以低浓缩铀组件和MOX燃料为计算基准,在OpenMC中选择燃耗算法

Hamza A Tanash, Denis A Solovyov, V. Zimin, A. Lobarev, D. Plotnikov, N. V. Schukin
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引用次数: 0

摘要

OpenMC是一种最先进的蒙特卡罗中子传输模拟代码,它使用Python编程语言作为API。OpenMC支持8种倦怠模拟算法。本文介绍了WWER-1000反应堆燃料组件燃耗的综合建模方法选择的结果。OpenMC的倦怠模拟结果与OECD基准报告的结果进行了比较。OpenMC代码中可以使用8种不同的数值积分器来模拟燃烬:PI、CE/CM、LE/QI、CE/LI、CF4、EPC-RK4、SI-CE/LI、SI-LE/QI。测试结果表明,在相同精度下,SI-CE/LI、SI-LE/QI积分器计算一个燃耗阶跃所需的时间明显多于其他积分器,因此将其排除在进一步考虑之外。在相同的燃耗步骤下,PI积分器与其他积分器的积分精度较低。然而,PI与其他集成商相比具有较高的性能,并且随着集成步骤的减小,它收敛于一个解,可以作为评估其他集成商质量的参考。基于精细步长PI积分器得到的结果,决定采用CE/LI积分器进行进一步的工作。在MCU、TVS-M、WIMS8A、HELIOS、MULTICELL等代码上,用CE/LI得到的结果与用VVER-1000 LEU和MOX基准得到的结果进行了比较,结果一致。因此,我们可以得出结论,CE/LI积分器作为OpenMC的一部分,可用于模拟含有可燃毒物的燃料组件的燃用。在工作中,利用了国家核研究大学MEPhI高性能计算机中心的资源。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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 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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