Parametric Matrix Models: Applications in Physics
ORAL
Abstract
We present a general class of machine learning algorithms called parametric matrix models. In contrast with most existing
machine learning models that imitate the biology of neurons, parametric matrix models use matrix equations that emulate
the physics of quantum systems. Similar to how physics problems are usually solved, parametric matrix models learn the
governing equations that lead to the desired outputs. Parametric matrix models can be efficiently trained from empirical data,
and the equations may use algebraic, differential, or integral relations. While originally designed for scientific computing, we
prove that parametric matrix models are universal function approximators that can be applied to general machine learning
problems. After introducing the underlying theory, we apply parametric matrix models to a series of different challenges that
show their performance for a wide range of problems. For all the challenges tested here, parametric matrix models produce
accurate results within an efficient and interpretable computational framework that allows for input feature extrapolation.
machine learning models that imitate the biology of neurons, parametric matrix models use matrix equations that emulate
the physics of quantum systems. Similar to how physics problems are usually solved, parametric matrix models learn the
governing equations that lead to the desired outputs. Parametric matrix models can be efficiently trained from empirical data,
and the equations may use algebraic, differential, or integral relations. While originally designed for scientific computing, we
prove that parametric matrix models are universal function approximators that can be applied to general machine learning
problems. After introducing the underlying theory, we apply parametric matrix models to a series of different challenges that
show their performance for a wide range of problems. For all the challenges tested here, parametric matrix models produce
accurate results within an efficient and interpretable computational framework that allows for input feature extrapolation.
–
Publication: Somasundaram, R. et al. Emulators for scarce and noisy data: application to auxiliary field diffusion Monte Carlo for the deuteron (2024). 2404.11566.
Reed, B. T. et al. Towards accelerated nuclear-physics parameter estimation from binary neutron star mergers: Emulators for the Tolman-Oppenheimer-Volkoff equations (2024). 2405.20558.
Presenters
-
Patrick Cook
Michigan State University
Authors
-
Patrick Cook
Michigan State University
-
Danny Jammooa
Michigan State University
-
Dean J Lee
Michigan State University, Facility for Rare Isotope Beams, Michigan State University
-
Morten Hjorth-Jensen
Facility for Rare Isotope Beams, Michigan State University, Michigan State University
-
Daniel D Lee
Cornell Tech