Rui Guo (134395)Zhifeng Zhao (4859473)Zhanhua Su (536206)Jing Liang (32441)Weili Qu (20314496)Xiaofeng Li (342614)Yongchen Shang (8774789)
The reasonable design of highly efficient NiFe-based\nbifunctional\nelectrocatalysts is imperative for water splitting and alleviation\nof the energy crisis. Herein, the NiFe-based bifunctional electrocatalysts\nare designed and grown in situ on Ni foam by a simple hydrothermal\nmethod. The interfacial effect among NiFe-LDH, Fe<sub>5</sub>O<sub>7</sub>(OH), and NiFe<sub>2</sub>O<sub>4</sub> exposes more catalytic\nactive sites, modulated electronic structure, and optimization of\nthe electrocatalytic performances. The overpotentials of NiFe-LDH/Fe<sub>5</sub>O<sub>7</sub>(OH)/NiFe<sub>2</sub>O<sub>4</sub>/NF-15h (NFN/NF-15h)\nfor the hydrogen evolution reaction (HER) and oxygen evolution reaction\n(OER) are 78 and 208 mV at 10 mA cm<sup>–2</sup>, respectively.\nOverall water splitting can drive 10 mA cm<sup>–2</sup> with\na cell voltage of only 1.538 V. This work contributes a feasible idea\nfor the design and synthesis of NiFe-based bifunctional electrocatalysts\nwith outstanding water splitting performance.
Ruibin GuoZhifeng ZhaoZhanhua SuJing LiangWei-Li QuXiaofeng LiYongchen Shang
Ashwani Kumar (55732)Sayan Bhattacharyya (1568695)
Lu XuFutao ZhangJiahui ChenXian‐Zhu FuRong SunChing‐Ping Wong
Lu Xu (386491)Fu-Tao Zhang (4738500)Jia-Hui Chen (690442)Xian-Zhu Fu (1578355)Rong Sun (532754)Ching-Ping Wong (1419250)
Jiayuan Li (448199)Jing Li (10611)Xuemei Zhou (1511557)Zhaoming Xia (1530316)Wei Gao (2085)Yuanyuan Ma (280707)Yongquan Qu (1268169)