FeCu−N <sub>6</sub> −C Diatomic Sites Catalyst for the Boosted Oxygen Reduction Reactions in Zinc‐Air Batteries

Due to the high catalytic activity and stability for oxygen reduction reaction, N-coordinated Fe-Cu dual-metal doped carbon material (FeCu-N-C) is considered to be one of the promising electrode materials for metal-air battery and fuel cells. Herein, FeCu-N-C dual-metal catalysts was synthesized by an adsorption-calcination strategy. The prepared FeCu-N-C exhibited high activity and stability both in alkaline and acidic media. In alkaline/acid medium, the half-wave potential reaches to 0.90/0.80 V, which is better than Fe-N-C catalyst. The power density for FeCu-N-C in zinc-air battery reaches to 220 mW cm<sup>-2</sup> and shows high electrochemical stability for more than 600 hours in charge/discharge cycles, much higher than 130 hours for Pt/C (40 %) and 100 hours for Fe-N-C. Density-functional theory calculations showed that the FeCu-N-C dual-metal catalysts got lower overpotential of 0.50 V than Fe-N-C (0.53 V), which improved the ORR activity. The results are helpful for the deep understanding of high-performance diatomic catalysts.

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Journal
ChemPlusChem
Published
2024-12-23
DOI
https://doi.org/10.1002/cplu.202400733
Primary Topic
Electrocatalysts for Energy Conversion
Type
article
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article

FeCu−N 6 −C Diatomic Sites Catalyst for the Boosted Oxygen Reduction Reactions in Zinc‐Air Batteries

Bingxin Liu, Yunsi Wang, Riming Hu, Le Sang et al.
ChemPlusChem
Electrocatalysts for Energy Conversion
article

FeCu−N 6 −C Diatomic Sites Catalyst for the Boosted Oxygen Reduction Reactions in Zinc‐Air Batteries

Bingxin Liu, Yunsi Wang, Riming Hu, Le Sang, Shan Zhang, Shipeng Wang, Peng Zhang, Hao Zhu, Yongcheng Li, Zipan Jiao
article en

Abstract

Due to the high catalytic activity and stability for oxygen reduction reaction, N-coordinated Fe-Cu dual-metal doped carbon material (FeCu-N-C) is considered to be one of the promising electrode materials for metal-air battery and fuel cells. Herein, FeCu-N-C dual-metal catalysts was synthesized by an adsorption-calcination strategy. The prepared FeCu-N-C exhibited high activity and stability both in alkaline and acidic media. In alkaline/acid medium, the half-wave potential reaches to 0.90/0.80 V, which is better than Fe-N-C catalyst. The power density for FeCu-N-C in zinc-air battery reaches to 220 mW cm<sup>-2</sup> and shows high electrochemical stability for more than 600 hours in charge/discharge cycles, much higher than 130 hours for Pt/C (40 %) and 100 hours for Fe-N-C. Density-functional theory calculations showed that the FeCu-N-C dual-metal catalysts got lower overpotential of 0.50 V than Fe-N-C (0.53 V), which improved the ORR activity. The results are helpful for the deep understanding of high-performance diatomic catalysts.

ChemPlusChemVol. 90(3)
Qinghai University (CN), University of Jinan (CN), Smart Material (Germany) (DE)
Clean water and sanitation
Openalex Percentile: Top 85%
Electrocatalysts for Energy Conversion
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FeCu−N <sub>6</sub> −C Diatomic Sites Catalyst for the Boosted Oxygen Reduction Reactions in Zinc‐Air Batteries — Bingxin Liu, Yunsi Wang, et al. · ChemPlusChem (2024) | TGRS Research Map | TGRS