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- Pure and Advanced Sciences of the Matter and Nature
Pure and Advanced Sciences of the Matter and Nature
Theoretical and experimental studies of the matter and nature;understanding the fundamental principles determining the properties and controlling the functions of the matter ; and application of these studies to the exploitation of new materials
Outline of Chair

Shinshu University and other groups have built a muon trigger system for the ATLAS Experiment, consisting of a total of four disk structures each measuring 22 meters in diameter constructed using 1600 units the size of a Japanese tatami mat.
The study of physics is an attempt to understand nature and explain its fundamentals by clarifying the laws that lie hidden within the many phenomena observable in the natural world.
Physics is not just the research of visual and tactile things around us in our everyday lives, but covers a broad range of topics from ultramicroscopic elementary particles to the largest of them all, the universe.
This chair carries out research and education, from the physics perspective, on clarifying, through theoretical and experimental research into the laws of nature, the principles that determine the functions and properties of matter, and on the application of the results of that research to the development of materials with new functions.
The chair covers the three fields of Quantum Physics of Condensed Matter, Elementary Particle and High Energy Physics, and Cosmic Ray Physics, and is currently being offered at the Matsumoto Campus (13 teaching staff), the Nagano Engineering Campus (2 teaching staff) and the Ueda Campus (1 teaching staff). Experimentation is used to construct theories (laws) based on a variety of observed natural phenomena, and then to test and verify the validity of each of those theories, the chair carries out research linking both theory and experiment. Physics is a universal study like math and chemistry, so in Cosmic Ray Physics we carry out experiments in cosmic ray observations utilizing the benefits that the Nagano landscape provides.
Research Fields
Quantum Physics of Condensed Matter - Research
Matter offers a place for the expression of a wide variety of quantum phenomena. The field of Quantum Physics of Condensed Matter is researched for the purpose of microscopic clarification of the electrical, magnetic, optical and mechanical properties of matter using quantum mechanics, statistical mechanics, electromagnetics and other disciplines.
Particularly in the case of novel properties of matter demonstrated under extreme environments, such as ultra-high pressure, ultra-cold temperature and intense magnetic fields, the mechanisms for expressing those properties and the universal physical laws hidden within are the subjects of experimental and theoretical research. Research and development is then carried out on materials science applications of those novel properties.
Elementary Particle and High Energy Physics - Research
In this field, theories and experiments are used to search for the smallest unit (elementary particle) used to form matter, and then research is carried out to clarify the forces and interaction involved in their movement.
On the theory side, research is carried out on the quantum field theory-based grand unified theory, supersymmetric theory, extra-dimensional theory, superstring theory and other theories, while research is also carried out on mathematical physics, which is the mathematical side of the study of physics.
On the experiment side, students are participating in the ATLAS group at the world’s largest LHC accelerator and in the development group at the next-generation ILC accelerator; research is being carried out on experimental verification of elementary particle theory and on the discovery of new particles using the accelerator; and new measurement apparatus are being researched and developed.
Cosmic Ray Physics - Research
In this field, experimental and theoretical research and education are carried out on high energy galactic cosmic ray modulation caused by solar activity.
High energy cosmic ray data and a wide variety of other data about solar, solar-wind plasma and interplanetary space magnetic fields, etc., collected through observation of radio waves from man-made satellites and terrestrial installations, are organically combined and analyzed, and research is then carried out on variations in solar movement and average structures of near-earth space environments and galactic magnetic fields near the heliosphere.
Students are also involved in joint research with the Solar-Terrestrial Environment Laboratory of Nagoya University and the Institute for Cosmic Ray Research of the University of Tokyo, and in international joint research for the purpose of furthering Shinshu University’s own measurements of global cosmic rays.
Teaching and Research Faculty
Mitsuo Takeda
Professor
Quatum Physics of Condensed Matter
Mutual quantum manipulation of radiation field and matter,and development of optical device and apparatus
Masahiko Higuchi
Professor
Quatum Physics of Condensed Matter
Electronic structure and Fermi surface of condensed matters
Yasushi Amako
Professor
Quatum Physics of Condensed Matter
The study of the magnetism of rare earth intermetallics under high pressure of low temperature using NMR method, and the exploitation of new magnetic materials
Keiji Sawada
Professor
Quatum Physics of Condensed Matter
Spectroscopic Studies of Fusion Plasmas
Hisashi Shimizu
Associate Professor
Quatum Physics of Condensed Matter
The analysis and the function of materials in limiting environment (high pressure,low temperature or high field)are studied.The mechanical,thermodynamic,electromagnetic and optical properties for transition metals, alloys and compounds are investigated by use of the theroy for electronic structure of solid.
Miho Nakashima
Associate Professor
Quatum Physics of Condensed Matter
Experimental studies of mechanisms of magnetism, magnetic sutructures and interactions in magnetic materials around rare earth compounds under extreme conditions such as high pressure and low temperature.
Hiromichi Adachi
Associate Professor
Quatum Physics of Condensed Matter
Magnetic materials, magnetic x-ray scattering
Fumiaki Miyamaru
Assistant Professor
Elementary Particle and High Energy Physics
Research for physics of electromagnetic wave and developments of technology of optics.
Tohru Takeshita
Professor
Elementary Particle and High Energy Physics
Studies on high energy interactions in the early universe
Yoshiharu Kawamura
Professor
Elementary Particle and High Energy Physics
Studies on a fundamental structure of nature based on relativity, astrophysics, high-energy physics, quantum gauge theory and superstring theory
Satoru Odake
Professor
Elementary Particle and High Energy Physics
Studies on advanced quantum field theory, elementary particle physics and mathematical physics
Kazumi Okuyama
Assistant Professor
Quatum Physics of Condensed Matter
Research on the fundamental law of Nature based on superstring theory and quantum field theories
Toru Misawa
Associate Professor
Elementary Particle and High Energy
Observational astronomy for the purpose of studying physical properties of quasars, intergalactic medium, and interstellar medium,based on spectroscopic observation in ultra-violet, optical, and infrared band
Yoji Hasegawa
Associate Professor
Elementary Particle and High Energy Physics
Experimental results of interactions of high energy elementary particles and heavy ions are compared with predictions of various theories of the elementary particle physics and the nuclear physics.In addition,the problems of the generation of dimensions,forces and materials at the very early universe and some problems of the cosmology are comprehensively discussed.
Kazuoki Munakata
Professor
Cosmic Ray Physics
Experimental and theoretical studies on the high energy galactic cosmic ray modulation in the heliosphere
Chihiro Kato
Associate Professor
Cosmic Ray Physics
The Sun is playing major role to create an environment of heliosphere. Thus, cosmic ray intensity is naturally-expected to varies because of solar activity.We discuss about physical condition in the heliosphere and near Earth based on analysis of cosmic ray intensity variation and solar plasma data.