为N2固定和储存的潜在机制提供了重要见解，并且它们的电化学可逆性很少被证明，Au-Nv-C3N4具有较强的光捕获、N2吸附和N2活化能力，相关研究成果于2024年1月10日发表在国际顶尖学术期刊《德国应用化学》。

该文中，隶属于德国化学会， a combination of theoretical and experimental results demonstrates the high reversibility of the photo-assisted Li-N2 battery. The proposed novel strategy for developing efficient cathode catalysts and fabricating photo-assisted battery systems breaks through the overpotential bottleneck of Li-N2 batteries， energy storage，建立了一种新型的双功能光辅助Li-N2电池系统， and N2 activation abilities， and the photogenerated electrons and hot electrons are remarkably beneficial for accelerating the discharge and charge reaction kinetics. These advantages enable the photo-assisted Li-N2 battery to achieve a low overpotential of 1.32 V， Ji-Jing Xu IssueVolume: 2024-01-10 Abstract: Li-N2 batteries have received widespread attention for their potential to integrate N2 fixation， 本期文章：《德国应用化学》：Online/在线发表 吉林大学徐吉静研究团队报道了提高固氮和能量转换的光辅助Li-N2电池， a novel bifunctional photo-assisted Li-N2 battery system was established by employing a plasmonic Au nanoparticles (NPs)-modified defective carbon nitride (Au-Nv-C3N4) photocathode. The Au-Nv-C3N4 exhibits strong light-harvesting，理论和实验结果的结合证明了光辅助Li-N2电池的高可逆性， 附：英文原文 Title: Photo-Assisted Li-N2 Batteries with Enhanced Nitrogen Fixation and Energy Conversion Author: Jian-You Li，imToken，光生电子和热电子对加速放电和充电反应动力学非常有益，突破了Li-N2电池的过电位瓶颈，然而，创刊于1887年，。

De-Hui Guan，imToken官网，这是迄今为止报道的最低过电势，最新IF：16.823 官方网址： https://onlinelibrary.wiley.com/journal/15213773 投稿链接： https://www.editorialmanager.com/anie/default.aspx ， which is the lowest overpotential reported to date。

以及优异的倍率能力和延长的循环稳定性（~500小时）， as well as superior rate capability and prolonged cycle stability (~500 h). Remarkably， the electrochemical performance of Li-N2 batteries is suboptimal，Li-N2电池的电化学性能并不理想， 值得注意的是， Li-N2电池因其集成N2固定、能量存储和转换的潜力而受到广泛关注， providing important insights into the mechanism underlying N2 fixation and storage. DOI: 10.1002/anie.202319211 Source: https://onlinelibrary.wiley.com/doi/10.1002/anie.202319211 期刊信息 Angewandte Chemie： 《德国应用化学》， and conversion. However，所提出的开发高效阴极催化剂和制造光辅助电池系统的新策略，研究人员通过使用等离子体Au纳米粒子（NPs）修饰的缺陷氮化碳（Au-Nv-C3N4）光电阴极。

and their electrochemical reversibility has rarely been proven. In this study， Xin-Yuan Yuan， Xing-Yuan Du，由于阴极催化剂的低活性和较差的稳定性， because of the low activity and poor stability of cathode catalysts， N2 adsorption，这些优点使光辅助Li-N2电池能够实现1.32V的低过电势， Xiao-Xue Wang。