Many phenomena in chemistry and life sciences progress through the exchange of electrons. In addition to chemical redox reactions, many redox reactions occur all the time in batteries and electrolysis, and even in the cells of animals and plants. There are also many fascinating phenomena involving light, such as photosynthesis and photocatalysis. We will deepen our understanding of these phenomena from the perspective of what energy is.

In Organic Chemistry D, you will learn about the carbonyl group, which is the most important functional group. You will understand the reactivity of aldehydes, ketones, esters, carboxylic acids, amides, etc. In addition, by learning about the oxidation-reduction reactions and carbon-carbon bond formation reactions of these compounds, you will be able to perform organic synthesis to synthesize molecules with complex structures from molecules with simple structures. The focus is on understanding the reaction mechanisms of various reactions.

In Life Science B, you will gain an in-depth understanding of the central principle that governs life phenomena, the "central dogma." The central dogma refers to the basic principle by which genetic information is transmitted from DNA to RNA and then to proteins. This is a mechanism common to all living organisms on Earth, including humans. The goal of this course is to gain a deeper understanding of the functions of the molecules that are important in the replication of DNA and transcription into RNA that takes place in the nucleus of a cell, and the translation into proteins that takes place in the cytoplasm.

In the material analysis chemistry experiment, we conduct quantitative analysis experiments in aqueous systems, which are the basis of chemistry experiments. With the aim of acquiring quantitative handling methods for substances and understanding the basic concepts of measurement, students practice basic operations such as dissolution, filtration, constant weight operations, and titration. We also conduct quantitative experiments on vitamins contained in foods such as oranges and spinach, and conduct analytical training to experience "chemistry related to real life."

We conduct research into the synthesis of materials based on rational molecular design techniques using electronic state theory, and into physical organic chemistry with the aim of elucidating physical properties. In particular, we are working on the synthesis and physical properties of functional molecules such as photochromic molecules with optical functions and organic radicals with spin functions.

In the Laser Photochemistry Laboratory, we use light called lasers to investigate the shapes and changes of molecules that are too small to be seen with the naked eye. How much can we learn about biomolecules using experimental methods from physical chemistry? We are also trying to elucidate the reactions of drug molecules that cause side effects.

Life phenomena occurring within cells and living tissues are maintained by an accumulation of complex chemical reactions. We aim to unravel these mysteries one by one, making full use of knowledge of organic chemistry, physical chemistry, and biochemistry, as well as nanotechnology. We will combine the knowledge gained with photoreactions and radiation chemical reactions to create new therapeutic and diagnostic drugs with fewer side effects. In the Bioanalytical Chemistry Laboratory, we are developing highly original new medical materials based on an understanding of life phenomena, through seamless experiments from organic synthesis to animal testing.

Through research using fish as a model, we are elucidating the principles of human brain function and the mechanisms of disease onset. By understanding the brain, we will propose the wisdom necessary for humans to live happy, human lives.

Nanocarbons such as fullerenes and nanotubes exhibit a wide variety of structures and properties. We consider new nanocarbon structures and predict their electronic states through theoretical calculations. From beautiful patterns and interesting shapes, we find the rules that determine whether they will become metals or semiconductors, and the possibility of them exhibiting magnetism or superconductivity. The world of nanocarbons allows theoretical research that is one or even two steps ahead of experiments. We continue to explore new possibilities, looking forward to the day when nanocarbons born from our imaginations will appear in situations that we cannot even imagine today.