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Numerical Simulation of Hydrogen Storage System using Magnesium Hydride Enhanced in its Heat Transfer
Author(s) -
Pil Joo Kim,
Jae Hyeok Shim,
YeonHo Im
Publication year - 2015
Publication title -
journal of hydrogen and new energy
Language(s) - English
Resource type - Journals
eISSN - 2288-7407
pISSN - 1738-7264
DOI - 10.7316/khnes.2015.26.5.469
Subject(s) - magnesium hydride , hydrogen storage , hydride , hydrogen , thermodynamics , mass transfer , heat transfer , materials science , cryo adsorption , work (physics) , magnesium , thermal energy storage , transient (computer programming) , nuclear engineering , thermal conductivity , graphite , chemistry , metallurgy , composite material , computer science , engineering , physics , operating system , organic chemistry
>> The purpose of this work is to investigate main factors to design a solid-state hydrogen stroage system with magnesium hydride with 10 wt% graphite using numerical simulation tools. The heat transfer characteristic of this material was measured in order to perform the highly reliable simulation for this system. Based on the measured effective thermal conductivity, a transient heat and mass transfer simulation revealed that the total performance of hydrogen storage system is prone to depend on heat and mass transfer behaviors of hydrogen storage medium instead of its inherent kinetic rate for hydrogen adsorption. Furthermore, we demonstrate that the thermodynamic aspect between equlibrium presssure and temperature is one of key factor to design the hydrogen storage system with high performance using magnesium hydride.

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