115學年材料系-第十一週 專題研討課程 演講公告 (115年5月14日)
2026.05.11
115學年材料系-第十一週 專題研討課程 演講公告 (115年5月14日)
題目: Universal Methods for Exfoliating Two-Dimensional Materials and In Situ Probing of Their Structural Evolution in Electrochemical Environments
講者：陳以文 博士
現職：國立成功大學化學系教授
時間：5/14 (四) 15:20~17:10
地點: 成功大學 成功校區 三系館 鋼構區 (3F) 共同教室 A1302 演講廳
內容摘要:
Two-dimensional (2D) materials have emerged as a transformative platform for advancing electrocatalytic processes due to their high surface area, tunable electronic structure, and abundant active sites. In this talk, we will highlight recent progress in the design and engineering of layered materials to achieve superior performance in key electrochemical reactions. Particular emphasis will be placed on how structural modulation, defect engineering, and heteroatom incorporation translate from atomic-scale layers to marco-scale level performance. Beyond electrocatalysis, we will briefly explore how these strategies open new frontiers for diverse applications such as energy storage. Together, these insights provide a roadmap for harnessing the intrinsic advantages of 2D materials to enable next-generation technologies.
題目: Universal Methods for Exfoliating Two-Dimensional Materials and In Situ Probing of Their Structural Evolution in Electrochemical Environments
講者：陳以文 博士
現職：國立成功大學化學系教授
時間：5/14 (四) 15:20~17:10
地點: 成功大學 成功校區 三系館 鋼構區 (3F) 共同教室 A1302 演講廳
內容摘要:
Two-dimensional (2D) materials have emerged as a transformative platform for advancing electrocatalytic processes due to their high surface area, tunable electronic structure, and abundant active sites. In this talk, we will highlight recent progress in the design and engineering of layered materials to achieve superior performance in key electrochemical reactions. Particular emphasis will be placed on how structural modulation, defect engineering, and heteroatom incorporation translate from atomic-scale layers to marco-scale level performance. Beyond electrocatalysis, we will briefly explore how these strategies open new frontiers for diverse applications such as energy storage. Together, these insights provide a roadmap for harnessing the intrinsic advantages of 2D materials to enable next-generation technologies.