Non‐3d Metal Modulation of a 2D Ni–Co Heterostructure Array as Multifunctional Electrocatalyst for Portable Overall Water Splitting

Portable water splitting devices driven by rechargeable metal–air batteries or solar cells are promising, however, their scalable usages are still hindered by lack of suitable multifunctional electrocatalysts. Here, a highly efficient multifunctional electrocatalyst is demonstrated, i.e., 2D nanoshe...

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Veröffentlicht in:Small (Weinheim an der Bergstrasse, Germany) Germany), 2020-03, Vol.16 (10), p.e1906775-n/a
Hauptverfasser: Liu, Wenxian, Yu, Linhai, Yin, Ruilian, Xu, Xilian, Feng, Jinxiu, Jiang, Xuan, Zheng, Dong, Gao, Xinlong, Gao, Xiaobin, Que, Wenbin, Ruan, Pengchao, Wu, Fangfang, Shi, Wenhui, Cao, Xiehong
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creator Liu, Wenxian
Yu, Linhai
Yin, Ruilian
Xu, Xilian
Feng, Jinxiu
Jiang, Xuan
Zheng, Dong
Gao, Xinlong
Gao, Xiaobin
Que, Wenbin
Ruan, Pengchao
Wu, Fangfang
Shi, Wenhui
Cao, Xiehong
description Portable water splitting devices driven by rechargeable metal–air batteries or solar cells are promising, however, their scalable usages are still hindered by lack of suitable multifunctional electrocatalysts. Here, a highly efficient multifunctional electrocatalyst is demonstrated, i.e., 2D nanosheet array of Mo‐doped NiCo2O4/Co5.47N heterostructure deposited on nickel foam (Mo‐NiCo2O4/Co5.47N/NF). The successful doping of non‐3d high‐valence metal into a heterostructured nanosheet array, which is directly grown on a conductive substrate endows the resultant catalyst with balanced electronic structure, highly exposed active sites, and binder‐free electrode architecture. As a result, the Mo‐NiCo2O4/Co5.47N/NF exhibits remarkable catalytic activity toward the oxygen evolution reaction (OER) and hydrogen evolution reaction (HER), affording high current densities of 50 mA cm−2 at low overpotentials of 310 mV for OER, and 170 mV for HER, respectively. Moreover, a low voltage of 1.56 V is achieved for the Mo‐NiCo2O4/Co5.47N/NF‐based water splitting cell to reach 10 mA cm−2. More importantly, a portable overall water splitting device is demonstrated through the integration of a water‐splitting cell and two Zn–air batteries (open‐circuit voltage of 1.43 V), which are all fabricated based on Mo‐NiCo2O4/Co5.47N/NF, demonstrating a low‐cost way to generate fuel energy. This work offers an effective strategy to develop high‐performance metal‐doped heterostructured electrode. Non‐3d metal modulation of a 2D Ni–Co heterostructure array is demonstrated to effectively regulate the electronic structure of catalyst. The resultant material, i.e., Mo‐doped NiCo2O4/Co5.47N heterostructure nanosheet array coated nickel foam (Mo‐NiCo2O4/Co5.47N/NF), shows multifunctional electrocatalysis for the oxygen evolution reaction and hydrogen evolution reaction, which is then used for the construction of a Zn–air battery‐driven water splitting device.
doi_str_mv 10.1002/smll.201906775
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More importantly, a portable overall water splitting device is demonstrated through the integration of a water‐splitting cell and two Zn–air batteries (open‐circuit voltage of 1.43 V), which are all fabricated based on Mo‐NiCo2O4/Co5.47N/NF, demonstrating a low‐cost way to generate fuel energy. This work offers an effective strategy to develop high‐performance metal‐doped heterostructured electrode. Non‐3d metal modulation of a 2D Ni–Co heterostructure array is demonstrated to effectively regulate the electronic structure of catalyst. 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Here, a highly efficient multifunctional electrocatalyst is demonstrated, i.e., 2D nanosheet array of Mo‐doped NiCo2O4/Co5.47N heterostructure deposited on nickel foam (Mo‐NiCo2O4/Co5.47N/NF). The successful doping of non‐3d high‐valence metal into a heterostructured nanosheet array, which is directly grown on a conductive substrate endows the resultant catalyst with balanced electronic structure, highly exposed active sites, and binder‐free electrode architecture. As a result, the Mo‐NiCo2O4/Co5.47N/NF exhibits remarkable catalytic activity toward the oxygen evolution reaction (OER) and hydrogen evolution reaction (HER), affording high current densities of 50 mA cm−2 at low overpotentials of 310 mV for OER, and 170 mV for HER, respectively. Moreover, a low voltage of 1.56 V is achieved for the Mo‐NiCo2O4/Co5.47N/NF‐based water splitting cell to reach 10 mA cm−2. More importantly, a portable overall water splitting device is demonstrated through the integration of a water‐splitting cell and two Zn–air batteries (open‐circuit voltage of 1.43 V), which are all fabricated based on Mo‐NiCo2O4/Co5.47N/NF, demonstrating a low‐cost way to generate fuel energy. This work offers an effective strategy to develop high‐performance metal‐doped heterostructured electrode. Non‐3d metal modulation of a 2D Ni–Co heterostructure array is demonstrated to effectively regulate the electronic structure of catalyst. The resultant material, i.e., Mo‐doped NiCo2O4/Co5.47N heterostructure nanosheet array coated nickel foam (Mo‐NiCo2O4/Co5.47N/NF), shows multifunctional electrocatalysis for the oxygen evolution reaction and hydrogen evolution reaction, which is then used for the construction of a Zn–air battery‐driven water splitting device.</abstract><cop>Germany</cop><pub>Wiley Subscription Services, Inc</pub><pmid>31995284</pmid><doi>10.1002/smll.201906775</doi><tpages>8</tpages><orcidid>https://orcid.org/0000-0002-3004-7518</orcidid></addata></record>
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source Wiley Online Library Journals Frontfile Complete
subjects Arrays
Catalytic activity
chemical doping
Circuits
Electrocatalysts
Electrodes
Electronic structure
Heterostructures
Hydrogen evolution reactions
Low voltage
Metal air batteries
Metal foams
multifunctional catalysts
Nanostructure
Nanotechnology
Nickel compounds
Oxygen evolution reactions
Photovoltaic cells
Portable equipment
Rechargeable batteries
Solar cells
Substrates
Water splitting
Zinc-oxygen batteries
Zn–air batteries
title Non‐3d Metal Modulation of a 2D Ni–Co Heterostructure Array as Multifunctional Electrocatalyst for Portable Overall Water Splitting
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