The Research work of Dr. Ishida ‐ including Syntheses and Their Photocatalytic CO2 Reduction of Dinuclear Metal Complexes with Peptide Linkages project

Impact Pub Date : 2024-01-22 DOI:10.21820/23987073.2024.1.6
Hitoshi Ishida
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Abstract

The process of photosynthesis holds potential to be harnessed for addressing increasing CO2 levels, as well as for finding solutions for energy shortages resulting from depleted fossil fuel reserves. Professor Hitoshi Ishida, Laboratory on Functional Metal Complexes, Kansai University, has extensive expertise in creating artificial enzymes and is interested in developing techniques to emulate photosynthesis. The plan is to create a new photocatalyst by combining photochemical CO2 reduction catalytic reactions for artificial photosynthesis with the technology of functional molecule design using ‘peptide origami’, whereby proteins fold to form higher-order structures and exhibit functions. Ishida and his team are seeking to achieve artificial photosynthesis by using ruthenium complexes as catalysts in CO2 reduction reactions that can reduce CO2 to carbon monoxide (CO) and formic acid (HCOOH), which are useful as energy sources. Ishida has created functional molecules combining metal complexes with proteins, including artificial metalloproteins ‐ a type of protein containing a metal ion ‐ using synthetic bipyridyl amino acid 5Bpy. This focused on a rare transition metal called ruthenium as the ruthenium complexes the researchers are investigating have a selectivity for carbon monoxide and formic acid reduction products that change depending on the reaction conditions. The ultimate goal of Ishida’s work is to find a solution to the problem of pollution, while addressing the need for alternatives to fossil fuels.
石田博士的研究工作--包括 "具有肽链的双核金属配合物的合成及其光催化二氧化碳还原 "项目
光合作用过程有可能被用来解决二氧化碳含量不断增加的问题,以及寻找化石燃料储备枯竭导致能源短缺的解决方案。关西大学功能金属复合物实验室的石田仁教授在制造人工酶方面拥有丰富的专业知识,他对开发模拟光合作用的技术很感兴趣。他们计划将人工光合作用的光化学二氧化碳还原催化反应与使用 "肽折纸 "的功能分子设计技术相结合,创造出一种新型光催化剂。石田和他的团队正在寻求利用钌复合物作为二氧化碳还原反应的催化剂,将二氧化碳还原成一氧化碳(CO)和甲酸(HCOOH),从而实现人工光合作用。石田利用合成的双吡啶基氨基酸 5Bpy 创造了将金属复合物与蛋白质相结合的功能分子,包括人工金属蛋白(一种含有金属离子的蛋白质)。这项研究的重点是一种名为钌的稀有过渡金属,因为研究人员正在研究的钌络合物对一氧化碳和甲酸还原产物具有选择性,这种选择性会随着反应条件的变化而变化。Ishida 工作的最终目标是找到解决污染问题的方法,同时满足对化石燃料替代品的需求。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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