Li Jian, Li Jin, Xia Xing-Hua
State Key Lab of Analytical Chemistry for Life Science, School of Chemistry and Chemical Engineering, Nanjing University, Nanjing 210023, China.
ACS Meas Sci Au. 2024 Oct 21;4(6):606-614. doi: 10.1021/acsmeasuresciau.4c00048. eCollection 2024 Dec 18.
Plasmon-enhanced infrared (IR) techniques have garnered significant interest for their ability to achieve greatly more sensitive IR detection than conventional surface enhanced IR techniques. However, the difficulty in electrically connecting antennas has limited their application in IR spectroelectrochemistry, a crucial field for catalysis, analysis, and energy storage. Recent technical advancements have enabled the successful application of electrochemical potentials to antennas, making plasmon-enhanced IR spectroelectrochemistry feasible. This perspective aims to summarize the latest strategies and offer insights into future improvements for better design of plasmon enhanced IR spectroelectrochemistry platforms and understanding of IR spectroelectrochemistry.
等离子体增强红外（IR）技术因其能够实现比传统表面增强红外技术更灵敏的红外检测而备受关注。然而，天线电连接的困难限制了它们在红外光谱电化学中的应用，而红外光谱电化学是催化、分析和能量存储的关键领域。最近的技术进步使电化学势能够成功应用于天线，使等离子体增强红外光谱电化学成为可能。这篇综述旨在总结最新策略，并为未来的改进提供见解，以更好地设计等离子体增强红外光谱电化学平台并理解红外光谱电化学。
