전공과목해설

This class covers theories and experiments necessary for preparing a dissertation thesis on energy material.

This class covers theories and experiments necessary for preparing a dissertation thesis on nuclear fuel.

This class covers theories and experiments necessary for preparing a dissertation thesis on accelerators.

This class covers theories and experiments necessary for preparing a dissertation thesis on radioactivity.

This class covers theories and experiments necessary for preparing a dissertation thesis on nuclear chemical engineering.

This class covers theoretical and experimental research necessary for preparing a thesis on the condition monitoring of green energy.

This class covers survey and analysis of the research papers in the energy material fields necessary for selecting major field

A kind of useful energy and energy conversion systems will introduce the basic theory. and overall design of the existing system is going to study how the (durability, longevity, performance and efficiency

This class covers Navier-Stokes equation, turbulence model, relevant numerical methods and commercial computational fluid dynamics tooo and state-of-the art such as Lattice Boltzmann Method for fluid dynamic and heat transfer issues in nuclear and energy systems.

This course is concerned with major issues in design of renewable energy systems including overall system integration. By understanding the key finctions of individual components and overall system integration, advanced system design methodologies are addressed throughout projects and case studies.

Fuel cell is regarded as one of the most promising renewable energy sources. This course aims to address the major issues of fuel cells including overall system design and operation. By understanding the key functions of fuel cell components and system, advanced system design methodologies are investigated throughout research projects and case studies.

Nuclear fuel management involves problems in reactor physics, thermal and hydraulic analysis, materials behavior, structural analysis, and engineering economics. Nuclear fuel management encompasses activities involved in procuring, designing, fabricating, and irradiating fuel for nuclear power reactors, as well as the activities required to ship and reprocess the spent fuel and dispose of the radioactive wastes.

This class covers basic knowledge of nuclear fuel materials, fuel thermal performance, fuel chemistry, behavior of fission products of nuclear fuel, neutron-induced fuel performance degradation and fuel performance modelling.

This class covers the advanced electromagetics to understand high frequency and high voltage using for accelerating and controlling the charged particles, based on the basic electromagnetics.

This class covers the interactions between the charged particles in electric and magnetic fields, and several types of accelerator to accelerate and transport the charged particles.

This class covers the various interactions between material and living things and charged particles and neutrons, and their application methods in various R&D fields. This class also covers the radiation generation by proton beam and the generation and medical use of radioisotopes and neutrons.

This course is concerned with major issues in design of particle accelerators with ion source and this course also covers the application of high energy ion beam for the energy, new material and the environment.

This class provides theoretical basis and analysis methods of mechanical, material and thermal aspect of nuclear fuel performance.

This class covers the principles and examples of various applications of radiations' and the engineering means to protect human beings and the environment from radiations generated by the use of nuclear energy, and the radiation shielding design techniques.

Mathematical optimization methodologies are widely used for designing and operating energy process systems. In this course, important theories, concepts are reviewed for future individual research. Constructing mathematical models and computing the solutions of the models are addressed. Evolutionary methods and mathematical programming techniques are also addressed.

This class covers the general principle of the processes and properties included in the advanced material engineering, combination of the processes, and the process design in order to understand the general characteristics of the components with advanced materials and its processes.

The precise control and adjustment of power transmission systems will be studied. Currently in the industry, the advantages and disadvantages of various precision measuring devices, improvements and applications are discussed.

This class provides analysis methodology of nuclear reactor system thermal-hydraulic and two-phase flow behavior under accident conditions and practice the special problem solutions applying the methodology.

This class provides basic design methodology of conventional and advanced nuclear reactor systems and practice basic design of such reactor systems.

This class covers the basic mechanisms and module design and fabrication processes of alternative energies such as wind power, solar energy, and fuel cell etc, and the assembly design, processes, testings and evaluations of final system based on each module components.

For design of ion particle accelerators whose utilization sharply increases as a third tool, this class provides theories of electro-magnetics, high frequency and plasma generation based on modern physics. Also, energy multiplication and transport theory of electrons, protons and heavy ion particles will be treated. Furthermore, theoretical basis of radiation emission after collisions of particles by an ion particle accelerator in relation with their utilizations.

This class provides electro-magnetics, finite element method and vector algebra in relation with analysis of important factors in electro-magnet design which is most important in particle accelerators. A modified method for increased mass due to particle velocity increase and detailed design method for a magnet which has nonlinear characteristics with a role of a lens regulating particle group size will be also studied.

Provided are the fuel fronted cycle technology covering uranium concentrate, conversion, enrichment, reconversion and fuel fabrucation, the nuclear power generation technology including reacore core design and safety analysis, fuel and radioactive naterials,nuclear power plant decontamination and decommission and environmental restoration.

Basic two-phase flow equations, homogeneous model, drift-flux model, flow regimes, pressure drop in two-phase flow. Nucleation and bubble dynamics, pool boiling, subcooled boiling, forced convection boiling, critical heat flux in pool boiling, critical heat flux in forced convection, boiling minimum heat flux, film boiling, post-dryout heat transfer. Flow instabilities, choking in two-phase flow, film and dropwise condensation. Applications to heat exchanges. Special boiling and two-phase problems.

Fundamental advanced experimental lab techniques for thesis preparation on thermal-fluids is provided for such area as two-phase flow pattern, visualization, void fraction measurement, two-phase pressure drop, diffusion and heat transfer coefficient measurement, natural circulation flow and heat transfer, natural and forced convection Nusselt number measurement, particle-image velocimetry, shock wave generation and attenuation, thermal-hydraulic system control and response measurement. Also key skills of data-acquisition and signal validation will be obtained by using such software as LabView and MATLAB.

Viscosity and the Mechanisms of Momentum Transport, Momentum Balances and Velocity Distributions in Laminar Flow, The Equations of Change for Isothermal Systems, Velocity Distributions in Turbulent Flow, Interphase Transport in Isothermal Systems, Macroscopic Balances for Isothermal Flow Systems, Energy Transport, Thermal Conductivity and the Mechanisms of Energy Transport, Energy Balances and Temperature Distributions in Solids and Laminar Flow, The Equations of Change for Nonisothermal Systems, Temperature Distributions in Turbulent Flow, Interphase Transport in Nonisothermal Systems, Macroscopic Balances for Nonisothermal Systems, Diffusivity and the Mechanisms of Mass Transport, Concentration Distributions in Solids and Laminar Flow, Equations of Change for Multicomponent Systems, Concentration Distributions in Turbulent Flow, Interphase Transport in Nonisothermal Mixtures, Macroscopic Balances for Multicomponent Systems and other Mechanisms for Mass Transport

Fundamentals of vibration; Acoustics and structural dynamics; Vibration of structures in quiescent fluids; Vortex-induced vibration; Turbulence-induced vibration; Impact, fatigue, and wear caused by flow induced vibration; Acoustically induced vibration; Signal analysis and diagnostic techniques.

Conservation laws of fluid motion and boundary conditions, turbulence and its modeling, finite volume methods for diffusion problems, finite volume methods for convection-diffusion problems, solution algorithms for pressure-velocity coupling in steady flows, solution of discretized equations, finite volume method for unsteady flows, implementation of boundary conditions, advanced topics and applications

Regarding to critical nuclear component such as reactor, nuclear steam supply system and engineered safety features, theory and practices on active and passive system control, response characteristics and optimal control are provided. By applying the state-of-the art control theory to the system mathematical model and computer language such as MATLAB, knowledge and skills are obtained on optimal system control and design for nuclear system safety enhancement.

Theory and practice on new concepts and designs of evolutionary reactor, high temperature reactor, sodium cooled fast reactor, other nuclear systems, state-of-the-art passive and active safety systems, new severe accident mitigation system.

With the implementation of nuclear power stations and radioactivity facilities, their lifespan is coming to an end. Therefore their decommissioning and decontaminiation is drawing increasing attention. This course addresses the key major issues of decontamination and decommissioning.

This class covers advanced mathematics, such as ordinary differential equations, Laplace transform, Linear algebra, and partial differential equations which are needed for engineering analyses.

This class covers survey and analysis of the research papers in the nuclear fuel fields necessary for selecting major field

This class covers selection of research topic and education of basic thesis writing skills.

This class covers teaching the method of literature survey and guidance on presenting seminar on his/her research topic

This class covers in-depth writing skills of advanced research papers and skills of seminar.

This class covers teaching experimental skill on his/her research topic, validation & verification, visualization.

This class covers survey and analysis of the research papers in the accelerator fields necessary for selecting major field

This class covers survey and analysis of the research papers in the radioactivity fields necessary for selecting major field

This class covers survey and analysis of the research papers in the nuclear chemical engineering fields necessary for selecting major field

This class covers the basic mechanisms of fatigue and the testings and evaluations of fatigue, and design and fabrication processes of fatigue resistance.

The tower and foundation are the key structures that support the load of the wind turbine. In this class, students learn about structural health monitoring (SHM) methods for the diagnosis of towers and foundations. The characteristics of substructures and damage types are examined and the adaptable SHM techniques according to the characteristics of each structure are addressed.

This class covers theories and experiments on machine learning models including artificial neural networks and deep learning models in conjunction with machine learning based application system implementation.

This class covers theories on noise control and electromagnetic wave in wind power generation systems

For renewable energy systems to operate successfully, stable operation and maintenance (O&M) is critical. In this lecture, we explore the general theories related to the O&M of renewable energy systems. Key methodologies and industrial practices will be investigated in terms of general machinery, electrical systems, and special operations by individual devices. It will be expected that the appropriate O&M greatly contribute to expanding the lifespan of renewable energy systems with significant economic savings.

Machine condition monitoring is essential for maintaining the reliability of machines and can help avoid catastrophic failures while ensuring the safety and longevity of operation. One of the methods, condition monitoring using analysis of lubricant has an advantage, which provides early warnings regarding a machines’s failure. This class covers theories and experiments necessary for condition monitoring with analysis of lubricant oil.

Machine condition monitoring based on noise and vibration is an efficient method for assessing machine’s condition by checking noise and vibration. This class includes theories and experiments necessary for monitoring of machine with various devices.

Machine condition monitoring based on thermography is an effective method for assessing a machine’s condition by monitoring temperature distribution. This class covers theories and experiments necessary for condition monitoring with thermography.

Ultrsonic is used in various fields such as medical inspections. Condition monitoring based on ultrasonic is one of machine condition monitoring because it can check for leaks of lubricant and power failure. This class covers theories and experiments necessary for condition monitoring with ultrasonic.

As as field of renewable energy, the wind power industry is gradually increasing its scope. Therefore, understanding of each component and its function in wind power generation is required. This class covers theories necessary for understanding of wind turbine.

The design ability of machine components is important in order to develop energy system. This class covers theories and experiments necessary for design of machine components.

To meet the purpose of introducing renewable energy systems, many additional issues should be considered in addition to system deployment, operation, and dismantling. Throughout the entire life cycle of the system, environmental impact should be minimized for the sake of human and nature. In this subject, we look at the theories and methodologies related to this.

This class covers theories and experiments necessary for preparing a dissertation thesis on condition monitoring.

This class covers theories and experiments necessary for preparing a dissertation thesis on condition monitoring.

This class covers literature search and discussion necessary for research on condition monitoring.

This lecture covers signal processing and analysis methods for structural health monitoring.