Analytical Model for Peak Temperature within a Sodium-Water Reaction Jet
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概要
- 論文の詳細を見る
A model for predicting the peak temperature within an oxidizer-steam jet submerged in molten sodium is described. Previous experimental and theoretical work by the present authors has shown that a single, representative droplet size may be used to model droplet-to-gas heat and mass exchange within a submerged jet and that the appropriate droplet size is suggested by assuming that the submerged jet behaves like a plane jet airblast atomizer. These findings are exploited here to develop a rational, integral two-fluid model of the centerline temperature within the submerged steam jet carrying entrained sodium drops and products of combustion. Reasonable agreement with available measurements of the peak centerline temperature within steam-in-sodium jets is obtained.
- 社団法人 日本原子力学会の論文
- 2006-01-25
著者
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KOTAKE Shoji
The Japan Atomic Power Company
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Epstein Michael
Fauske & Associates Llc
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Kotake Shoji
The Japan Atomic Power Co.
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FAUSKE Hans
Fauske & Associates, Inc.
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YOSHIOKA Naoki
Mitsubishi FBR Systems, Inc.
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Fauske Hans
Fauske & Associates Llc
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Yoshioka Naoki
Advanced Reactor Technology Co. Ltd.
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TASHIMO Masanori
Advanced Reactor Technology Co., Ltd.
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SAKABA Hiroshi
Mitsubishi Heavy Industries, Ltd.
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Sakaba Hiroshi
Mitsubishi Heavy Industries Ltd.
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Tashimo Masanori
Advanced Reactor Technology Co. Ltd.
関連論文
- Development of Advanced Fuel Handling Machine for JSFR
- Assessment of Fuel Coolant Interactions(FCIs) in the FBR Core Disruptive Accident(CDA)
- Study on Chemical Reactivity Control of Sodium by Suspended Nanoparticles II
- Study on Chemical Reactivity Control of Sodium by Suspended Nanoparticles I
- Assessment of the FBR Core Disruptive Accident(CDA) : The Role and Application of General Behavior Principles(GBPs)
- Seismic Isolation Design for JSFR
- Study on Chemical Reactivity Control of Sodium by Suspended Nanoparticles II
- Study on Chemical Reactivity Control of Sodium by Suspended Nanoparticles I
- Analytical Model for Peak Temperature within a Sodium-Water Reaction Jet
- Establishment of Analytical Model for Peak Temperature Within a Sodium-Water Reaction Jet, (I) : Axial Temperature Profile Within an Inert Hot Gas Jet Injected into a Cold Liquid
- Establishment of Analytical Model for Peak Temperature Within a Sodium-Water Reaction Jet, (II) : Mean Droplet Size in a Submerged Gas Jet
- Design Study and R&D Progress on Japan Sodium-Cooled Fast Reactor
- Seismic Isolation Design for JSFR