| Citation: | RONG Yangyiming, SUN Yi, GAO Jun, et al. Research on hydrogen storage performance of adsorption hydrogen storage tank filled with metal foam[J]. Journal of Aerospace Power, 2025, 40（1）：20230100 doi: 10.13224/j.cnki.jasp.20230100
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The effects of different foam metal porosities on the temperature, pressure, adsorption capacity and total adsorption capacity in the hydrogen storage tank during the filling and degassing processes were investigated by numerical simulations with MOF-5 and AX-21 as adsorbents, respectively. In the filling stage, the addition of foam metal into the hydrogen storage tank can significantly improve the effective thermal conductivity in the hydrogen storage tank, reduce the average temperature and increase the average pressure in the tank, contributing to the adsorption reaction. In the degassing stage, the addition of foam metal can increase the average temperature in the hydrogen storage tank, which promoted the desorption of hydrogen. During the degassing process, with the reduction of foam metal porosity, the obvious area of desorption reaction gradually expanded toward the center of the tank, helping to accelerate the desorption and release of hydrogen. There existed optimal filled foam metal porosity leading to the maximum total hydrogen adsorption in the hydrogen storage tank. For MOF adsorbent, the optimal porosity was 0.8; for AX-21 adsorbent, the optimal porosity was 0.9.
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