Field of Study
Electrochemistry, Theoretical Calculation, Physical Chemistry
Keywords
Proton-coupled electron transfer, Density functional theory, Superoxide radical anion
医薬品の電子移動機構を解明し、制御・活用することを目指す。
We aim to elucidate, control, and utilize the electron transfer mechanisms of pharmaceuticals.
  • 講師 中山 辰史 Associate Professor Tatsushi Nakayama Ph.D. mail_outlinetnakayama@
    ※@以降はgifu-pu.ac.jpとなります。

研究テーマ Research Subjects

薬品電子移動化学研究室では、医薬品の電子移動機構の解明を目的として、電気化学と計算科学の両面からアプローチし、医薬品による疾患の分子レベルでの制御、ならびに生命現象や疾患に関わる反応メカニズムの解明を目指した研究を展開しています。これは、疾患の発症から薬理作用に至る多様な生体内現象が、生体分子の化学反応に伴う電子移動によりエネルギー的に制御されているという考えに基づくものです。

また、電気化学的手法を用いた医薬品の製造法および製造モジュールの開発にも取り組んでいます。医薬品の電子移動機構を理解し、これを制御することで、社会への貢献を目指しています。

 At the Laboratory of Pharmaceutical Electron Transfer Chemistry, we aim to elucidate the electron transfer mechanisms of pharmaceuticals by integrating both electrochemical and computational approaches. Our research focuses on understanding how pharmaceuticals can control diseases at the molecular level and on uncovering the reaction mechanisms involved in biological processes and diseases. This is based on the idea that a wide range of physiological phenomena--from disease onset to pharmacological action--are energetically regulated by electron transfer associated with chemical reactions of biomolecules.

In addition, we are working on the development of electrochemically driven pharmaceutical manufacturing methods and modular production systems. Through the understanding and control of electron transfer mechanisms in pharmaceuticals, we aim to contribute to society.

研究課題 Research Objectives

  1. 薬物、天然物、および生体材料に対するスーパーオキシドの反応性に関する機構的研究
    Mechanistic study on the reactivity of superoxide toward drugs, natural products, and biomaterials
  2. プロトン電子共役移動反応の遷移状態理論とトンネル効果に関する電気化学的研究
    Electrochemical study of transition state and tunnel effect via proton-coupled electron transfer
  3. 生体内低分解性の抗ウイルス薬の開発に関する研究
    Study on the development of hypodegradable antiviral drugs in vivo
  4. 電気化学反応を利用したオンサイト型過酸化水素製造モジュールの開発
    Development of an On-site Hydrogen Peroxide Production Module Driven by Electrochemistry
  5. ポリフェノールのプロトン電子共役移動反応による Superoxide 消去に関する研究
    Study of the superoxide elimination by polyphenols through proton-coupled electron transfer.

最近の研究成果 Research Results

  1. Nakayama T., Effect of the phenyl substituent on two-proton-coupled electron transfer between hydroquinone and superoxide radical anion, Electrochemistry, 93, 6, p. 067001, (2025).
  2. Nakayama, T., Uno B., Electronic inductive and resonance effects of substituents on concerted two-proton-coupled electron transfer between electrogenerated superoxide and hydroquinone derivatives in N,N-dimethylformamide, Chemical Engineering Journal, 491, 152201, (2024)
  3. Nakayama, T., Reactivity of acetaminophen toward the superoxide radical anion electrogenerated in N,N-dimethylformamide, Journal of Electroanalytical Chemistry, 978, 118892, (2024)
  4. Nakayama, T., Uno B., Concerted two-proton-coupled electron transfer from piceatannol to electrogenerated superoxide in N,N-dimethylformamid, ACS Omega, 9, 23, 24889-24898, (2024).
  5. Nakayama, T., Electrochemical and digital simulation analyses of two-proton-coupled electron transfer between superoxide and hydroquinone: mechanistic insights and kinetic parameters, Chemistry Select, 9, 36, (2024).