Scientific machine learning, physics-informed models, and data-driven ML for solving real-world problems.
Scientific machine learning, physics-informed models, and data-driven ML for solving real-world problems.
This three-day physical workshop will feature morning and afternoon talks each day, along with dedicated sessions for focused discussions.
Focus areas:
Geometric deep learning
Numerical-method–inspired network architectures
Analysis of stability, robustness, and generalization in physics-guided ML models
Physics-informed, constraint-aware, and structure-preserving learning methods
Data-efficient learning for physical systems
Operator learning and ML approaches for PDEs and dynamical systems
Neurosymbolic approaches that combine physical rules or symbolic structure with learned models
Confirmed speakers:
Johannes Brandstetter (Emmi AI, JKU Linz)
Matthew Colbrook (University of Cambridge)
Olga Fink (EPFL)
Georgios Kissas (ETH Zurich)
Nikola Kovachki (NVIDIA)
J. Nathan Kutz (University of Washington, Autodesk Research)
Andrea Manzoni (Politecnico di Milano)
Nat Trask (University of Pennsylvania)
Daniel Worrall (Google DeepMind)
Yue Yu (Lehigh University)
Marius Zeinhofer (ETH Zurich)