Characterization of calorimeter responses under laboratory conditions thanks to an optimized transient thermal test bench

This paper presents an experimental study of the calibration of a non-adiabatic single-cell calorimeter called KAROLINA. This type of sensor is used to quantify the nuclear heating rate inside MTRs (Material Testing Reactors). The calibration of this sensor type is carried out in laboratory conditio...

Descripción completa

Guardado en:
Detalles Bibliográficos
Autores principales: Rebaud J., Volte A., Carette M., Lyoussi A., Kohse G., Prokopowicz R., Reynard-Carette C.
Formato: article
Lenguaje:EN
Publicado: EDP Sciences 2021
Materias:
Acceso en línea:https://doaj.org/article/afced4262bef41be91c6e9303a7d3101
Etiquetas: Agregar Etiqueta
Sin Etiquetas, Sea el primero en etiquetar este registro!
id oai:doaj.org-article:afced4262bef41be91c6e9303a7d3101
record_format dspace
spelling oai:doaj.org-article:afced4262bef41be91c6e9303a7d31012021-12-02T17:12:46ZCharacterization of calorimeter responses under laboratory conditions thanks to an optimized transient thermal test bench2100-014X10.1051/epjconf/202125304017https://doaj.org/article/afced4262bef41be91c6e9303a7d31012021-01-01T00:00:00Zhttps://www.epj-conferences.org/articles/epjconf/pdf/2021/07/epjconf_animma2021_04017.pdfhttps://doaj.org/toc/2100-014XThis paper presents an experimental study of the calibration of a non-adiabatic single-cell calorimeter called KAROLINA. This type of sensor is used to quantify the nuclear heating rate inside MTRs (Material Testing Reactors). The calibration of this sensor type is carried out in laboratory conditions without irradiation. The calibration corresponds to a preliminary step, which is crucial to use this sensor in real conditions. In the case of the studied single-cell calorimeter owning no heating element, the calibration is realized with a specific test bench, called BERTAN, based on thermal transient regimes. First of all, the paper describes the methodology of the determination of the calorimeter sensitivity and the dedicated experimental set-up developed recently. Then the paper is devoted to a parametric study carried out on the KAROLINA single-cell calorimeter to determine the influence of several parameters on its thermal time constant (temperature, velocity, phase, method).Rebaud J.Volte A.Carette M.Lyoussi A.Kohse G.Prokopowicz R.Reynard-Carette C.EDP Sciencesarticlenuclear heating ratecalorimetrycalibrationPhysicsQC1-999ENEPJ Web of Conferences, Vol 253, p 04017 (2021)
institution DOAJ
collection DOAJ
language EN
topic nuclear heating rate
calorimetry
calibration
Physics
QC1-999
spellingShingle nuclear heating rate
calorimetry
calibration
Physics
QC1-999
Rebaud J.
Volte A.
Carette M.
Lyoussi A.
Kohse G.
Prokopowicz R.
Reynard-Carette C.
Characterization of calorimeter responses under laboratory conditions thanks to an optimized transient thermal test bench
description This paper presents an experimental study of the calibration of a non-adiabatic single-cell calorimeter called KAROLINA. This type of sensor is used to quantify the nuclear heating rate inside MTRs (Material Testing Reactors). The calibration of this sensor type is carried out in laboratory conditions without irradiation. The calibration corresponds to a preliminary step, which is crucial to use this sensor in real conditions. In the case of the studied single-cell calorimeter owning no heating element, the calibration is realized with a specific test bench, called BERTAN, based on thermal transient regimes. First of all, the paper describes the methodology of the determination of the calorimeter sensitivity and the dedicated experimental set-up developed recently. Then the paper is devoted to a parametric study carried out on the KAROLINA single-cell calorimeter to determine the influence of several parameters on its thermal time constant (temperature, velocity, phase, method).
format article
author Rebaud J.
Volte A.
Carette M.
Lyoussi A.
Kohse G.
Prokopowicz R.
Reynard-Carette C.
author_facet Rebaud J.
Volte A.
Carette M.
Lyoussi A.
Kohse G.
Prokopowicz R.
Reynard-Carette C.
author_sort Rebaud J.
title Characterization of calorimeter responses under laboratory conditions thanks to an optimized transient thermal test bench
title_short Characterization of calorimeter responses under laboratory conditions thanks to an optimized transient thermal test bench
title_full Characterization of calorimeter responses under laboratory conditions thanks to an optimized transient thermal test bench
title_fullStr Characterization of calorimeter responses under laboratory conditions thanks to an optimized transient thermal test bench
title_full_unstemmed Characterization of calorimeter responses under laboratory conditions thanks to an optimized transient thermal test bench
title_sort characterization of calorimeter responses under laboratory conditions thanks to an optimized transient thermal test bench
publisher EDP Sciences
publishDate 2021
url https://doaj.org/article/afced4262bef41be91c6e9303a7d3101
work_keys_str_mv AT rebaudj characterizationofcalorimeterresponsesunderlaboratoryconditionsthankstoanoptimizedtransientthermaltestbench
AT voltea characterizationofcalorimeterresponsesunderlaboratoryconditionsthankstoanoptimizedtransientthermaltestbench
AT carettem characterizationofcalorimeterresponsesunderlaboratoryconditionsthankstoanoptimizedtransientthermaltestbench
AT lyoussia characterizationofcalorimeterresponsesunderlaboratoryconditionsthankstoanoptimizedtransientthermaltestbench
AT kohseg characterizationofcalorimeterresponsesunderlaboratoryconditionsthankstoanoptimizedtransientthermaltestbench
AT prokopowiczr characterizationofcalorimeterresponsesunderlaboratoryconditionsthankstoanoptimizedtransientthermaltestbench
AT reynardcarettec characterizationofcalorimeterresponsesunderlaboratoryconditionsthankstoanoptimizedtransientthermaltestbench
_version_ 1718381399475486720