[Precise arrangement toward functionality] Year Started : 2021

Yasuhiro Ohki

Electron Transfer Networks of Transition Metal Cluster Complexes for Catalytic Applications

Grant No.:JPMJCR21B1
Research Director
Yasuhiro Ohki

Professor
Institute for Chemical Research
Kyoto University

Collaborator
Ken’ichi Kimijima Associate professor
Institute of Materials Structure Science
High Energy Accelerator Research Organization
Yumiko Nakajima Professor
School of Materials and Chemical Technology
Institute of Science Tokyo
Yumiko Nakajima Specific fellow
Interdisciplinary Research Center for Catalytic Chemistry
National Institute of Advanced Science and Technology (AIST)
Outline

Electron-transfer is one of the fundamental functions of proteins, where 1D-arrayed metal complexes are often employed for efficient charge transfer. The purpose of this research project is to break the limit of natural electron-transfer systems and to facilitate multiple-electron reactions such as the direct conversion of CO2 into hydrocarbons. In order to exceed the 1D-systems of proteins, we will develop 2D electron-transfer networks from composites of transition metal cluster complexes and solid supports with systematic arrays of metal-binding groups (PMO). Both cluster complexes and PMO will be newly designed and synthesized, and their composites will be applied as catalysts for energy-conversion reactions driven by electricity. We convince the scientific community that electron-transfer networks are useful tools for multiple-electron reactions.

Ryuji Kawano

Construction of a nanopore with de novo desgined peptides

Grant No.:JPMJCR21B2
Research Director
Ryuji Kawano

Professor
Institute of Engineering
Tokyo University of Agriculture and Technology

Collaborator
Kenji Usui Associate Professor
Faculty of Frontiers of Innovative Research in Science and Technology
Konan University
Izuru Kawamura Professor
Faculty of Engineering
Yokohama National University
Outline

Nanopore measurement is a technique to measure a single molecule precisely and electrically. In this study, we construct peptide nanopores with artificially designed amino acid sequences, so-called de novo design, which will enable us to measure and control the transport of various molecules.

Nobuyuki Zettsu

Control of multi-level structures formed at solid/liquid electrochemical interface

Grant No.:JPMJCR21B3
Research Director
Nobuyuki Zettsu

Professor
Department of Materials Chemistry
Shinshu University

Collaborator
Michihisa Koyama Professor
Research Institute of Supra-Materials
Shinshu University
Yuki Nagao Professor
School of Materials Science
Japan Advanced Institute of Science and Technology
Outline

We will develop new technologies to control multi-level organized atomic/molecular structures based on the energy landscape architectonics, for dynamics control of ion transport at solid/liquid electrochemical interface. To contribute the achievement of strategic goals, our team will demonstrate the followings via experimental and theoretical calculation approaches. (1) “utilization of the semi-stable phase interface by increasing the configuration entropy” brought about by multi-elements, and (2) “utilization of a dynamic continuum medium in which the periodicity of stabilized heterogeneous potential and hierarchical structure” which is provided by the characteristics of lyotropic liquid crystalline polymers with their polymolecularity and their orientational control.

Toshiharu Teranishi

Creation of unprecedented nanomaterials by precious arrangement of atomic layers and crystal phases

Grant No.:JPMJCR21B4
Research Director
Toshiharu Teranishi

Professor
Institute for Chemical Research
Kyoto University

Collaborator
Yasutomi Tatetsu Senior Associate Professor
Faculty of Human Health Sciences
Meio University
Outline

Non-equilibrium ionic crystal and ordered alloy nanoparticles are effectively synthesized by controlling the atomic layer arrangements using ion exchange reactions and introduction of foreign elements with the aid of first-principles calculation, and used to explore the novel catalytic and optical properties. Then, the mesoscopic three-dimensional superstructures are fabricated by precisely controlling the crystal phases, aiming to discover the novel concerted functions that first emerge by assembly of crystal phases.

Takuya Matsumoto

Neuromorphic molecular network system

Grant No.:JPMJCR21B5
Research Director
Takuya Matsumoto

Professor
Graduate School of Science
Osaka University

Collaborator
Hirofumi Tanaka Professor
Graduate School of Life Science and Systems Engineering
Kyushu Institute of Technology
Shusaku Nagano Professor
College of Science
Rikkyo University
Outline

Neural network information processing by aligned molecular network embedding molecular neuromorphic function cores was proposed. The precisely controlled physical properties of the core are modulated through random network and then produce manifold on the response. Letter and voice recognition will be attempted by classification using molecular neural networks.

Quick Access

Program

  • CREST
  • PRESTO
  • ERATO
  • ACT-X
  • ALCA
  • CRONOS
  • AIP Network Lab
  • Global Activities
  • Diversity
  • SDGs
  • OSpolicy
  • Yuugu
  • Questions