research
My research focuses on geometric machine learning, with an emphasis on symmetry, equivariance, and representation learning. I am interested in how symmetry and curvature shape what graph and language models learn, and in using that structure to build more data-efficient and interpretable representations. Most recently, I developed Concorde, a mixed-curvature framework for link prediction (NeurIPS 2026), and FlowSymm, a symmetry-preserving graph attention mechanism for network flow completion (ICLR 2026). I have also worked on calibrated equivariance, how language models represent cyclic concepts, and the graph reasoning capabilities of generative models.
2026
- NeurIPS 2026Concorde: Geometry-Aware Link Prediction via Decoupled Energy MinimizationAdvances in Neural Information Processing Systems (NeurIPS 2026), Dec 2026
- ICLR 2027The Symmetry Stress-Test: Violation-Aware Benchmarking for Calibrated EquivarianceUnder review for ICLR 2027, Dec 2026
- ICLR 2027Circles or Orderings? A Symmetry Test for Cyclic Concepts in Language ModelsUnder review for ICLR 2027, Dec 2026