Department of Physical Sciences | Aoyama Gakuin University

DEPARTMENT OF PHYSICAL SCIENCES
DEPARTMENT OF PHYSICAL SCIENCES
SAGAMIHARA CAMPUS

From atoms to the universe, going beyond cutting-edge research.
Let's advance science around the world.

MOVIES

FEATURES

A wide range of research areas to satisfy diverse interests

The program covers a wide range of physics, from astrophysics and condensed matter physics to biophysics, allowing students to study a wide range of subjects according to their interests.
Faculty members active on the world stage and comprehensive research facilities

Each laboratory is fully equipped with research facilities such as experimental equipment and large computers. For graduation research in the fourth year, students will use these facilities to tackle cutting-edge research themes.
Steadily develop basic physics skills through a wide range of exercises and experiments

The laws of nature have been established through numerous experiments, and we offer a wide range of experimental subjects so that students can experience these laws for themselves.
Develop your skills as a data scientist

You will acquire the skills necessary for cutting-edge research in data science, including AI and big data.

PICK UP LECTURES

Physics Experiments I and II

This class allows students to gain hands-on experience of the concepts and phenomena they have learned in lectures. Students will learn a wide range of topics, from how to use the equipment necessary for cutting-edge research to analytical methods. Topics include high-temperature superconductivity, X-ray diffraction, microwaves, gamma rays, numerical relativity simulations, and pulse meter circuits. Students will be divided into small groups for each topic and will conduct experiments with specialized instructors.
Quantum Mechanics I

This course covers the basics of quantum mechanics, which is the backbone of modern physics and an essential concept and computational tool for understanding cutting-edge natural science. In particular, the course aims to build a foundation in quantum mechanics by understanding (i) the concept and necessity of quantum mechanics, (ii) how states are represented by waves and the "wave nature/particle nature," and (iii) the computational methods of quantum mechanics.
Theory of Relativity

Special relativity is essential for understanding high-energy astronomical phenomena such as gamma-ray bursts and gravitational wave emitting objects. This course will focus on its basic principles, the special principle of relativity and the principle of the constancy of the speed of light. In addition to basic topics such as clock slowing, Lorentz contraction, and the relativistic Doppler beaming effect, students will learn about the relativistic equations of motion, which are mathematical expressions of the special principle of relativity, and the covariance formula of Maxwell's equations of electromagnetism.
Biophysics

Students will learn about the phenomenon of life as revealed by a physical perspective and approach, and the essential differences between life and matter. They will learn about the structure and function of proteins, which are the building blocks of living organisms, and the intracellular systems that express specific functions within cells, with the aim of deepening their understanding of the phenomenon of life.
Computer Programming Exercises

Students will learn programming skills to perform calculations frequently used in physical science research using the programming language C. The goal is to become able to perform simple numerical analysis and simulations. The skills acquired will be used in analyzing data in specialized experiments and in carrying out graduation research.
Latest Physics Lectures

This omnibus-style lecture will be given by multiple faculty members who specialize in research in the field of physical sciences and are active at the forefront of their respective research fields. You will be able to learn about the details and atmosphere of laboratories and research sites, cutting-edge research themes, and how to approach them. This is a great opportunity to gain preliminary knowledge about the research you will be working on in Graduation Research I and II, which will be the culmination of your university studies.

Features of Major Subjects

LABORATORIES

High Energy Astronomy/High Energy Astrophysics (Yamazaki Ryo Laboratory)

What comes to your mind when you hear the word "universe"? Many people probably think of shining stars, galaxies, and cold, empty space. However, this is only one side of the universe. The universe observed with X-rays and gamma rays is actually a turbulent world accompanied by supernova explosions, the birth of black holes, and high-energy cosmic rays. We aim to elucidate the mysterious phenomena occurring in the universe through theoretical research using X-ray and gamma-ray observations and supercomputers.

Solid State Physics (Superconductivity) (Junichi Shimoyama Laboratory)

The origins of "superconductivity" are a very complex phenomenon, but the properties that emerge are relatively simple. Its most notable property, zero electrical resistance, is used in superconducting linear motors, MRI devices used in hospitals, and more recently in power transmission cables. Many people also know that it can be used to play with mysterious magnetic levitation. The unfortunate thing is that it cannot be used unless it is cooled to an extremely low temperature of around -200°C. Research into easier-to-use superconductors and materials is difficult, but it is a very promising endeavor.

Biophysics, single molecule biology research (Michio Tomishige Laboratory)

In our bodies, tiny nanometer-sized molecules perform various tasks to maintain life. Among them are proteins called molecular motors that transport newly created substances, moving as if walking on two legs along rails. Using a highly sensitive microscope, we can directly observe these molecules in action. Biomolecules also function according to the laws of physics, and understanding their mechanisms may not only bring us closer to the mysteries of life, but may also lead to the creation of nanomachines.

Laboratory Introduction