools to let LLMs read, edit, and automate spreadsheets.Learn more
- CNN AcceleratorA 16x16 systolic array optimized for ResNet-18, implemented with Catapult HLS for EE272.Learn more
- PPA Optimized Triangle RasterizerA power, performance, and area-optimized triangle rasterizer achieving a top 10% FoM in a graduate-level VLSI course.Learn more
- OnCourseA course planning application used by 10,000+ students at Stanford University.Learn more
Writing. A selection of my research.
- Constrained Diffusion with Trust SamplingA training-free loss-guided diffusion method for SoTA constraint following in image and human motion task (NeurIPS 2024).Read more
- Autoregressive DiffusionAutoregressive Diffusion for Long-Term Controllable Motion Synthesis (CURIS 2023).Read more
- Cross-domain Adaptation of Vision-Language Foundation Models for Medical ApplicationsInvestigation of effectiveness of general image-text pretraining and finetuning on medical vision-language transformers.Read more
