Metal–Nitrogen Batteries: Emerging and Promising Models for Energy Conversion/Storage System and Simultaneous NH3 Synthesis
- 5 July 2025
- journal article
- Published by Wiley in ChemSusChem
- Vol. 18 (15) , e202500247
Abstract
The new type of metal–nitrogen (MN2/NO/NO3−/NO2−) batteries, transforming the traditional electrical‐energy‐input catalytic system into an electrical‐energy‐output type and simultaneously achieving the electrosynthesis of ammonia, attracts more attention. Despite being at the early research stage, recent encouraging advancements in combining NH3 synthesis and energy conversion/storage in such M–nitrogen batteries are meaningfully summarized. This review presents the battery system's components (including anode metals, cathode catalysts, and the involving reaction processes), and briefly introduces separators and electrolytes, while comparing their electrochemistry and electrocatalytic performance. Three categories of M–nitrogen batteries are delineated: three‐phase MN2 batteries solely for N2 fixation, MN2/NO batteries, and two‐phase MNO3−/NO2− batteries for NH3 synthesis. Additionally, strategies for enhancing performance of M–nitrogen batteries are discussed, highlighting on design for electrodes materials, methods for reaction pathways, optimization for device, and outlook for practical use. Finally, suggestions and prospects of the future development of this battery system are put forward, envisioning a scenario toward high‐energy‐density and superior performance M–nitrogen batteries. This review offers a reference for design of electrocatalytic materials in reduction reactions of nitrogen‐containing reactants for green ammonia production, gives a clue for new battery devices for energy conversion/storage, and will boost the efficient and green nitrogen circular economy.Keywords
Funding Information
- National Natural Science Foundation of China (22172082)
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