_version_ 1866916625283809280
author Ohana, Ruben
McCabe, Michael
Meyer, Lucas
Morel, Rudy
Agocs, Fruzsina J.
Beneitez, Miguel
Berger, Marsha
Burkhart, Blakesley
Burns, Keaton
Dalziel, Stuart B.
Fielding, Drummond B.
Fortunato, Daniel
Goldberg, Jared A.
Hirashima, Keiya
Jiang, Yan-Fei
Kerswell, Rich R.
Maddu, Suryanarayana
Miller, Jonah
Mukhopadhyay, Payel
Nixon, Stefan S.
Shen, Jeff
Watteaux, Romain
Blancard, Bruno Régaldo-Saint
Rozet, François
Parker, Liam H.
Cranmer, Miles
Ho, Shirley
author_facet Ohana, Ruben
McCabe, Michael
Meyer, Lucas
Morel, Rudy
Agocs, Fruzsina J.
Beneitez, Miguel
Berger, Marsha
Burkhart, Blakesley
Burns, Keaton
Dalziel, Stuart B.
Fielding, Drummond B.
Fortunato, Daniel
Goldberg, Jared A.
Hirashima, Keiya
Jiang, Yan-Fei
Kerswell, Rich R.
Maddu, Suryanarayana
Miller, Jonah
Mukhopadhyay, Payel
Nixon, Stefan S.
Shen, Jeff
Watteaux, Romain
Blancard, Bruno Régaldo-Saint
Rozet, François
Parker, Liam H.
Cranmer, Miles
Ho, Shirley
contents Machine learning based surrogate models offer researchers powerful tools for accelerating simulation-based workflows. However, as standard datasets in this space often cover small classes of physical behavior, it can be difficult to evaluate the efficacy of new approaches. To address this gap, we introduce the Well: a large-scale collection of datasets containing numerical simulations of a wide variety of spatiotemporal physical systems. The Well draws from domain experts and numerical software developers to provide 15TB of data across 16 datasets covering diverse domains such as biological systems, fluid dynamics, acoustic scattering, as well as magneto-hydrodynamic simulations of extra-galactic fluids or supernova explosions. These datasets can be used individually or as part of a broader benchmark suite. To facilitate usage of the Well, we provide a unified PyTorch interface for training and evaluating models. We demonstrate the function of this library by introducing example baselines that highlight the new challenges posed by the complex dynamics of the Well. The code and data is available at https://github.com/PolymathicAI/the_well.
format Preprint
id arxiv_https___arxiv_org_abs_2412_00568
institution arXiv
publishDate 2024
record_format arxiv
spellingShingle The Well: a Large-Scale Collection of Diverse Physics Simulations for Machine Learning
Ohana, Ruben
McCabe, Michael
Meyer, Lucas
Morel, Rudy
Agocs, Fruzsina J.
Beneitez, Miguel
Berger, Marsha
Burkhart, Blakesley
Burns, Keaton
Dalziel, Stuart B.
Fielding, Drummond B.
Fortunato, Daniel
Goldberg, Jared A.
Hirashima, Keiya
Jiang, Yan-Fei
Kerswell, Rich R.
Maddu, Suryanarayana
Miller, Jonah
Mukhopadhyay, Payel
Nixon, Stefan S.
Shen, Jeff
Watteaux, Romain
Blancard, Bruno Régaldo-Saint
Rozet, François
Parker, Liam H.
Cranmer, Miles
Ho, Shirley
Machine Learning
Fluid Dynamics
Machine learning based surrogate models offer researchers powerful tools for accelerating simulation-based workflows. However, as standard datasets in this space often cover small classes of physical behavior, it can be difficult to evaluate the efficacy of new approaches. To address this gap, we introduce the Well: a large-scale collection of datasets containing numerical simulations of a wide variety of spatiotemporal physical systems. The Well draws from domain experts and numerical software developers to provide 15TB of data across 16 datasets covering diverse domains such as biological systems, fluid dynamics, acoustic scattering, as well as magneto-hydrodynamic simulations of extra-galactic fluids or supernova explosions. These datasets can be used individually or as part of a broader benchmark suite. To facilitate usage of the Well, we provide a unified PyTorch interface for training and evaluating models. We demonstrate the function of this library by introducing example baselines that highlight the new challenges posed by the complex dynamics of the Well. The code and data is available at https://github.com/PolymathicAI/the_well.
title The Well: a Large-Scale Collection of Diverse Physics Simulations for Machine Learning
topic Machine Learning
Fluid Dynamics
url https://arxiv.org/abs/2412.00568