Thought Experiment to Examine Benchmark Performance for Fusion Nuclear Data
There are many benchmark experiments carried out so far with DT neutrons especially aiming at fusion reactor development. These integral experiments seemed vaguely to validate the nuclear data below 14 MeV. However, no precise studies exist now. The author’s group thus started to examine how well be...
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doaj-6e11cf21db6f43eb8f03f9c177aeb3312021-08-02T06:48:09ZengEDP SciencesEPJ Web of Conferences2100-014X2017-01-011530701510.1051/epjconf/201715307015epjconf_icrs2017_07015Thought Experiment to Examine Benchmark Performance for Fusion Nuclear DataMurata Isao0Ohta Masayuki1Kusaka Sachie2Sato Fuminobu3Miyamaru Hiroyuki4Division of Electrical, Electronic and Information Engineering, Osaka UniversityCenter for Atomic and Molecular Technology, Osaka UniversityDivision of Electrical, Electronic and Information Engineering, Osaka UniversityDivision of Electrical, Electronic and Information Engineering, Osaka UniversityOrganization for Industry, University and Government Cooperation, Osaka Prefecture University, SakaiThere are many benchmark experiments carried out so far with DT neutrons especially aiming at fusion reactor development. These integral experiments seemed vaguely to validate the nuclear data below 14 MeV. However, no precise studies exist now. The author’s group thus started to examine how well benchmark experiments with DT neutrons can play a benchmarking role for energies below 14 MeV. Recently, as a next phase, to generalize the above discussion, the energy range was expanded to the entire region. In this study, thought experiments with finer energy bins have thus been conducted to discuss how to generally estimate performance of benchmark experiments. As a result of thought experiments with a point detector, the sensitivity for a discrepancy appearing in the benchmark analysis is “equally” due not only to contribution directly conveyed to the deterctor, but also due to indirect contribution of neutrons (named (A)) making neutrons conveying the contribution, indirect controbution of neutrons (B) making the neutrons (A) and so on. From this concept, it would become clear from a sensitivity analysis in advance how well and which energy nuclear data could be benchmarked with a benchmark experiment.https://doi.org/10.1051/epjconf/201715307015 |
collection |
DOAJ |
language |
English |
format |
Article |
sources |
DOAJ |
author |
Murata Isao Ohta Masayuki Kusaka Sachie Sato Fuminobu Miyamaru Hiroyuki |
spellingShingle |
Murata Isao Ohta Masayuki Kusaka Sachie Sato Fuminobu Miyamaru Hiroyuki Thought Experiment to Examine Benchmark Performance for Fusion Nuclear Data EPJ Web of Conferences |
author_facet |
Murata Isao Ohta Masayuki Kusaka Sachie Sato Fuminobu Miyamaru Hiroyuki |
author_sort |
Murata Isao |
title |
Thought Experiment to Examine Benchmark Performance for Fusion Nuclear Data |
title_short |
Thought Experiment to Examine Benchmark Performance for Fusion Nuclear Data |
title_full |
Thought Experiment to Examine Benchmark Performance for Fusion Nuclear Data |
title_fullStr |
Thought Experiment to Examine Benchmark Performance for Fusion Nuclear Data |
title_full_unstemmed |
Thought Experiment to Examine Benchmark Performance for Fusion Nuclear Data |
title_sort |
thought experiment to examine benchmark performance for fusion nuclear data |
publisher |
EDP Sciences |
series |
EPJ Web of Conferences |
issn |
2100-014X |
publishDate |
2017-01-01 |
description |
There are many benchmark experiments carried out so far with DT neutrons especially aiming at fusion reactor development. These integral experiments seemed vaguely to validate the nuclear data below 14 MeV. However, no precise studies exist now. The author’s group thus started to examine how well benchmark experiments with DT neutrons can play a benchmarking role for energies below 14 MeV. Recently, as a next phase, to generalize the above discussion, the energy range was expanded to the entire region. In this study, thought experiments with finer energy bins have thus been conducted to discuss how to generally estimate performance of benchmark experiments. As a result of thought experiments with a point detector, the sensitivity for a discrepancy appearing in the benchmark analysis is “equally” due not only to contribution directly conveyed to the deterctor, but also due to indirect contribution of neutrons (named (A)) making neutrons conveying the contribution, indirect controbution of neutrons (B) making the neutrons (A) and so on. From this concept, it would become clear from a sensitivity analysis in advance how well and which energy nuclear data could be benchmarked with a benchmark experiment. |
url |
https://doi.org/10.1051/epjconf/201715307015 |
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