Department of Physics
Education and research cover both pure and applied physics; they range from small extremes (elementary particles and atomic nuclei), through intermediate varieties (quantum-dots, carbon nano-tubes, and semi-conductors), to large systems (stars and the universe). The department has set up two advanced courses in Natural Science and Material Science. Students choose their majors among 7 fields covered by the two courses: theoretical physics, nuclear physics, and astroparticle physics of the Natural Science course; and semiconductor physics, quantum electronics, condensed matter photophysics, and condensed matter and measurements of the Material Science course. Students receive detailed guidance to acquire the special experimental and/or theoretical skills necessary for their majors.
It is our goal to cultivate young people in such a way that after graduation they are capable of playing an active role not only in the natural sciences and advanced industrial science & technologies (especially information and telecommunication), but also in every possible field of society. Toward this goal, students take compulsory subjects of basic physics (classical mechanics, electromagnetism, and quantum mechanics) and physics experiments. These subjects are taught in multiple classes in order to help individual students master the basic knowledge and methodology of physics. In addition, graduation research carried out in labs is defined as a compulsory course as well, in which students take a whole year to experience one cycle of planning, conducting, and assessing to acquire the ability of finding, understanding and solving problems. This practical and intensive education system is designed to meet the various needs of society. It also encourages more and more students to advance to the graduate school for acquiring even higher levels of knowledge and skills.
|Name||Title||Field of Research||Subject of Research|
|UMEZU, Ikurou||Professor||Semiconductor Physics, Materials Science||Semiconductor nano-technology. Laser processing. Materials science. Biocensor.|
|KOBORI, Hiromi||Professor||Solid State Physics||1) Spin-Dependent-Transport Phenomena in Spintronics Materials.
2) Cross-Correlation in Multi-Ferroic Materials.
3) New Function Search for Nano-Materials.
4) Metal-Insulator Transition in Strong-Electron-Correlation Materials.
|AKIMUNE, Hidetoshi||Professor||Nuclear Physics||Cluster structure in highly excited nuclei. Study of nuclear structure with laser-compton scattered gamma-rays.|
|AOKI, Tamao||Professor||Solid State Spectroscopy||Spectroscopic Study of Single Crystals and Micro Crystallites of Aromatic Molecules.|
|ICHIDA, Masao||Professor||Opto and Quantum Electronics||Studies on optical nonlinear phenomena in low-dimensional materials and their applications to optical devices.|
|YAMAMOTO, Tokonatsu||Professor||astro-particle physics||High-Energy phenomenon in the Universe.|
|SUSA, Hajime||Professor||Astrophysics||Theoretical studies on the formation of first generation stars/galaxies.|
|YAMASAKI, Atsushi||Professor||Solid State Physics||Spectroscopic study of bulk electronic structures in strongly correlated electron systems. Magnetic imaging of nanostructures by using Photoemission electron microscope.|
|TAKAYOSHI, Shinntaro||Associate Professor||Solid State Physics||Theoretical study of dynamical phenomena in materials induced by laser irradiation.|
|Associate Professor||X-ray and gamma-ray astronomy||
Study of high energy universe using astronomical satellites and telescopes.
|Associate Professor||Physics of accelerator and exotic nuclei||Development of high power accelerators for the various fields such as physics, engineering, medicine, chemistry, and pharmacy.
Experimental studies of stable and unstable nuclei.