Our group studies the developments and mechanism elucidations of novel energy conversion systems. To achieve this objective, proper designs and understandings of materials at molecular scale are vital because they govern functions in macroscale. In the research, we use highly multidisciplinary approaches to understand and optimize the kinetics, dynamics, and equilibrium and structural properties of functional materials. The subjects we are presently pursuing relate to photon upconversion and thermoelectric conversion technologies, in which microscopic phenomena such as intermolecular energy transfer and diffusion of solute molecules in host material play essential roles. We have found that these subjects encompass vast unexplored areas because of our unique combination of basic science in molecular scale and engineering for macroscale. Our aim is to contribute to the enrichment of human society with explorations of new engineering frontiers spanning from microscopic to macroscopic domains.
Energy frontier for carbon-free future, Light conversion for renewable solar energy use, New concept all-solid-state batteries, Redox-flow thermal energy harvesting, Organic liquid-based thermoelectrics, Crystals with novel energy functions, Basic science and advanced measurements.
- Materials design and fabrication by experiments
- Steady-state and time-resolved spectroscopic and laser measurements
- Quantum-chemical simulations