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A transient single particle model under FCI conditions
  • 期刊名称:Nuclear science and techniques
  • 时间:0
  • 作者或编辑:3448
  • 第一作者所属机构:Department of Nuclear Science and System Engineeri
  • 页码:315-320
  • 语言:英文
  • 分类:TK12[动力工程及工程热物理—工程热物理;动力工程及工程热物理—热能工程]
  • 作者机构:[1]Department of Nuclear Science and System Engineering, School of Mechanics and Power, Shanghai Jiaotong University, Shanghai 200030
  • 相关基金:国家自然科学基金,面向21世纪教育振兴行动计划(985计划)
  • 相关项目:蒸汽爆炸中膜态沸腾条件下高温颗粒周围流体的热动力特性研究
中文摘要:

The paper is focused on the coupling effect between film boiling heat transfer and evaporation drag around a hot-particle in cold liquid. Based on the continuity, momentum and energy equations of the vapor film, a transient two-dimensional single particle model has been established. This paper contains a detailed description of HPMC (High-temperature Particle Moving in Coolant) model for studying some aspects of the premixing stage of fuel-coolant interactions (FCIs). The transient process of high-temperature particles moving in coolant can be simulated. Comparisons between the experiment results and the calculations using HPMC model demonstrate that HPMC model achieves a good agreement in predicting the time-varying characteristic of high-temperature spheres moving in coolant.

英文摘要:

The paper is focused on the coupling effect between film boiling heat transfer and evaporation drag around a hot-particle in cold liquid. Based on the continuity, momentum and energy equations of the vapor film, a transient two-dimensional single particle model has been established. This paper contains a detailed description of HPMC (High-temperature Particle Moving in Coolant) model for studying some aspects of the premixing stage of fuel-coolant interactions (FCIs). The transient process of high-temperature particles moving in coolant can be simulated. Comparisons between the experiment results and the calculations using HPMC model demonstrate that HPMC model achieves a good agreement in predicting the time-varying characteristic of high-temperature spheres moving in coolant.

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