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Official PDF TranslationJournal of Mineral Metallurgy and Materials Science

Pyrolytic/solvothermal synthesis of tubular g-C3N4@NiFe-layered double hydroxide for catalytic enhancement of hydrogen storage in LiAlH4

Authors: Riguang Cheng; Zhaoyu Liu; Hengxin Zhang; Pantrangi Manasa; Hongge Pan; Fen Xu; Lixian Sun; Federico Rosei; and Yan Wang

DOI: 10.1007/s12613-026-3400-2Status: Verified Translated Edition
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Key Findings in This Report

• A novel tubular g-C3N4@NiFe-LDH nanocomposite was synthesized via solvothermal and pyrolysis methods, exhibiting a well-defined tubular morphology (~3 μm length, ~200 nm diameter) for enhanced dispersion and interfacial contact. • Doping LiAlH4 with 7wt% g-C3N4@NiFe-LDH dramatically improves dehydrogenation kinetics: the onset temperature is lowered to 79.2°C, releasing 6.8wt% hydrogen in two steps. • Kissinger analysis shows that the apparent activation energies for the two dehydrogenation steps are reduced by 43.0% and 54.8%, respectively, indicating significantly enhanced kinetics. • The synergistic effect between the g-C3N4 support and NiFe-LDH, along with potential in-situ formation of active interfacial species, is proposed as the mechanism for the catalytic enhancement.