Selecting Burnup Algorithms in OpenMC Using the Calculated Benchmark of LEU Assembly and MOX Fuel

OpenMC is a state-of-the-art Monte Carlo neutron transport simulation code that uses the Python programming language as an API. OpenMC supports eight burnout simulation algorithms. This study presents the results of choosing an integration method for modeling the burnup of fuel assemblies with burna...

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Main Authors: Hamza A Tanash, Denis A Solovyov, Vyacheslav G Zimin, Alexey L Lobarev, Denis A Plotnikov, Nikolay V Schukin
Format: Article
Language:English
Published: Национальный исследовательский ядерный университет МИФИ 2023-04-01
Series:Глобальная ядерная безопасность
Subjects:
Online Access:https://glonucsec.elpub.ru/jour/article/view/178
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author Hamza A Tanash
Denis A Solovyov
Vyacheslav G Zimin
Alexey L Lobarev
Denis A Plotnikov
Nikolay V Schukin
author_facet Hamza A Tanash
Denis A Solovyov
Vyacheslav G Zimin
Alexey L Lobarev
Denis A Plotnikov
Nikolay V Schukin
author_sort Hamza A Tanash
collection DOAJ
description OpenMC is a state-of-the-art Monte Carlo neutron transport simulation code that uses the Python programming language as an API. OpenMC supports eight burnout simulation algorithms. This study presents the results of choosing an integration method for modeling the burnup of fuel assemblies with burnable poisons for WWER-1000 reactors. Burnout simulation results from OpenMC were compared with those reported in the OECD benchmark. 8 different numerical integrators can be used to model burnout in OpenMC code: PI, CE/CM, LE/QI, CE/LI, CF4, EPC-RK4, SI-CE/LI, SI-LE/QI. The test results showed that the SI-CE/LI, SI-LE/QI integrators require significantly more time to calculate one burnup step than the others with the same accuracy, so they were excluded from further consideration. The PI integrator showed low integration accuracy at the same burnup steps with other integrators. However, PI has a high performance compared to other integrators, and as the integration step decreases, it converges to one solution, which can be chosen as a reference for assessing the quality of other integrators. Based on the results obtained using the fine step PI integrator, it was decided to use the CE/LI integrator for further work. The results obtained with CE/LI were compared with those obtained with the VVER-1000 LEU and MOX benchmark for codes: MCU, TVS-M, WIMS8A, HELIOS, MULTICELL and showed good agreement. Thus, we can conclude the applicability of the CE/LI integrator as part of OpenMC for modeling the burnup of fuel assemblies containing burnable poisons. During the work, the resources of the high-performance computer center of the National Research Nuclear University MEPhI were used.
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spelling doaj.art-efdb8dfdc929436a8e8144834dc36fc82023-10-09T09:03:13ZengНациональный исследовательский ядерный университет МИФИГлобальная ядерная безопасность2305-414X2499-97332023-04-0101799110.26583/gns-2023-01-07154Selecting Burnup Algorithms in OpenMC Using the Calculated Benchmark of LEU Assembly and MOX FuelHamza A Tanash0Denis A Solovyov1Vyacheslav G Zimin2Alexey L Lobarev3Denis A Plotnikov4Nikolay V Schukin5Национальный исследовательский ядерный университет «МИФИ»Национальный исследовательский ядерный университет «МИФИ»Национальный исследовательский ядерный университет «МИФИ»Национальный исследовательский ядерный университет «МИФИ»Национальный исследовательский ядерный университет «МИФИ»Национальный исследовательский ядерный университет «МИФИ»OpenMC is a state-of-the-art Monte Carlo neutron transport simulation code that uses the Python programming language as an API. OpenMC supports eight burnout simulation algorithms. This study presents the results of choosing an integration method for modeling the burnup of fuel assemblies with burnable poisons for WWER-1000 reactors. Burnout simulation results from OpenMC were compared with those reported in the OECD benchmark. 8 different numerical integrators can be used to model burnout in OpenMC code: PI, CE/CM, LE/QI, CE/LI, CF4, EPC-RK4, SI-CE/LI, SI-LE/QI. The test results showed that the SI-CE/LI, SI-LE/QI integrators require significantly more time to calculate one burnup step than the others with the same accuracy, so they were excluded from further consideration. The PI integrator showed low integration accuracy at the same burnup steps with other integrators. However, PI has a high performance compared to other integrators, and as the integration step decreases, it converges to one solution, which can be chosen as a reference for assessing the quality of other integrators. Based on the results obtained using the fine step PI integrator, it was decided to use the CE/LI integrator for further work. The results obtained with CE/LI were compared with those obtained with the VVER-1000 LEU and MOX benchmark for codes: MCU, TVS-M, WIMS8A, HELIOS, MULTICELL and showed good agreement. Thus, we can conclude the applicability of the CE/LI integrator as part of OpenMC for modeling the burnup of fuel assemblies containing burnable poisons. During the work, the resources of the high-performance computer center of the National Research Nuclear University MEPhI were used.https://glonucsec.elpub.ru/jour/article/view/178openmcвыгораниеметоды интегрированиябенчмарк oecdреакторов ввэр-1000метод переноса нейтроновпредиктор интегратор (pi)ce/li интеграторendf/b-vii.1коэффициент размножений нейтронов
spellingShingle Hamza A Tanash
Denis A Solovyov
Vyacheslav G Zimin
Alexey L Lobarev
Denis A Plotnikov
Nikolay V Schukin
Selecting Burnup Algorithms in OpenMC Using the Calculated Benchmark of LEU Assembly and MOX Fuel
Глобальная ядерная безопасность
openmc
выгорание
методы интегрирования
бенчмарк oecd
реакторов ввэр-1000
метод переноса нейтронов
предиктор интегратор (pi)
ce/li интегратор
endf/b-vii.1
коэффициент размножений нейтронов
title Selecting Burnup Algorithms in OpenMC Using the Calculated Benchmark of LEU Assembly and MOX Fuel
title_full Selecting Burnup Algorithms in OpenMC Using the Calculated Benchmark of LEU Assembly and MOX Fuel
title_fullStr Selecting Burnup Algorithms in OpenMC Using the Calculated Benchmark of LEU Assembly and MOX Fuel
title_full_unstemmed Selecting Burnup Algorithms in OpenMC Using the Calculated Benchmark of LEU Assembly and MOX Fuel
title_short Selecting Burnup Algorithms in OpenMC Using the Calculated Benchmark of LEU Assembly and MOX Fuel
title_sort selecting burnup algorithms in openmc using the calculated benchmark of leu assembly and mox fuel
topic openmc
выгорание
методы интегрирования
бенчмарк oecd
реакторов ввэр-1000
метод переноса нейтронов
предиктор интегратор (pi)
ce/li интегратор
endf/b-vii.1
коэффициент размножений нейтронов
url https://glonucsec.elpub.ru/jour/article/view/178
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