4.7 Article

Noble-metal-free Ni2P as cocatalyst decorated rapid microwave solvothermal synthesis of inorganic-organic CdS-DETA hybrids for enhanced photocatalytic hydrogen evolution

Journal

APPLIED SURFACE SCIENCE
Volume 481, Issue -, Pages 1385-1393

Publisher

ELSEVIER
DOI: 10.1016/j.apsusc.2019.03.237

Keywords

Photocatalytic hydrogen evolution; Ni2P; CdS; Diethylenetriamine; Cocatalyst

Funding

  1. National Natural Science Foundation of China [51572103, 51502106]
  2. Distinguished Young Scholar of Anhui Province [1808085J14]
  3. Foundation for Young Talents in College of Anhui Province [gxyqZD2017051]
  4. Key Foundation of Educational Commission of Anhui Province [KJ2016SD53]
  5. Anhui Provincial Innovation Team of Design and Application of Advanced Energetic Materials [KJ2015TD003]

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Inorganic-organic hybrid materials, a class of probable candidates for combining two counterparts into one structure could be beneficial for improving or combing the excellent electronic, magnetic, rigidity and thermal stability, and optical feathers of inorganic frameworks with diverse structure, processability, flexibility and good geometric controllability of organic molecules. Anchoring inorganic-organic hybrid materials with cocatalysts is a usually used strategy for enhancing their catalytic performance. However, noble metal cocatalysts always limit their practical application. Herein, we report that noble metal free cocatalyst of Ni2P decorated CdS-diethylenetriamine (CdS-DETA) can effectively overcome this limitation to achieve highly photocatalytic hydrogen production. The rapid microwave solvothermal synthesis of CdS-DETA (MCdS-DETA) process shortens reaction time, saves energy and lead to achieve highly photocatalytic activity due to its low crystallinity. When Ni2P decorated MCdS-DETA, The 0.4%Ni2P/MCdS-DETA exhibited the highest photocatalytic hydrogen evolution activity (6836 mu mmol h(-1)g(-1)), which is 4.14 times, 2.06 times and 1.34 times higher than traditional solvothermal CdS-DETA(TCdS-DETA), MCdS-DETA and Pt cocatalysted MCdS-DETA, respectively. The method reported here can be extended to other inorganic-organic hybrid materials, and develops new strategies for exploring inorganic-organic hybrid-based photocatalysts.

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