Luo Wen, Yan Xin, Pan Xuelei, Jiao Jinying, Mai Liqiang
Department of Physics, School of Science, Wuhan University of Technology, Wuhan, 430070, China.
State Key Laboratory of Advanced Technology for Materials Synthesis and Processing, Wuhan University of Technology, Wuhan, 430070, China.
Small. 2024 Mar;20(10):e2305020. doi: 10.1002/smll.202305020. Epub 2023 Oct 24.
Clean and sustainable energy conversion and storage through electrochemistry shows great promise as an alternative to traditional fuel or fossil-consumption energy systems. With regards to practical and high-efficient electrochemistry application, the rational design of active sites and the accurate description of mechanism remain a challenge. Toward this end, in this Perspective, a unique on-chip micro/nano device coupling nanofabrication and low-dimensional electrochemical materials is presented, in which material structure analysis, field-effect regulation, in situ monitoring, and simulation modeling are highlighted. The critical mechanisms that influence electrochemical response are discussed, and how on-chip micro/nano device distinguishes itself is emphasized. The key challenges and opportunities of on-chip electrochemical platforms are also provided through the Perspective.
通过电化学实现清洁和可持续的能量转换与存储,作为传统燃料或化石消耗能源系统的替代方案,展现出了巨大的前景。对于实际且高效的电化学应用而言,活性位点的合理设计以及机理的准确描述仍是一项挑战。为此,在本展望中,介绍了一种独特的将纳米制造与低维电化学材料相结合的片上微纳器件,其中突出了材料结构分析、场效应调控、原位监测和模拟建模。讨论了影响电化学反应的关键机制,并强调了片上微纳器件的独特之处。本展望还提出了片上电化学生物平台面临的关键挑战与机遇。