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Neural networks for the abstraction of the physical symmetries in the nature

<!--HTML-->Neural networks are so powerful universal approximator of complicated patterns in large-scale data, leading the explosive developments of AI in terms of deep learning. However, in many cases, usual neural networks are trained to possess poor level of abstraction, so that the model&#...

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Autor principal: Cho, Wonsang
Lenguaje:eng
Publicado: 2019
Materias:
Acceso en línea:http://cds.cern.ch/record/2672021
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author Cho, Wonsang
author_facet Cho, Wonsang
author_sort Cho, Wonsang
collection CERN
description <!--HTML-->Neural networks are so powerful universal approximator of complicated patterns in large-scale data, leading the explosive developments of AI in terms of deep learning. However, in many cases, usual neural networks are trained to possess poor level of abstraction, so that the model's predictability and generalizability can be quite unstable, depending on the quality and amount of the data used for training. In this presentation, we introduce a new neural network architecture which has improved capability of capturing the key features and the physical laws hidden in data, in a mathematically more robust and simpler way. We demonstrate the performance of the new architecture, with an application for high energy particle scattering processes at the LHC.
id cern-2672021
institution Organización Europea para la Investigación Nuclear
language eng
publishDate 2019
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spelling cern-26720212022-11-02T22:33:37Zhttp://cds.cern.ch/record/2672021engCho, WonsangNeural networks for the abstraction of the physical symmetries in the nature3rd IML Machine Learning WorkshopLPCC Workshops<!--HTML-->Neural networks are so powerful universal approximator of complicated patterns in large-scale data, leading the explosive developments of AI in terms of deep learning. However, in many cases, usual neural networks are trained to possess poor level of abstraction, so that the model's predictability and generalizability can be quite unstable, depending on the quality and amount of the data used for training. In this presentation, we introduce a new neural network architecture which has improved capability of capturing the key features and the physical laws hidden in data, in a mathematically more robust and simpler way. We demonstrate the performance of the new architecture, with an application for high energy particle scattering processes at the LHC.oai:cds.cern.ch:26720212019
spellingShingle LPCC Workshops
Cho, Wonsang
Neural networks for the abstraction of the physical symmetries in the nature
title Neural networks for the abstraction of the physical symmetries in the nature
title_full Neural networks for the abstraction of the physical symmetries in the nature
title_fullStr Neural networks for the abstraction of the physical symmetries in the nature
title_full_unstemmed Neural networks for the abstraction of the physical symmetries in the nature
title_short Neural networks for the abstraction of the physical symmetries in the nature
title_sort neural networks for the abstraction of the physical symmetries in the nature
topic LPCC Workshops
url http://cds.cern.ch/record/2672021
work_keys_str_mv AT chowonsang neuralnetworksfortheabstractionofthephysicalsymmetriesinthenature
AT chowonsang 3rdimlmachinelearningworkshop