Learning with Physical Constraints
Miguel A. Mendez, Jan van Den Berghe, Manuel Ratz, Matilde Fiore, Lorenzo Schena

TL;DR
This paper presents three tutorial exercises on physics-constrained regression, demonstrating applications in velocity field super-resolution, turbulence modeling, and system identification, with accompanying Python code.
Contribution
It introduces practical toy problems for physics-constrained regression, illustrating its use in complex physical systems and providing accessible code implementations.
Findings
Demonstrated physics-constrained regression for velocity super-resolution
Applied data-driven methods to turbulence modeling
Showcased system identification for forecasting and control
Abstract
This chapter provides three tutorial exercises on physics-constrained regression. These are implemented as toy problems that seek to mimic grand challenges in (1) the super-resolution and data assimilation of the velocity field in image velocimetry, (2) data-driven turbulence modeling, and (3) system identification and digital twinning for forecasting and control. The Python codes for all exercises are provided in the course repository.
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Taxonomy
TopicsModel Reduction and Neural Networks · Fluid Dynamics and Turbulent Flows · Meteorological Phenomena and Simulations
