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End-to-end deep learning inference with CMSSW via ONNX using Docker

Deep learning techniques have been proven to provide excellent performance for a variety of high energy physics applications, such as particle identification, event reconstruction and trigger operations. Recently, we developed an end-to-end deep learning approach to identify various particles using...

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Autor principal: Chudasama, Ruchi
Lenguaje:eng
Publicado: 2023
Materias:
Acceso en línea:http://cds.cern.ch/record/2872294
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author Chudasama, Ruchi
author_facet Chudasama, Ruchi
author_sort Chudasama, Ruchi
collection CERN
description Deep learning techniques have been proven to provide excellent performance for a variety of high energy physics applications, such as particle identification, event reconstruction and trigger operations. Recently, we developed an end-to-end deep learning approach to identify various particles using low-level detector information from high energy collisions. These models will be incorporated in the CMS software framework (CMSSW) to enable their use for particle reconstruction or for trigger operation in real time. Incorporating these computational tools in the experimental framework presents new challenges. This paper reports an implementation of the end-to-end deep learning inference with the CMS software framework. The inference has been implemented on GPU for faster computation using ONNX. We have benchmarked the ONNX inference with GPU and CPU using NERSC's Perlmutter cluster by building a docker image of the CMS software framework.
id cern-2872294
institution Organización Europea para la Investigación Nuclear
language eng
publishDate 2023
record_format invenio
spelling cern-28722942023-09-25T18:53:33Zhttp://cds.cern.ch/record/2872294engChudasama, RuchiEnd-to-end deep learning inference with CMSSW via ONNX using DockerDetectors and Experimental TechniquesDeep learning techniques have been proven to provide excellent performance for a variety of high energy physics applications, such as particle identification, event reconstruction and trigger operations. Recently, we developed an end-to-end deep learning approach to identify various particles using low-level detector information from high energy collisions. These models will be incorporated in the CMS software framework (CMSSW) to enable their use for particle reconstruction or for trigger operation in real time. Incorporating these computational tools in the experimental framework presents new challenges. This paper reports an implementation of the end-to-end deep learning inference with the CMS software framework. The inference has been implemented on GPU for faster computation using ONNX. We have benchmarked the ONNX inference with GPU and CPU using NERSC's Perlmutter cluster by building a docker image of the CMS software framework.CMS-CR-2023-161oai:cds.cern.ch:28722942023-09-16
spellingShingle Detectors and Experimental Techniques
Chudasama, Ruchi
End-to-end deep learning inference with CMSSW via ONNX using Docker
title End-to-end deep learning inference with CMSSW via ONNX using Docker
title_full End-to-end deep learning inference with CMSSW via ONNX using Docker
title_fullStr End-to-end deep learning inference with CMSSW via ONNX using Docker
title_full_unstemmed End-to-end deep learning inference with CMSSW via ONNX using Docker
title_short End-to-end deep learning inference with CMSSW via ONNX using Docker
title_sort end-to-end deep learning inference with cmssw via onnx using docker
topic Detectors and Experimental Techniques
url http://cds.cern.ch/record/2872294
work_keys_str_mv AT chudasamaruchi endtoenddeeplearninginferencewithcmsswviaonnxusingdocker