铅冷快堆氧化腐蚀和传热耦合分析

IF 1.9 3区 工程技术 Q1 NUCLEAR SCIENCE & TECHNOLOGY
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引用次数: 0

摘要

考虑到长期运行期间氧化腐蚀的影响,开发了耦合代码 LETHAC-Oxide,用于分析铅冷快堆的热-水力和安全特性。根据 CORRIDA、Tsu-2M 和 SM-1 设施的实验数据,氧化模型得到了很好的验证。对反应堆概念 LESMOR 和 BREST-OD-300 进行了建模,结果表明氧化层对传热有显著影响,尤其是在较高温度下。LESMOR 和 BREST-OD-300 的比较表明,系统平均温度相差 95 ℃ 会导致氧化层厚度增加 14 倍,蒸汽发生器的热交换能力降低 7 倍。最终,LESMOR 在一个加油周期后会形成一层氧化保护膜,为结构材料提供保护,而不会对传热产生重大影响。相比之下,BREST-OD-300 的包层温度大幅上升,传热能力下降。这一结果凸显了氧气控制技术对降低氧化腐蚀相关风险的必要性,为优化反应堆性能和安全提供了宝贵的见解。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Coupled analysis of oxidation corrosion and heat transfer in lead-cooled fast reactors

The coupled code LETHAC-Oxide is developed for analysis of thermal–hydraulic and safety characteristics in lead-cooled fast reactors, considering the impact of oxidation corrosion during prolonged operation. Based on experimental data from CORRIDA, Tsu-2M, and SM-1 facility, the oxidation model is well verified. The reactor concepts LESMOR and BREST-OD-300 are modeled, and the results show that the oxide layer significantly influences heat transfer, particularly at higher temperatures. A comparison between LESMOR and BREST-OD-300 demonstrates that a 95 °C difference in average system temperature will cause 14 times increase in oxide layer thickness and 7 times decrease in steam generator heat exchange capability. Conclusively, LESMOR forms a protective oxide film after a refueling cycle, offering structural material protection without major heat transfer impact. In contrast, BREST-OD-300 shows a substantial increase in cladding temperature and decrease in heat transfer capacity. This result underscores the necessity of oxygen control technology to mitigate risks associated with oxidation corrosion, providing valuable insights for optimal reactor performance and safety.

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来源期刊
Annals of Nuclear Energy
Annals of Nuclear Energy 工程技术-核科学技术
CiteScore
4.30
自引率
21.10%
发文量
632
审稿时长
7.3 months
期刊介绍: Annals of Nuclear Energy provides an international medium for the communication of original research, ideas and developments in all areas of the field of nuclear energy science and technology. Its scope embraces nuclear fuel reserves, fuel cycles and cost, materials, processing, system and component technology (fission only), design and optimization, direct conversion of nuclear energy sources, environmental control, reactor physics, heat transfer and fluid dynamics, structural analysis, fuel management, future developments, nuclear fuel and safety, nuclear aerosol, neutron physics, computer technology (both software and hardware), risk assessment, radioactive waste disposal and reactor thermal hydraulics. Papers submitted to Annals need to demonstrate a clear link to nuclear power generation/nuclear engineering. Papers which deal with pure nuclear physics, pure health physics, imaging, or attenuation and shielding properties of concretes and various geological materials are not within the scope of the journal. Also, papers that deal with policy or economics are not within the scope of the journal.
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