MEASUREMENT OF 182,184,186W (N, N’ γ) CROSS SECTIONS AND WHAT WE CAN LEARN FROM IT

Today’s development of nuclear installations rely on numerical simulation for which the main input are evaluated nuclear data. Inelastic neutron scattering (n, xn) is a reaction of importance because it modifies the neutron population, the neutron energy distribution and may create new isotopes. The...

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Main Authors: Henning Greg, Bacquias Antoine, Borcea Catalin, Boromiza Mariam, Capote Roberto, Dessagne Philippe, Drohé Jean-Claude, Dupuis Marc, Hilaire Stephane, Kawano Toshihiko, Kerveno Maëlle, Negret Alexandru, Nyman Markus, Olacel Adina, Plompen Arjan, Romain Pascal, Rudolf Gérard, Scholtes Pol
Format: Article
Language:English
Published: EDP Sciences 2021-01-01
Series:EPJ Web of Conferences
Subjects:
Online Access:https://www.epj-conferences.org/articles/epjconf/pdf/2021/01/epjconf_physor2020_09003.pdf
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author Henning Greg
Bacquias Antoine
Borcea Catalin
Boromiza Mariam
Capote Roberto
Dessagne Philippe
Drohé Jean-Claude
Dupuis Marc
Hilaire Stephane
Kawano Toshihiko
Kerveno Maëlle
Negret Alexandru
Nyman Markus
Olacel Adina
Plompen Arjan
Romain Pascal
Rudolf Gérard
Scholtes Pol
author_facet Henning Greg
Bacquias Antoine
Borcea Catalin
Boromiza Mariam
Capote Roberto
Dessagne Philippe
Drohé Jean-Claude
Dupuis Marc
Hilaire Stephane
Kawano Toshihiko
Kerveno Maëlle
Negret Alexandru
Nyman Markus
Olacel Adina
Plompen Arjan
Romain Pascal
Rudolf Gérard
Scholtes Pol
author_sort Henning Greg
collection DOAJ
description Today’s development of nuclear installations rely on numerical simulation for which the main input are evaluated nuclear data. Inelastic neutron scattering (n, xn) is a reaction of importance because it modifies the neutron population, the neutron energy distribution and may create new isotopes. The study of this reaction on tungsten isotopes is interesting because it is a common structural material. Additionally, tungsten isotopes are a good testing field for theories. The IPHC group started an experimental program with the GRAPhEME setup installed at the neutron beam facility GELINA to measure (n, xn γ) reaction cross sections using prompt gamma spectroscopy and neutron energy determination by time-of-flight. The obtained experimental data provide constraints on nuclear reaction mechanisms models for 182,184,186W. Indeed, to reproduce correctly the experimental (n, n’ γ) cross-sections, the reaction codes must include accurate models of the reaction mechanism, nuclear de-excitation process and use correct nuclear structure information.
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spelling doaj.art-fbb54d4f5e0f47469dddc8c41f54d2712022-12-21T21:32:39ZengEDP SciencesEPJ Web of Conferences2100-014X2021-01-012470900310.1051/epjconf/202124709003epjconf_physor2020_09003MEASUREMENT OF 182,184,186W (N, N’ γ) CROSS SECTIONS AND WHAT WE CAN LEARN FROM ITHenning GregBacquias AntoineBorcea CatalinBoromiza MariamCapote RobertoDessagne PhilippeDrohé Jean-ClaudeDupuis MarcHilaire StephaneKawano ToshihikoKerveno MaëlleNegret AlexandruNyman MarkusOlacel AdinaPlompen ArjanRomain PascalRudolf GérardScholtes PolToday’s development of nuclear installations rely on numerical simulation for which the main input are evaluated nuclear data. Inelastic neutron scattering (n, xn) is a reaction of importance because it modifies the neutron population, the neutron energy distribution and may create new isotopes. The study of this reaction on tungsten isotopes is interesting because it is a common structural material. Additionally, tungsten isotopes are a good testing field for theories. The IPHC group started an experimental program with the GRAPhEME setup installed at the neutron beam facility GELINA to measure (n, xn γ) reaction cross sections using prompt gamma spectroscopy and neutron energy determination by time-of-flight. The obtained experimental data provide constraints on nuclear reaction mechanisms models for 182,184,186W. Indeed, to reproduce correctly the experimental (n, n’ γ) cross-sections, the reaction codes must include accurate models of the reaction mechanism, nuclear de-excitation process and use correct nuclear structure information.https://www.epj-conferences.org/articles/epjconf/pdf/2021/01/epjconf_physor2020_09003.pdfneutronnuclear reactionreaction mechanismneutron inelastic scatteringtungsten
spellingShingle Henning Greg
Bacquias Antoine
Borcea Catalin
Boromiza Mariam
Capote Roberto
Dessagne Philippe
Drohé Jean-Claude
Dupuis Marc
Hilaire Stephane
Kawano Toshihiko
Kerveno Maëlle
Negret Alexandru
Nyman Markus
Olacel Adina
Plompen Arjan
Romain Pascal
Rudolf Gérard
Scholtes Pol
MEASUREMENT OF 182,184,186W (N, N’ γ) CROSS SECTIONS AND WHAT WE CAN LEARN FROM IT
EPJ Web of Conferences
neutron
nuclear reaction
reaction mechanism
neutron inelastic scattering
tungsten
title MEASUREMENT OF 182,184,186W (N, N’ γ) CROSS SECTIONS AND WHAT WE CAN LEARN FROM IT
title_full MEASUREMENT OF 182,184,186W (N, N’ γ) CROSS SECTIONS AND WHAT WE CAN LEARN FROM IT
title_fullStr MEASUREMENT OF 182,184,186W (N, N’ γ) CROSS SECTIONS AND WHAT WE CAN LEARN FROM IT
title_full_unstemmed MEASUREMENT OF 182,184,186W (N, N’ γ) CROSS SECTIONS AND WHAT WE CAN LEARN FROM IT
title_short MEASUREMENT OF 182,184,186W (N, N’ γ) CROSS SECTIONS AND WHAT WE CAN LEARN FROM IT
title_sort measurement of 182 184 186w n n γ cross sections and what we can learn from it
topic neutron
nuclear reaction
reaction mechanism
neutron inelastic scattering
tungsten
url https://www.epj-conferences.org/articles/epjconf/pdf/2021/01/epjconf_physor2020_09003.pdf
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