Cargando…

A full detector description using neural network driven simulation

The abundance of data arriving in the new runs of the Large Hadron Collider creates tough requirements for the amount of necessary simulated events and thus for the speed of generating such events. Current approaches can suffer from long generation time and lack of important storage resources to pre...

Descripción completa

Detalles Bibliográficos
Autores principales: Ratnikov, Fedor, Rogachev, Alexander, Mokhnenko, Sergey, Maevskiy, Artem, Derkach, Denis, Davis, Adam, Kazeev, Nikita, Anderlini, Lucio, Barbetti, Matteo, Siddi, Benedetto Gianluca
Lenguaje:eng
Publicado: 2023
Materias:
Acceso en línea:https://dx.doi.org/10.1016/j.nima.2022.167591
http://cds.cern.ch/record/2841209
_version_ 1780976171072094208
author Ratnikov, Fedor
Rogachev, Alexander
Mokhnenko, Sergey
Maevskiy, Artem
Derkach, Denis
Davis, Adam
Kazeev, Nikita
Anderlini, Lucio
Barbetti, Matteo
Siddi, Benedetto Gianluca
author_facet Ratnikov, Fedor
Rogachev, Alexander
Mokhnenko, Sergey
Maevskiy, Artem
Derkach, Denis
Davis, Adam
Kazeev, Nikita
Anderlini, Lucio
Barbetti, Matteo
Siddi, Benedetto Gianluca
author_sort Ratnikov, Fedor
collection CERN
description The abundance of data arriving in the new runs of the Large Hadron Collider creates tough requirements for the amount of necessary simulated events and thus for the speed of generating such events. Current approaches can suffer from long generation time and lack of important storage resources to preserve the simulated datasets. The development of the new fast generation techniques is thus crucial for the proper functioning of experiments. We present a novel approach to simulate LHCb detector events using generative machine learning algorithms and other statistical tools. The approaches combine the speed and flexibility of neural networks and encapsulates knowledge about the detector in the form of statistical patterns. Whenever possible, the algorithms are trained using real data, which enhances their robustness against differences between real data and simulation. We discuss particularities of neural network detector simulation implementations and corresponding systematic uncertainties.
id cern-2841209
institution Organización Europea para la Investigación Nuclear
language eng
publishDate 2023
record_format invenio
spelling cern-28412092023-01-27T11:24:56Zdoi:10.1016/j.nima.2022.167591http://cds.cern.ch/record/2841209engRatnikov, FedorRogachev, AlexanderMokhnenko, SergeyMaevskiy, ArtemDerkach, DenisDavis, AdamKazeev, NikitaAnderlini, LucioBarbetti, MatteoSiddi, Benedetto GianlucaA full detector description using neural network driven simulationComputing and ComputersParticle Physics - ExperimentThe abundance of data arriving in the new runs of the Large Hadron Collider creates tough requirements for the amount of necessary simulated events and thus for the speed of generating such events. Current approaches can suffer from long generation time and lack of important storage resources to preserve the simulated datasets. The development of the new fast generation techniques is thus crucial for the proper functioning of experiments. We present a novel approach to simulate LHCb detector events using generative machine learning algorithms and other statistical tools. The approaches combine the speed and flexibility of neural networks and encapsulates knowledge about the detector in the form of statistical patterns. Whenever possible, the algorithms are trained using real data, which enhances their robustness against differences between real data and simulation. We discuss particularities of neural network detector simulation implementations and corresponding systematic uncertainties.The abundance of data arriving in the new runs of the Large Hadron Collider creates tough requirements for the amount of necessary simulated events and thus for the speed of generating such events. Current approaches can suffer from long generation time and lack of important storage resources to preserve the simulated datasets. The development of the new fast generation techniques is thus crucial for the proper functioning of experiments. We present a novel approach to simulate LHCb detector events using generative machine learning algorithms and other statistical tools. The approaches combine the speed and flexibility of neural networks and encapsulates knowledge about the detector in the form of statistical patterns. Whenever possible, the algorithms are trained using real data, which enhances their robustness against differences between real data and simulation. We discuss particularities of neural network detector simulation implementations and corresponding systematic uncertainties.oai:cds.cern.ch:28412092023
spellingShingle Computing and Computers
Particle Physics - Experiment
Ratnikov, Fedor
Rogachev, Alexander
Mokhnenko, Sergey
Maevskiy, Artem
Derkach, Denis
Davis, Adam
Kazeev, Nikita
Anderlini, Lucio
Barbetti, Matteo
Siddi, Benedetto Gianluca
A full detector description using neural network driven simulation
title A full detector description using neural network driven simulation
title_full A full detector description using neural network driven simulation
title_fullStr A full detector description using neural network driven simulation
title_full_unstemmed A full detector description using neural network driven simulation
title_short A full detector description using neural network driven simulation
title_sort full detector description using neural network driven simulation
topic Computing and Computers
Particle Physics - Experiment
url https://dx.doi.org/10.1016/j.nima.2022.167591
http://cds.cern.ch/record/2841209
work_keys_str_mv AT ratnikovfedor afulldetectordescriptionusingneuralnetworkdrivensimulation
AT rogachevalexander afulldetectordescriptionusingneuralnetworkdrivensimulation
AT mokhnenkosergey afulldetectordescriptionusingneuralnetworkdrivensimulation
AT maevskiyartem afulldetectordescriptionusingneuralnetworkdrivensimulation
AT derkachdenis afulldetectordescriptionusingneuralnetworkdrivensimulation
AT davisadam afulldetectordescriptionusingneuralnetworkdrivensimulation
AT kazeevnikita afulldetectordescriptionusingneuralnetworkdrivensimulation
AT anderlinilucio afulldetectordescriptionusingneuralnetworkdrivensimulation
AT barbettimatteo afulldetectordescriptionusingneuralnetworkdrivensimulation
AT siddibenedettogianluca afulldetectordescriptionusingneuralnetworkdrivensimulation
AT ratnikovfedor fulldetectordescriptionusingneuralnetworkdrivensimulation
AT rogachevalexander fulldetectordescriptionusingneuralnetworkdrivensimulation
AT mokhnenkosergey fulldetectordescriptionusingneuralnetworkdrivensimulation
AT maevskiyartem fulldetectordescriptionusingneuralnetworkdrivensimulation
AT derkachdenis fulldetectordescriptionusingneuralnetworkdrivensimulation
AT davisadam fulldetectordescriptionusingneuralnetworkdrivensimulation
AT kazeevnikita fulldetectordescriptionusingneuralnetworkdrivensimulation
AT anderlinilucio fulldetectordescriptionusingneuralnetworkdrivensimulation
AT barbettimatteo fulldetectordescriptionusingneuralnetworkdrivensimulation
AT siddibenedettogianluca fulldetectordescriptionusingneuralnetworkdrivensimulation