On the 2026 research/applied scientist and postdoc market
Research in structured 3D vision and efficient, interpretable AI.
I work at the intersection of computer vision, 3D perception, efficient adaptation, and cognitive AI. My research asks how models can recover the structure humans use naturally: parts, scenes, geometry, causal organization, and reusable internal representations.
The core theme is analysis by synthesis: infer hidden structure by building and testing generative explanations. This leads to practical systems for 3D understanding, robust evaluation, and continual learning without brute-force scale.
- 3D part representation learning: part-centric semantics, object pose, reconstruction, and synthetic-to-real transfer.
- Physics of AI and mechanistic interpretability: spectral structure, update geometry, model merging, and learning dynamics.
- Efficient learning and inference: parameter-efficient adaptation for LLMs, vision-language models, diffusion models, and 3D models.
- Interpretable and robust learning: failure-aware evaluation for large models and 3D vision systems under shift, occlusion, and hallucination.
Selected publications
All publications
Updates
All newsPresenting Name That Part at CVPR 2026 in Denver.
I am on the job market for research positions in industry and academia.
Can These Views Be One Scene? released with project page, code, and SysCON3D benchmark.
Name That Part accepted to CVPR 2026 Findings.
Shared LoRA Subspaces released on arXiv.
Research themes
Structured 3D perception
Part-level semantics, pose, reconstruction, synthetic-to-real adaptation, and evaluation.
Efficient learning dynamics
Reusable subspaces, LoRA geometry, model merging, and continual learning.
Cognitive and robust AI
Human-like diagnostics, compositional reasoning, and failure-aware evaluation.
Recent talks
All talks- Caltech Anima Lab, invited talk, April 2026.
- Levin Lab, Tufts University, invited talk, January 2026.
- JHU Cognitive Neuroscience and Deep Learning Group, February 2025.