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1
Introduction
2
Most important slide
3
Lagrangian formulation
4
Main idea
5
Microscopic model
6
Hamiltonian equation
7
Continuity equation
8
Existing work
9
Monte Carlo
10
Machine Learning Framework
11
RecordBased Architecture
12
Gradient
13
Trace
14
Cost
15
Improved red constructions
16
Enforce the physics
17
Gradient penalization
18
Results
19
Numerical Results
20
Conclusion
21
Last function
22
Comments
Description:
Explore a comprehensive lecture on solving high-dimensional Hamilton-Jacobi equations using generalized Hopf-Lax formulas and machine learning techniques. Delve into the Lagrangian formulation, microscopic models, and Hamiltonian equations presented by Stanley Osher and Samy Wu Fung from UCLA. Examine existing work, including Monte Carlo methods and machine learning frameworks, while learning about record-based architecture, gradient trace cost, and improved reconstructions. Discover how to enforce physics in solutions and apply gradient penalization. Analyze numerical results and gain valuable insights into this complex topic in applied mathematics and control theory.

Solving High Dimensional HJ Equations Using Generalized Hopf-Lax Formulas vs Using Machine Learning

Institute for Pure & Applied Mathematics (IPAM)
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