Hiroya Abe
- 所属大学
- Tohoku University
- 部局
- Frontier Research Institute for Interdisciplinary Sciences
- 職名
- Associate Professor
- 関連領域
- Device and Technology
専門分野
Bio-inspired design, Electrochemical Bio-sensors, Electrocatalysts for energy devices
研究キーワード
Biomimetics
Electrochemistry
Polymer science
所属学会
電気化学会
高分子学会
分析化学会
化学とマイクロ・ナノシステム学会
応用物理学会
アメリカ化学会(Japanese associations of Electrochemistry, Polymer, Analytical Chemistry, and Micro- nano-system/ American Chemical Society)
研究テーマ
Bio-inspired devices and materials for energy and environmental sciences
研究概要
All living things have outstanding functions throughout the body. Because I am fascinated by the sophisticated functions of living organisms, my research aims to understand and mimic the functions of nature and beyond nature.
My research focuses on the fabrication of biosensors, polymeric materials, and energy devices based on electrochemistry and polymer chemistry. For example, we have succeeded in mimicking the functions of living things on a macro-scale, such as water repellency, oil repellency, foam repellency, and anti-microbial adhesion, by controlling the excellent surface wettability. We have also focused on the excellent oxygen adsorption ability of hemoglobin in humans, and have designed and synthesized similar oxygen adsorbent molecules, which have been applied as highly active oxygen reduction electrochemical catalysts for fuel cells.
Currently, I am working on the design of devices and materials that contribute to the energy and environmental fields beyond nature systems. For example, we are trying to design devices that combine "biomimetic hydrogels adhering to bio-tissues" and "measuring signaling molecules in the body" (neurotransmitters, hormones, nutrition, stress markers, etc.). We are also designing energy devices (charge/dischargeable metal-air batteries, fuel cells, capacitors) using biomimetic electrochemical catalysts.
My research focuses on the fabrication of biosensors, polymeric materials, and energy devices based on electrochemistry and polymer chemistry. For example, we have succeeded in mimicking the functions of living things on a macro-scale, such as water repellency, oil repellency, foam repellency, and anti-microbial adhesion, by controlling the excellent surface wettability. We have also focused on the excellent oxygen adsorption ability of hemoglobin in humans, and have designed and synthesized similar oxygen adsorbent molecules, which have been applied as highly active oxygen reduction electrochemical catalysts for fuel cells.
Currently, I am working on the design of devices and materials that contribute to the energy and environmental fields beyond nature systems. For example, we are trying to design devices that combine "biomimetic hydrogels adhering to bio-tissues" and "measuring signaling molecules in the body" (neurotransmitters, hormones, nutrition, stress markers, etc.). We are also designing energy devices (charge/dischargeable metal-air batteries, fuel cells, capacitors) using biomimetic electrochemical catalysts.