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The dehydrogenation behaviour of a cylindrical Mg metal hydride tank issimulated and examined in the case where the tank is thermally coupled with anoperating Solid Oxide Fuel Cell (SOFC) at 7000C. A three-dimensional validatedmathematical model is utilized to simulate the hydrogen desorption from acylindrical Mg hydride tank. Four scenarios are simulated: a base case wherethe heat source for the desorption process is an external heater surroundingthe tank. The second case examines the effect of the radiation heat transferfrom the SOFC to the metal hydride as a possible heat source for the desorptionprocedure. The third scenario uses the exhaust air from the SOFC cathode as theheating source which is driven to the hydride and the fourth scenario is acombination of both the exhaust air from the SOFC cathode and the externalheater as the heat source for the desorption. According to the results, theexhaust air from the SOFC and the combination of external heater and theexhaust heat have a uniform temperature distribution within the tank andenhance the desorption capacity.

Coupling Thermal Integration of a Solid Oxide Fuel Cell with a Magnesium Metal Hydride Tank