Modeling void growth and movement with phase change in thermal energy storage canisters
Author(s) -
Douglas Darling,
David Namkoong,
Jozef Škarda
Publication year - 1993
Publication title -
30th thermophysics conference
Language(s) - English
Resource type - Conference proceedings
DOI - 10.2514/6.1993-2832
Subject(s) - surface tension , void (composites) , mechanics , buoyancy , thermal , momentum (technical analysis) , energy–momentum relation , phase change , thermal energy storage , thermodynamics , thermal energy , materials science , physics , composite material , finance , economics
A scheme was developed to model the thermal hydrodynamic behavior of thermal energy storage salts. The model included buoyancy, surface tension, viscosity, phases change with density difference, and void growth and movement. The energy, momentum, and continuity equations were solved using a finite volume formulation. The momentum equation was divided into two pieces. The void growth and void movement are modeled between the two pieces of the momentum equations. Results showed this scheme was able to predict the behavior of thermal energy storage salts.
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