Kouji Nakanishi
Professor | Ph.D. in Science
Field of Synchrotron Radiation Engineering
Field of Synchrotron Radiation Engineering
Kouji Nakanishi's research lies at the intersection of synchrotron radiation and next-generation energy technology, applying beam technology and materials analysis to the development of lithium-based devices. Combining this specialized expertise with experience in mechanical systems, he brings hands-on experimental practice into his teaching within the School of Engineering and Graduate School of Engineering.
Research on synchrotron radiation, next-generation technology, analysis, batteries, reactions, and optics
What students can learn
In this laboratory, students gain hands-on experience with X-ray and spectroscopic techniques used to probe the reactions taking place inside lithium batteries, learning to interpret synchrotron radiation data and apply it to the analysis of next-generation battery materials. Along the way, they develop skills in experimental design, data interpretation, and the clear communication of technical results.
This research theme investigates the reactions that occur within lithium batteries, applying synchrotron radiation, X-ray techniques, and spectroscopic analysis to study next-generation battery materials in detail. By linking these fundamental physical principles to practical engineering applications, the work aims to contribute to advances in battery technology, while also sharpening students' ability to define problems, evaluate evidence, and propose workable solutions.
Research on synchrotron radiation, beam technology, analysis, development, and optics
What students can learn
Working on this theme, students build practical expertise in beam technology and vacuum systems, learning how synchrotron radiation and X-ray sources are designed, controlled, and analyzed as mechanical systems. Through this process, they develop experimental and analytical skills together with the ability to communicate technical findings clearly.
This research theme centers on synchrotron radiation and beam technology, examining how the mechanical systems, control methods, and vacuum technology that generate and shape X-ray beams are designed and analyzed. By connecting these fundamental principles to practical engineering challenges, the work aims to contribute to the advancement of beam technology, while also strengthening students' ability to identify problems, weigh evidence, and devise practical solutions.
