교과목해설

This lecture is an introductory course to acquire the ability to understand and utilize biomedical. It introduces the bio-health industry and covers its current and future importance. We will learn how knowledge and technology in biomedical engineering led to the development of the bio-health industry.

Based on knowledge of chemistry and biology, this course introduces major principles and basic theories in the field of biomedical. This lecture deal with the use of biomedical technology for the present and future of humanity and the academic value that the field of biomedical engineering has on human life.

This course introduces the basic concepts of cell biology, such as cell composition and metabolism with background knowledge of cell evolution, chemistry, and research methods. This lecture helps students recognize the importance of cell biology by learning about the structure and function of cells, such as the nucleus, organelles, cytoskeleton, plasma membrane, and extracellular matrix.

This lecture introduces the chemical components of cells and the structure and function of major cellular organelles. Building on this, this class covers cell research techniques such as cell culture, cell morphological observation, functional analysis of cells, and gene expression analysis, as well as applications including cell and gene therapy and stem cells.

This lecture introduces basic concepts such as types, structures, morphology, classification, metabolism, genetics, and ecology of microorganisms to understand their characteristics and functions, and their location and role in the biosphere, and to apply them to agriculture, medicine, the environment, and the food industry.

This lecture provides basic knowledge on the principles of inheritance, such as Mendel's principles of genetics, sex determination, gene linkage, chromosome mutation, and genetic mapping at the chromosomal level, and the chemical properties of genes, replication and recombination of genes, transcription and expression of genes at the molecular level.

To understand the organic compounds composing living organisms, we will learn about bonding, molecular structure, nomenclature, chemical properties, reaction principles, and stereochemical characteristics of aliphatic and aromatic hydrocarbons.

Based on basic knowledge of the properties and principles of organic compounds that make up living organisms, this lecture covers the properties, types, reactivity, and synthesis of organic compounds with functional groups.

This course covers the basic concepts of analytical chemistry used in biomedical engineering. It covers basic statistical methods for processing collected data, acid/base and redox theories, buffer solutions and buffering, chemical equilibrium, acid-base titration, qualitative and quantitative analysis techniques for biological substances, and the basic principles of electrochemistry.

This course will provide basic practical training that biomedical majors should learn in the introductory course. We can practice basic experimental courses such as experimental safety education, microscopy, understanding cell morphology and function, analyzing the diversity of the biological world, and improving related experiences and problem-solving skills.

This lecture introduces the basic principles of various instrumental analysis methods used in the analysis of DNA, RNA, proteins, etc. in the field of biomedical, as well as the types and characteristics of analysis equipment, and helps students acquire and understand analytical methods using analysis equipment.

This course is designed to help students decide on their majors and analyze their aptitudes and the field of biomedical in detail. It motivates students to study the major by helping them identify career paths and employment fields related to the major. The main contents consist of aptitude and competency tests, major and career paths, career exploration, and employment strategies.

This lecture introduces the basic knowledge of animal cell culture and provides an understanding of the theoretical principles that are utilized and applied in actual culture. It provides an understanding of the equipment, culture procedures, and aseptic techniques used in cell culture, and addresses the importance of modern cell culture research.

This lecture introduces the composition of the immune system, the functions of immune cells, and the molecular mechanisms of immune responses. Based on this, we will understand the importance of the immune system in the development of diseases such as inflammatory responses, autoimmune diseases, and cancer.

This course aims to explain how organisms function by understanding the various functions of cells at the molecular level. We will analyze DNA, RNA, and proteins at the molecular level, and learn about experimental manipulation of genes, DNA replication, and the mechanism of transcriptional regulation.

This course provides an understanding of how living organisms function at the molecular level. It covers in-depth knowledge and cutting-edge research trends in molecular biology by understanding the main principles of molecular biology, gene expression control mechanisms and analysis methods, protein synthesis mechanisms and structures and function of proteins, and DNA recombination.

Biochemistry deals with the chemical structure and properties of biomolecules such as proteins, nucleic acids, carbohydrates, and lipids that makeup living organisms, as well as their biological functions. It also covers basic knowledge in the field of life sciences, such as the decomposition and synthesis of biological substances, the conversion of chemical energy, and the storage and transmission of genetic information.

This lecture introduces the important fundamental principles of intracellular metabolism, covers the biosynthesis and degradation of biological substances through metabolic reactions, control mechanisms of metabolism, and chemical energy production processes, and provides an understanding of the relationship between genetic defects in metabolic pathways and human diseases.

This course introduces the structure and function of each tissue and organ that makes up the human body. It covers the physiological aspects of physical and chemical life phenomena that sustain the vital activities of the human body, and focuses on the functions and control mechanisms of each system.

This lecture introduces the intracellular signaling system that regulates cell differentiation, growth, metabolism, and physiological functions in response to changes and stimuli outside the cell. The interaction between components of the signaling pathway will also be discussed in detail.

This lecture introduces the experimental techniques of biochemistry commonly performed in the field of life science based on the basic principles of biochemistry and helps students acquire experimental techniques by understanding the principles of separation and analysis of biological substances. This course covers experimental techniques for qualitative and quantitative analysis of proteins, nucleic acids, carbohydrates, and lipids, and experiments on measuring enzyme activity.

This course covers the basic knowledge and principles of animal cell culture, inculding how to use a cell culture room, how to prepare reagents and equipment required for animal cell culture, cell culture processes, morphological observation of cells, analysis of cell proliferation and death, and analysis of intracellular gene and protein levels.

This course is based on the basic knowledge of molecular biology and conducts experiments on DNA and RNA separation and electrophoresis, cloning and transformation, genetic recombination, and gene expression analysis. We can develope expertise as a practitioner in the biomedical field who can analyze life phenomena controlled by intracellular molecules.

This course aims to strengthen employment capabilities and stimulate motivation for employment by operating various job preparation programs for students majoring biomedical engineering. The purpose of this course is to help students understand the company's hiring process and use it as a foundation for self-directed, strategic job preparation to achieve successful employment.

Through this course, students will acquire and experience the capabilities, professional knowledge and information, and industrial technologies as practitioners through practical training in industrial sites, companies, or research institutes related to biomedical engineering.

Through this course, students will acquire and experience the capabilities, professional knowledge and information, and industrial technologies as practitioners through practical training in industrial sites, companies, or research institutes related to biomedical engineering.

This course introduces the types, mechanisms of action, characteristics, and clinical applications of bio-pharmaceuticals produced using the knowledge and technology of molecular biology and immunology, and provides in-depth knowledge that can be applied to research and product development in the biohealth industry.

Recently, as the connection between human microbes and disease has been discovered, microbiome research is actively being conducted to utilize microbes in personalized medicine such as disease prevention, diagnosis, and treatment.This lecture introduces the definition, composition, and physiological functions of the microbiome, and learns about the interaction between the human body and the microbiome, and clinical research for disease treatment.

Based on biochemistry and molecular biology, we learn the basic principles of recombinant DNA technology, genetic manipulation, DNA and RNA purification, vector construction, transformation, gene isolation, and structural analysis. Additionally, we study applications such as advanced genome analysis technology, gene expression, useful protein production technology, and medical vaccine development.

This course provides an overview of the cancer development process at the cellular and molecular levels. We will learn about the network that controls cell proliferation at the molecular level, and the causes and mechanisms of genetic changes that transform normal cells into cancer cells, as well as related oncogenes, tumor suppressor genes, cancer stem cells, and the cancer microenvironment. It also introduces the latest research results on chemotherapy, radiotherapy, targeted cancer therapies.

This lecture introduces the chemical structure and functionality of bioactive substances derived from natural products such as plants, animals, microorganisms, and marine resources, and teaches the core application technologies required to apply functional materials to the bio industry. In this lecture, we will introduce organic and inorganic materials that have recently been introduced into the medical and bio fields, and learn about the production and process of biomaterials, as well as various applications of biomaterials.

Protein engineering is a discipline that studies the technology to improve proteins such as enzymes and antibodies to have desired functions and properties. This course aims to study various protein engineering technologies including protein structure, protein bioinformatics, protein expression, and protein molecular evolution technology.

This lecture covers the development and history of virology, virus particle structure, morphology, classification, and life cycle, as well as the characteristics of representative viruses in each group, the process of genome replication, and gene expression. In this lecture, we will learn about the characteristics of viruses that cause diseases in humans and the immune responses induced by viruses, and explore the development of virus diagnosis, antiviral drugs, vaccines, and therapeutics.

In this lecture, we will learn about the structure of the central and peripheral nervous systems, and the functions of the cells and tissues that make up each structure, using the concepts of cell and molecular biology. This lecture examines the types and functions of nerve cells, the generation and transmission of electrical signals, the mechanisms of chemical synaptic transmission, synaptic plasticity, the structure and function of the brain, the functions of sensory and motor neurons, the connections between nerve cells in the brain, the generation of learning and memory, and the occurrence of brain diseases.

This course covers how to use statistics to analyze research results in the biomedical field. In this lecture, we will learn the concepts of probability distributions, statistical inference, regression analysis, correlation analysis, and statistical experimental design for biological data, and practice using R to select the appropriate statistical analysis for the data.

Based on systematically acquired expertise, we plan/design/produce/analyze creative capstone design works that reflect technological trends in the biohealth industry. We analyze trends in the biohealth industry related to disease diagnosis, and the development of biopharmaceuticals and biofunctional materials, and conduct information collection and literature research. We support students' creative comprehensive design activities to understand the overall process, including disease selection for product design, pathological mechanism analysis, target selection for diagnosis or treatment, strategy establishment for product development, analysis of available biotechnology, efficient product development process, and production process.

During the semester, students participate in individual research projects and conduct experiments under the guidance of their advisors. They organize and analyze the results obtained through the experiments, write reports, and make presentations.

During the semester, students participate in individual research projects and conduct experiments under the guidance of their advisors. They organize and analyze the results obtained through the experiments, write reports, and make presentations.