Phase Interfaces for Highly Efficient Energy Utilization

Strategic Objects

To realize breakthroughs in phase-interface phenomena that will result in dramatic advancements in high-efficiency energy usage and to create basic technologies for high-functionality interface.

Research Supervisor


Katsunori Hanamura (Professor, School of Engineering, Tokyo Institute of Technology)

Year Started

2011

Outline

The primary goal of this research area is to greatly advance fundamental science and technology, which include exploration of phase-interfacial energy conversion/transport phenomena and creation of high-performance phase interfaces, in order to achieve ever more efficient energy utilization and thus to realize an enriched sustainable society.
Specifically, we take up the challenge of creating phase interfaces with significantly reduced energy losses and/or those for highly efficient energy use by deepening fundamental theory and control/optimization methodology of phase interface phenomena. To accomplish these goals, it is indispensable to establish analytical and design techniques integrating nano-, meso- and macro-scales, as well as theoretical methods for the control and optimization of phase interface structures.
Furthermore, it is important that the results of such cutting edge fundamental research should be transferred and effectively applied to the design of real equipment and systems, leading to dramatically improved performance, reduced carbon emissions and lower costs. The ultimate goal of this research area, therefore, is to elucidate energy conversion and transport mechanisms at phase interfaces in order to enable highly efficient energy use; to develop measurement, modeling and simulation methods for integrative analysis and design of phase interface phenomena at multiple scales; to establish mathematical methods for the control and optimization of phase interface structures; and to realize highly functional phase interfaces that allow for theoretically possible maximal performance in actual devices and equipment. To meet these goals, we encourage integrated challenges that go beyond the bounds of existing scientific disciplines and combine the knowledge gained in different fields.

Assistant Supervisor


Kazuhito Hashimoto (Professor, School of Engineering, The University of Tokyo)

Year Started : 2012

Ken-ichi Uchida
Assistant Professor, Tohoku University
Creation of Innovative Energy Device Technology Based on Spin Currents.
Takashi Okubo
Associate Professor, Kinki University
Development of Hybrid-Interfaces Based on Ferroelectric Coordination Polymers, and its Application to Photovoltaic Devices.
Kobayashi Atsushi
Assistant Professor, Hokkaido University
Development of a self-assembled super-nanocrystal photocatalyst.
Sang Liwen
ICYS-MANA researcher, National Institute for Materials Science
Multi-band engineering of III-Nitride for high efficiency photoelectricity energy conversion devices.
Sakae Takenaka
Associate Professor, Kyushu Univeristy
Development of highly active and durable electrocatalysts by coverage with metal oxide layers.
Shohji Tsushima
Associate Professor, Tokyo Institute of Technology
High Efficient Flow Battery with Intensive Utilization of Electrode-Electrolyte Interface.
Tsuyoshi Totani
Associate Professor, Hokkaido University
Wavelength Control of Radiation using Micro Structure with Metal Film.
Katsuhiro Tomioka
PRESTO Researcher, Japan Science and Technology Agency (JST)
Development of novel hydrogen-generating devices and low-power switch using new semiconductor heterointerfaces.
Masanobu Nakayama
Associate Professor, Nagoya Institute of Technology
Lithium dynamics at two phase boundary in electrode materials for lithium ion battery.
Satoshi Nihonyanagi
ASI Research Scientist, RIKEN
Development of an extreme nonlinear spectromicroscope for buried material interfaces.
Takuya Masuda
Special Scientist, National Institute for Materials Science
Investigation of the oxygen reduction reaction mechanism by in situ solid/liquid interface XPS .

Year Started : 2011

Katsuyoshi Ikeda
Associate Professor, Hokkaido University
Dressed photon-assisted photochemistry at well-defined interfaces.
Kohei Ito
Professor, Kyushu Univeristy
Experimental exploration of critical mass transport at triple phase boundary in high-pressure water electrolysis.
Koji Kita
Associate Professor, The University of Tokyo
Interface Engineering for High Performance SiC MOSFETs with Low On-state Resistance.
Junichiro Shiomi
Associate Professor, The University of Tokyo
Development of environmentally friendly thermoelectric semiconductor using nanostructure interfaces.
Naoya Shibata
Associate Professor, The University of Tokyo
Development of atomic-resolution electromagnetic field imaging electron microscopy for interface analysis.
Koji Sekiguchi
Assistant Professor, Keio University
Development of Ultra-low Power Consumption Magnon-device.
Yoshitaka Tateyama
Group Leader, National Institute for Materials Science
First-principles statistical mechanics on charge transfer and excitation processes at interfaces of solar cells and photocatalysts in operation.
Kohei Miyazaki
Assistant Professor, Kyoto University
Triple-Phase Boundaries of Bifunctional Cathodes for Metal-Air Secondary Batteries.
Keiji Yashiro
Senior assistant professor, Tohoku University
Innovative design of electrochemical functional interface for efficient energy conversion systems.
Satoshi Yasuda
Lecturer, Hokkaido University
Programmable Synthesis of Highly Catalytic Active Site using Molecular Self-assemby.
Takuma Yasuda
Associate Professor, Kyushu Univeristy
Development of Organic Electronic Devices Utilizing Mesoscopic Superstructures of Liquid-Crystalline Semiconductors.

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