PineAPPL: combining EW and QCD corrections for fast evaluation of LHC processes

Abstract We introduce PineAPPL, a library that produces fast-interpolation grids of physical cross sections, computed with a general-purpose Monte Carlo generator, accurate to fixed order in the strong, electroweak, and combined strong-electroweak couplings. We demonstrate this unique ability, that...

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Main Authors: S. Carrazza, E. R. Nocera, C. Schwan, M. Zaro
Format: Article
Language:English
Published: SpringerOpen 2020-12-01
Series:Journal of High Energy Physics
Subjects:
Online Access:https://doi.org/10.1007/JHEP12(2020)108
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spelling doaj-2e185177299549e88e3e5d78ec19cb082020-12-20T12:04:23ZengSpringerOpenJournal of High Energy Physics1029-84792020-12-0120201215710.1007/JHEP12(2020)108PineAPPL: combining EW and QCD corrections for fast evaluation of LHC processesS. Carrazza0E. R. Nocera1C. Schwan2M. Zaro3Tif Lab, Dipartimento di Fisica, Università di Milano and INFN, Sezione di MilanoNikhef Theory GroupTif Lab, Dipartimento di Fisica, Università di Milano and INFN, Sezione di MilanoTif Lab, Dipartimento di Fisica, Università di Milano and INFN, Sezione di MilanoAbstract We introduce PineAPPL, a library that produces fast-interpolation grids of physical cross sections, computed with a general-purpose Monte Carlo generator, accurate to fixed order in the strong, electroweak, and combined strong-electroweak couplings. We demonstrate this unique ability, that distinguishes PineAPPL from similar software available in the literature, by interfacing it to MadGraph5_aMC@NLO. We compute fast-interpolation grids, accurate to next-to-leading order in the strong and electroweak couplings, for a representative set of LHC processes for which EW corrections may have a sizeable effect on the accuracy of the corresponding theoretical predictions. We formulate a recommendation on the format of the experimental deliverables in order to consistently compare them with computations that incorporate EW corrections, and specifically to determine parton distribution functions to the same accuracy.https://doi.org/10.1007/JHEP12(2020)108NLO ComputationsQCD Phenomenology
collection DOAJ
language English
format Article
sources DOAJ
author S. Carrazza
E. R. Nocera
C. Schwan
M. Zaro
spellingShingle S. Carrazza
E. R. Nocera
C. Schwan
M. Zaro
PineAPPL: combining EW and QCD corrections for fast evaluation of LHC processes
Journal of High Energy Physics
NLO Computations
QCD Phenomenology
author_facet S. Carrazza
E. R. Nocera
C. Schwan
M. Zaro
author_sort S. Carrazza
title PineAPPL: combining EW and QCD corrections for fast evaluation of LHC processes
title_short PineAPPL: combining EW and QCD corrections for fast evaluation of LHC processes
title_full PineAPPL: combining EW and QCD corrections for fast evaluation of LHC processes
title_fullStr PineAPPL: combining EW and QCD corrections for fast evaluation of LHC processes
title_full_unstemmed PineAPPL: combining EW and QCD corrections for fast evaluation of LHC processes
title_sort pineappl: combining ew and qcd corrections for fast evaluation of lhc processes
publisher SpringerOpen
series Journal of High Energy Physics
issn 1029-8479
publishDate 2020-12-01
description Abstract We introduce PineAPPL, a library that produces fast-interpolation grids of physical cross sections, computed with a general-purpose Monte Carlo generator, accurate to fixed order in the strong, electroweak, and combined strong-electroweak couplings. We demonstrate this unique ability, that distinguishes PineAPPL from similar software available in the literature, by interfacing it to MadGraph5_aMC@NLO. We compute fast-interpolation grids, accurate to next-to-leading order in the strong and electroweak couplings, for a representative set of LHC processes for which EW corrections may have a sizeable effect on the accuracy of the corresponding theoretical predictions. We formulate a recommendation on the format of the experimental deliverables in order to consistently compare them with computations that incorporate EW corrections, and specifically to determine parton distribution functions to the same accuracy.
topic NLO Computations
QCD Phenomenology
url https://doi.org/10.1007/JHEP12(2020)108
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