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Deep learning in TMVA Benchmarking Benchmarking TMVA DNN Integration of a Deep Autoencoder

The TMVA library in ROOT is dedicated to multivariate analysis, and in partic- ular oers numerous machine learning algorithms in a standardized framework. It is widely used in High Energy Physics for data analysis, mainly to perform regression and classication. To keep up to date with the state of t...

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Autor principal: Huwiler, Marc
Lenguaje:eng
Publicado: 2017
Materias:
Acceso en línea:http://cds.cern.ch/record/2281843
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author Huwiler, Marc
author_facet Huwiler, Marc
author_sort Huwiler, Marc
collection CERN
description The TMVA library in ROOT is dedicated to multivariate analysis, and in partic- ular oers numerous machine learning algorithms in a standardized framework. It is widely used in High Energy Physics for data analysis, mainly to perform regression and classication. To keep up to date with the state of the art in deep learning, a new deep learning module was being developed this summer, oering deep neural net- work, convolutional neural network, and autoencoder. TMVA did not have yet any autoencoder method, and the present project consists in implementing the TMVA autoencoder class based on the deep learning module. It also includes some bench- marking performed on the actual deep neural network implementation, in comparison to the Keras framework with Tensorflow and Theano backend.
id cern-2281843
institution Organización Europea para la Investigación Nuclear
language eng
publishDate 2017
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spelling cern-22818432019-09-30T06:29:59Zhttp://cds.cern.ch/record/2281843engHuwiler, MarcDeep learning in TMVA Benchmarking Benchmarking TMVA DNN Integration of a Deep AutoencoderParticle Physics - ExperimentComputing and ComputersThe TMVA library in ROOT is dedicated to multivariate analysis, and in partic- ular oers numerous machine learning algorithms in a standardized framework. It is widely used in High Energy Physics for data analysis, mainly to perform regression and classication. To keep up to date with the state of the art in deep learning, a new deep learning module was being developed this summer, oering deep neural net- work, convolutional neural network, and autoencoder. TMVA did not have yet any autoencoder method, and the present project consists in implementing the TMVA autoencoder class based on the deep learning module. It also includes some bench- marking performed on the actual deep neural network implementation, in comparison to the Keras framework with Tensorflow and Theano backend.CERN-STUDENTS-Note-2017-160oai:cds.cern.ch:22818432017-09-01
spellingShingle Particle Physics - Experiment
Computing and Computers
Huwiler, Marc
Deep learning in TMVA Benchmarking Benchmarking TMVA DNN Integration of a Deep Autoencoder
title Deep learning in TMVA Benchmarking Benchmarking TMVA DNN Integration of a Deep Autoencoder
title_full Deep learning in TMVA Benchmarking Benchmarking TMVA DNN Integration of a Deep Autoencoder
title_fullStr Deep learning in TMVA Benchmarking Benchmarking TMVA DNN Integration of a Deep Autoencoder
title_full_unstemmed Deep learning in TMVA Benchmarking Benchmarking TMVA DNN Integration of a Deep Autoencoder
title_short Deep learning in TMVA Benchmarking Benchmarking TMVA DNN Integration of a Deep Autoencoder
title_sort deep learning in tmva benchmarking benchmarking tmva dnn integration of a deep autoencoder
topic Particle Physics - Experiment
Computing and Computers
url http://cds.cern.ch/record/2281843
work_keys_str_mv AT huwilermarc deeplearningintmvabenchmarkingbenchmarkingtmvadnnintegrationofadeepautoencoder