Structure and function of the cell will be described in this lecture. Molecular structure and function of carbohydrates, lipids, proteins, and nucleic acids will be discussed.

This lecture aims to describe gene structure, cell signaling, regulation of gene expression, and recombinant DNA technology.

Students are expected to learn basic recombinant DNA techniques including gene isolation, DNA purification, and gene cloning.

Students are expected to learn cellular energetics, traffics of proteins and materials, signal transduction, cellular organization, movement, and tissue formation.

With the advancement of life sciences, the significance of intellectual property rights has become inevitable. Therefore, this course will provide basic information on intellectual property rights in the field of life sciences. Students will get the first hand information on search skills of prior art and patent filing strategies through the course.

This course is designed to introduce student to basic immunology and to give them an understanding of the process involved in immune reactions, concentrating on the central areas of immunology, namely, immune recognition, cooperation between immunologically active cells and development of immune reactions.

The goal of this course is to provide a contemporary overview of neural development for undergraduate students. The objective of this course is to understand various aspects of neural development at molecular and cellular levels. It contains developmental genetic program, control mechanisms of neuronal differentiation, specification and neuronal cell fate, and neuronal cell death.

This course deals with the major metabolic pathways for carbohydrates, lipids, amino acids, and nucleic acids. Emphasis will be on the regulation and interrelationships of the pathways.

This course helps student understand the molecular basis of life processes. This course mainly deals with control of gene expression and biomembrane functions.

Bioenergetics and metabolism course is designed to study of the molecular mechanisms in bioenergetics and metabolism. This course covers the principles of bioenergetics, the reactions and pathways of carbohydrate and lipid metabolisms, oxidative phosphorylation, and signaling transduction mechanism.

Students are expected to learn cellular energetics, traffics of proteins and materials, signal transduction, cellular organization, movement, and tissue formation.

This course explores the physicochemical characteristics and purification methods of proteins.

Systems biology is an academic field that seeks to integrate different levels of information to understand how biological systems function. By studying the relationships and interactions between various parts of a biological system it is hoped that eventually an understandable model of the whole system can be developed. This course in systems biology is intended to initiate the student to view the living organisms as a system.

This course is for students who wishes to design and perform experimental research. This course amis for undergraduate students to enhance their research power by performing numerous related experiments as well as the acquisition of their underlying principles. The students are expected to understand how a piece of textbook knowledge can be obtained through experiments. This course will provide a background to aid the students to become an independent scientist in the future.

In this course, students will learn the biosynthetic pathways of various biomolecules, such as amino acids, nucleotides, and membrane lipids. Students will also learn how the anabolic pathways are controlled.

This lecture aims to describe the structure and function of the nervous system that determines the behavior of living organisms.

This course is intended for students who wish to learn various experimental techniques and methods that are currently used to analyze the structure and function of the macromolecules, such as proteins, which are key components of living organisms.

This lecture aims to understand various topics in life science field including recent hot research issues, pandemic diseases, status of the art in biological research and application, modern technology and instruments.

Through seminars presented by speakers with expertise in diverse life sciences, students get vision of integrated biochemistry and biotechnological fields, learn current status of arts in specific fields, and recognize trends and activities of biocompanies.

This course is for students who wishes to design and perform experimental research. This course amis for undergraduate students to enhance their research power by performing numerous related experiments as well as the acquisition of their underlying principles. The students are expected to understand how a piece of textbook knowledge can be obtained through experiments. This course will provide a background to aid the students to become an independent scientist in the future.

Students are expected to learn theories and backgrounds of physical chemistry that are required to understand biochemistry.

In this course, students will get information on diverse viruses. Specifically, they will learn about virion structures, organization and expression of viral genomes, and functions of viral proteins. Students will also learn about viral diseases and how to prevent them.

By studying basic concepts and application in stem cells, cell therapy, and regenerative medicine, students understand properties of stem cells and niche, current status of cell therapy, and currently issued concepts and the status-of-art in regenerative medicine.

This lecture aims to study basic knowledge and skills for the commencement of biocompanies. The lecture will include systematic thinking for a good management, strategies for marketing, good manufacturing practice, management of a company, financial management and funding.