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author Smith, Russell Charles
Rohsenow, Warren M.
Kazimi, Mujid S.
author2 Massachusetts Institute of Technology. Department of Nuclear Engineering
author_facet Massachusetts Institute of Technology. Department of Nuclear Engineering
Smith, Russell Charles
Rohsenow, Warren M.
Kazimi, Mujid S.
author_sort Smith, Russell Charles
collection MIT
description "June 1980."
first_indexed 2024-09-23T16:57:19Z
format Technical Report
id mit-1721.1/89739
institution Massachusetts Institute of Technology
last_indexed 2024-09-23T16:57:19Z
publishDate 2014
publisher Cambridge, Mass. : Dept. of Nuclear Engineering, Massachusetts Institute of Technology, [1980]
record_format dspace
spelling mit-1721.1/897392019-04-11T04:11:15Z Modeling of fuel-to-steel heat transfer in core disruptive accidents Smith, Russell Charles Rohsenow, Warren M. Kazimi, Mujid S. Massachusetts Institute of Technology. Department of Nuclear Engineering U.S. Nuclear Regulatory Commission TK9008.M41 N96 no.233 Liquid metal fast breeder reactors -- Safety measures Heat -- Transmission -- Mathematical models Nuclear fuel elements "June 1980." Also issued as a Ph. D. thesis by the first author, MIT Dept. of Nuclear Engineering, 1980 Includes bibliographical references (pages 110-111) A mathematical model for direct-contact boiling heat transfer between immiscible fluids was developed and tested experimentally. The model describes heat transfer from a hot fluid bath to an ensemble of droplets of a cooler fluid that boils as it passes through the hot fluid. The mathematical model is based on single bubble correlations for the heat transfer and a drift-flux model for the fluid dynamics. The model yields a volumetric heat transfer coefficient as a function of the initial diameter, velocity and volume fraction of the dispersed component. An experiment was constructed to boil cyclopentane droplets in water. The mathematical and experimental results agreed reasonably well. The results were applied to investigate the possibility of steel vaporization during a hypothetical core disruptive accident in a liquid metal fast breeder reactor. The model predicts that substantial steel vaporization may occur in core disruptive accidents, if the steel reaches its saturation temperature rapidly enough. The potential importance of steel vaporization is dependent on the accident scenario. Report issued under contract with the U.S. Nuclear Regulatory Commission NRC-04-77-126 2014-09-16T23:37:23Z 2014-09-16T23:37:23Z 1980 Technical Report http://hdl.handle.net/1721.1/89739 857463357 MITNE ; no. 233 111 pages application/pdf Cambridge, Mass. : Dept. of Nuclear Engineering, Massachusetts Institute of Technology, [1980]
spellingShingle TK9008.M41 N96 no.233
Liquid metal fast breeder reactors -- Safety measures
Heat -- Transmission -- Mathematical models
Nuclear fuel elements
Smith, Russell Charles
Rohsenow, Warren M.
Kazimi, Mujid S.
Modeling of fuel-to-steel heat transfer in core disruptive accidents
title Modeling of fuel-to-steel heat transfer in core disruptive accidents
title_full Modeling of fuel-to-steel heat transfer in core disruptive accidents
title_fullStr Modeling of fuel-to-steel heat transfer in core disruptive accidents
title_full_unstemmed Modeling of fuel-to-steel heat transfer in core disruptive accidents
title_short Modeling of fuel-to-steel heat transfer in core disruptive accidents
title_sort modeling of fuel to steel heat transfer in core disruptive accidents
topic TK9008.M41 N96 no.233
Liquid metal fast breeder reactors -- Safety measures
Heat -- Transmission -- Mathematical models
Nuclear fuel elements
url http://hdl.handle.net/1721.1/89739
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