Anchoring zero valence single atoms of nickel and iron on graphdiyne for hydrogen evolution

Yurui Xue(Chinese Academy of Sciences), Bolong Huang(Hong Kong Polytechnic University), Yuanping Yi(Chinese Academy of Sciences), Yuan Guo(Chinese Academy of Sciences), Zicheng Zuo(Chinese Academy of Sciences), Yongjun Li(Chinese Academy of Sciences), Zhiyu Jia(Chinese Academy of Sciences), Huibiao Liu(Chinese Academy of Sciences), Yuliang Li(Chinese Academy of Sciences)
Nature Communications
April 11, 2018
Cited by 993Open Access
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Abstract

Electrocatalysis by atomic catalysts is a major focus of chemical and energy conversion effort. Although transition-metal-based bulk electrocatalysts for electrochemical application on energy conversion processes have been reported frequently, anchoring the stable transition-metal atoms (e.g. nickel and iron) still remains a practical challenge. Here we report a strategy for fabrication of ACs comprising only isolated nickel/iron atoms anchored on graphdiyne. Our findings identify the very narrow size distributions of both nickel (1.23 Å) and iron (1.02 Å), typical sizes of single-atom nickel and iron. The precision of this method motivates us to develop a general approach in the field of single-atom transition-metal catalysis. Such atomic catalysts have high catalytic activity and stability for hydrogen evolution reactions.


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