Creating New Materials Through Atomic-Level Insight
Explaining chemical phenomena at the level of electrons and atoms not only creates new academic fields and concepts, but also leads to the creation of novel functional materials. Research conducted at the department includes (1) Analysis of the motion and reaction mechanisms of electrons and atoms in the microscopic world; (2) Creation of novel nanomaterials such as nanoclusters and low-dimensional materials; and (3) Understanding phenomena unique to material surfaces at the atomic level to create next-generation functional materials.
Making Novel Materials a Reality Through Chemistry
One of the vital roles that chemistry plays lies in creating materials that enrich our lives, such as next-generation information and communication technologies and advanced energy applications. As well as research on nanocatalysts, organic semiconductors, and luminescent materials, research conducted at the department includes (1) Development of nanomaterials enabling ultra-high-speed, high-density magnetic recording; (2) Development of ultra-high-sensitivity sensors and environmental decontamination systems using diamonds; and (3) Creation of organic solar cells and energy conversion catalysts.
Mastering the Catalysts That Control Chemical Reactions
By utilizing organometallic complexes as catalysts, it is possible to synthesize useful compounds that cannot be obtained through conventional organic synthesis. Research conducted at the department includes (1) Developing reactions essential for synthesizing pharmaceuticals and functional materials; and (2) Developing catalysts that enable reactions between normally inert substances. Additionally, we are conducting research on reactions utilizing carbon dioxide and simplified methods for developing organic electronic materials.
Tackling the Mysteries of Life with the Power of Chemistry
Unraveling biological phenomena at the molecular level not only drives new developments in biochemistry but also leads to the creation of new drugs and treatments. Research conducted at the department includes (1) Investigation of immune system mechanisms through the synthesis and analysis of microbial-derived compounds; (2) Development of pharmaceuticals utilizing bioactive substances derived from marine organisms; and (3) Investigation of intracellular copper ion transport pathways regulated by proteins and their application to developing treatments for neurodegenerative diseases.