Introduce

The Nano & Information Technology Major has two concentrations, Nanomaterials Science & Engineering and HCI & Robotics. Nanomaterials Science & Engineering provides an education focused on the creation of new properties using nanomaterials and their engineering applications. HCI & Robotics provides education on HCI for application on the computers of the future, the principles of robotics, and a wide range of their applications. The goal of this major is to cultivate talented individuals with practical job competencies and expertise in nano and information technology.

세부전공
세부 전공명, 전공내용으로 구분하여 안내합니다.
세부 전공명 전공내용
Nanomaterials Science & Engineering NSE aims at providing prospective professional researchers with higher education that can help them to develop a specialized background and the R&D competence required to solve significant problems in engineering applications and to successfully explore diverse solutions based on understanding of nonlinear, unusual, or new properties of materials with respect to their nano-scale structures.
HCI & Robotics The students in this major are expected to acquire a fundamental knowledge in the major subjects of HCI and Robotics, such as immersive virtual reality, physics based simulation, media and internet technology, multimodal perception and interaction, robot perception and actuation, knowledge representation and reasoning, human-robot interaction, and mechanism design. Also, they are expected to gain practical experience to meet the challenge of future cutting-edge technology by participating in national projects in HCI & Robotics.
Completion Criteria Course Name Course number Credts Course outline
  • Major Advanced AI and ML 13106 3 View Button

    Course Name

    Advanced AI and ML

    Summary

    Summary
    강의목표, 교재 및 참고문헌, 수업운영방식, 과제물, 성적평가방식으로 구분하여 안내합니다.
    Lecture Objectives 기존 심볼계산이 기반한 인공지능 방법론에서 확률론과 연계한 방법론의 대두로 기계학습 이론도 재정립되고 있다. 본 강의의 목표는 확률론에 기반한 인공지능 방법론과 기계학습 방법론의 학습과 이를 적용한 로봇, 정보검색 분야의 응용 사례를 통해 이론과 실무적 지식을 습특한다. Traditionally, AI has been focussed on symbolic manipulation paradigm. Recently, AI has been influenced largely by empirical methodology from robotics and machine learning (ML) based on probability and statistics. This course provides firm background on recent advancements of AI and ML with their practical applications in robotics and information retrieval.
  • Major Advanced Compound Semiconductor Materials and Devices 20885 3 View Button

    Course Name

    Advanced Compound Semiconductor Materials and Devices

    Summary

    Summary
    강의목표, 교재 및 참고문헌, 수업운영방식, 과제물, 성적평가방식으로 구분하여 안내합니다.
    Lecture Objectives 본 과목은 화합물 반도체의 전반적인 재료적인 특성과 현재 산업화되었거나 가까운 미래에 상용화 가능성이 있는 다양한 소자들을 다룬다. 실리콘이 가지는 재료적 한계로 인하여 구현하기 어려운 소자와 응용 분야를 공부하고, 이를 극복하기 위한 화합물 반도체의 물질 성장, 분석, 소자 제작, 소자 측정에 대해서 논의 한다. 더불어 최신 화합물반도체 관련 최신 산업 및 연구 동향에 대해서 이야기 한다. This course covers compound semiconductor materials and devices for various applications such as communications, LiDAR sensor, and energy harvesting. Contemporary and potential applications enabled by various compound semiconductor devices that cannot be replaceed by silicon will be discussed. Recent research topics related to compound semiconductors also will be presented.
  • Major Advanced Robotics 20068 3 View Button

    Course Name

    Advanced Robotics

    Summary

    Summary
    강의목표, 교재 및 참고문헌, 수업운영방식, 과제물, 성적평가방식으로 구분하여 안내합니다.
    Lecture Objectives 로봇공학 전반에 걸쳐 이론에 대한 학습과 시뮬레이션 및 실험을 수행하여, 학습이후에 로봇공학 실제 응용을 목표로 함. In this course, stuedents learn theretical background of robotics and apply them to practical applications through simulation and experiments
  • Major Advanced Web Engineering 20395 3 View Button

    Course Name

    Advanced Web Engineering

    Summary

    Summary
    강의목표, 교재 및 참고문헌, 수업운영방식, 과제물, 성적평가방식으로 구분하여 안내합니다.
    Lecture Objectives Web 기술이 중앙 집중형 Client-Server 구조에서 탈 중앙화되고 있고 정보 중심에서 영상 및 3차원 그래픽, 물리공간과 연계 등 다양한 방향으로 확장하고 있다. 본 강의에서는 기존의 중앙집중형 Full-stack 웹 기술(Client-server 아키텍쳐, Client사이드 HTML, CSS, Javascript, Server사이드 Node.js 등)에 대한 기반지식을 통하여 인간의 관심과 지식, 경험으로 표현할 수 있는 모든 디지털 및 물질 도메인(material domain)의 대상물에 대하여 Web 생태계를 통하여 모델링하고 표현하는 역량을 터득하며 웹의 탈 중앙화를 주도하고 있는 IPFS (Interplanetary File System) 및 블록체인 기술에 대한 이론과 실무를 포함한 강의 과목이다. 또한 웹의 몰입형 경험 공간으로 발전 및 표준화 기술, Immersive Web 관련 내용을 포함한다. The course introduces Client-Server-based Web Architecture as well as decentralized Web based on P2P architecture. .The course will have a considerable practical component. Students will learn web fundamentals including client/server architecture and web programming basics as well as new P2P technology like blockchain and P2P file system like IPFS (Interplanetary File System). Furthermore, this course covers “Immersive Web” to include experiential web.
  • Major Analog Integrated Circuit Design 20887 3 View Button

    Course Name

    Analog Integrated Circuit Design

    Summary

    Summary
    강의목표, 교재 및 참고문헌, 수업운영방식, 과제물, 성적평가방식으로 구분하여 안내합니다.
    Lecture Objectives 본 과목은 아날로그 집적회로 설계에 대한 기본 지식을 전달하는 것을 목적으로 한다. 아날로그 집적회로에 사용되는 단위 소자들의 물리적인 동작 원리와 모델링 방법을 시작으로 집적회로를 제작 공정 이슈를 통해 설계자들이 알아야 할 기본적인 공정 지식을 전달한다. 그리고 다수의 기본적인 아날로그 집적회로 building block들과 최근 IC에서 공통적으로 많이 활용되고 있는 몇 가지 building block들에 대한 동작 원리, 설계 이슈 등을 소개 한다. This course aims to deliver basic knowledge of analog integrated circuit design. Beginning with the physical behavior and modeling of the unit elements used in the analog integrated circuit, the basic CMOS process knowledge that designers should know through the manufacturing issue of the integrated circuit is described. In addition, it introduces the operation principle and design issues for a number of basic analog integrated circuit building blocks and several building blocks commonly used in recent ICs.
  • Major Computational Methods for Engineering 03459 3 View Button

    Course Name

    Computational Methods for Engineering

    Summary

    Summary
    강의목표, 교재 및 참고문헌, 수업운영방식, 과제물, 성적평가방식으로 구분하여 안내합니다.
    Lecture Objectives This course is to provide students with a mathematical background to understand various engineering problems and solve those in a numerical way. the course consists of roughly 3 parts: (1) numerical methods for problems with scalar variables, (2) a review on linear algebra and numerical treatments to solve a linear system, (3) an elementary optimization theory.
  • Major Computer Graphics Theory and Application 13117 3 View Button

    Course Name

    Computer Graphics Theory and Application

    Summary

    Summary
    강의목표, 교재 및 참고문헌, 수업운영방식, 과제물, 성적평가방식으로 구분하여 안내합니다.
    Lecture Objectives This course presents an introduction to computer graphics and its applications. for theory part, overview of 2D/3D transformations and viewing, and basic raster graphics concepts, various methods for odeling objects as polygonal meshes or smooth surfaces, and shading, illumination will be investigated. for applications, various techniques for facial modeling and animation, image based modeling and rendering, and 2D image manipulation will be introduced.
  • Major Computer Vision and Pattern Recognition 10368 3 View Button

    Course Name

    Computer Vision and Pattern Recognition

    Summary

    Summary
    강의목표, 교재 및 참고문헌, 수업운영방식, 과제물, 성적평가방식으로 구분하여 안내합니다.
    Lecture Objectives Computer vision is the inference of properties of the three-dimensional world from digital images using probabilistic, statistical, data-driven approaches. this course includes fundamental techniques of computer vision such as image processing; segmentation, grouping, and boundary detection; recognition and detection; motion estimation and structure from motion. Recent remarkable progress in computer vision will be also introduced.
  • Major Electron Microscopy Analysis 20403 3 View Button

    Course Name

    Electron Microscopy Analysis

    Summary

    Summary
    강의목표, 교재 및 참고문헌, 수업운영방식, 과제물, 성적평가방식으로 구분하여 안내합니다.
    Lecture Objectives "전자현미경 분석법" 본 강좌는 주사전자현미경, 집속이온빔 현미경, 투과전자현미경을 이용한 첨단 분석 기법 의 이론과 기본 작동 원리, 데이터 해석법을 익혀 이를 바탕으로 재료의 물성과 나노미세구조를 연계시키는 분석 능력을 기르는 과목입니다. 본 고급 과정을 통해 SEM, TEM 이미지, 회절 도형, 에너지 스펙트럼 등의 데이터를 해석할 수 있는 역량을 기르고 첨단 분석 기법 응용법을 파악하게 됩니다. / The course ‘Microstructure analysis’ covers the theory,fundamental operating principles, and specimen preparation techniques of electron microscopies; scanning electron microscopy (SEM), focused ion beam(FIB) and transmission electron microscope (TEM). Students will gain the basic ability to understand the SEM/TEM images, diffraction pattern and EDS spectrums, thus find the correlation between the microstructure and the properties of the materials.
  • Major Energy Materials 1 20400 3 View Button

    Course Name

    Energy Materials 1

    Summary

    Summary
    강의목표, 교재 및 참고문헌, 수업운영방식, 과제물, 성적평가방식으로 구분하여 안내합니다.
    Lecture Objectives This course offers an understanding on the semiconductor fundamentals and its application to solar cell physics. The themes include basic semiconductor physics, principle of photovoltaic effect, and theoretical/practical aspects of silicon solar cells.
  • Major Energy Materials 2 20401 3 View Button

    Course Name

    Energy Materials 2

    Summary

    Summary
    강의목표, 교재 및 참고문헌, 수업운영방식, 과제물, 성적평가방식으로 구분하여 안내합니다.
    Lecture Objectives This course offers an understanding on the fundamentals of energy materials/devices and their current research trends. The themes include (1) solid state ionics for solid oxide fuel and electrolysis cells, (2) thin-film and nanomaterials for solid oxide cells, AND (3) advanced batteries materials
  • Major Functional Polymers 1: The Design and Synthesis 20396 3 View Button

    Course Name

    Functional Polymers 1: The Design and Synthesis

    Summary

    Summary
    강의목표, 교재 및 참고문헌, 수업운영방식, 과제물, 성적평가방식으로 구분하여 안내합니다.
    Lecture Objectives 조성, 크기, 형태를 조절하여 원하는 기능을 구현할 수 있는 고분자를 설계하고 합성할 수 있음을 목표로 한다. This course provides the knowledge of design and synthesis of functional polymers with the control of the composition, dimension, and morphology.
  • Major Functional Polymers 2: The Materials and Applications 20397 3 View Button

    Course Name

    Functional Polymers 2: The Materials and Applications

    Summary

    Summary
    강의목표, 교재 및 참고문헌, 수업운영방식, 과제물, 성적평가방식으로 구분하여 안내합니다.
    Lecture Objectives This course will provide overviews of functional polymers.The goals of the course are to understand the basic concepts of polymer properties in solid and solution state, and the synthesis, property and various application of polymer materials with functionality.
  • Major Human-Robot Interaction 20069 3 View Button

    Course Name

    Human-Robot Interaction

    Summary

    Summary
    강의목표, 교재 및 참고문헌, 수업운영방식, 과제물, 성적평가방식으로 구분하여 안내합니다.
    Lecture Objectives 로봇이 사람과 공존하는 환경에서 서비스를 제공함에 있어, 필요한 기술 - 1. 사람에 대한 인식 기술, 2. 지식 및 기억 기반 행위 판단 기술, 3. 사용자 및 상황에 맞는 행동 표현 기술 - 에 대한 학습 기회를 제공함. This course aims to provide students with chances to learn technologies - 1. Perception for human, 2. Decision based on knowledge and memory, and 3. Behavior expression adaptive to users and situation - which are required for robots to give services in the company of human.
  • Major Introduction to Carbon Materials 20199 3 View Button

    Course Name

    Introduction to Carbon Materials

    Summary

    Summary
    강의목표, 교재 및 참고문헌, 수업운영방식, 과제물, 성적평가방식으로 구분하여 안내합니다.
    Lecture Objectives Carbon, porous carbon, and graphite are commercially available for industrial use. On the other hand, nanocarbons such as C60, carbon nanotubes, graphene are future materials that are currently focus of research. The purpose of this lecture is to understand structure, synthesis, optical and electrical properties, and applications of the carbon materials.
  • Major Introduction to Electronic Materials 20062 3 View Button

    Course Name

    Introduction to Electronic Materials

    Summary

    Summary
    강의목표, 교재 및 참고문헌, 수업운영방식, 과제물, 성적평가방식으로 구분하여 안내합니다.
    Lecture Objectives This is an introduction class on materials for electonic applications. The first half of the class will cover (1) the brief review on thermodynamics, kinetics, and phase transformations, (2) introduction of electroceramics and their physical properties. The other half of the class will cover polymeric materials for electronic applications. This includes brief introduction to conductive polymers, polymers for semiconductor manufacturing and packaging, polymers for display devices, and several emerging polymeric materials for flexible devices.
  • Major Introduction to Imaging and Display Technology 20200 3 View Button

    Course Name

    Introduction to Imaging and Display Technology

    Summary

    Summary
    강의목표, 교재 및 참고문헌, 수업운영방식, 과제물, 성적평가방식으로 구분하여 안내합니다.
    Lecture Objectives This course aims understanding major principles of imaging and display technologies. Several imaging technologies by sensors or optics and 3D display technologies including hologram for VR/AR applications will be discussed.
  • Major(Compulsory) Introduction to Nano & Information Technology 20056 3 View Button

    Course Name

    Introduction to Nano & Information Technology

    Summary

    Summary
    강의목표, 교재 및 참고문헌, 수업운영방식, 과제물, 성적평가방식으로 구분하여 안내합니다.
    Lecture Objectives (Nanotechnology) Nanotechnology has been developed recently and applied for many different fields such as materials science, mechanics, bio-and information technology. In this course, we introduce the nanotechnology and related application with informaton technology. (HCI)Introducing the basic concept for Human Computer Interaction and Interaction Design, this class deals with the user interface and interaction technologies for the special HCI application such as interactive products for AR/VR, new flexible and transparent display and HMD so that students can understand the overall aspects of Human Computer Interaction . (Robotics)Starting with definition of robotics, introduce a brief history of robot and state of the art of robot in terms of technology, types and market. Also introduce 4th industrial revolution and hyper connected society, and discuss about the possibility of how to extend and enlarge the concept of robot and application potential together with AI technology. In the class, also discuss about when and how to open the market, especially in terms of personal service robot. For this concept of servitization will be proposed. Finally, discuss about the future of robot in terms of not only technology but also market and industry.
  • Major Introduction to Photonics 20065 3 View Button

    Course Name

    Introduction to Photonics

    Summary

    Summary
    강의목표, 교재 및 참고문헌, 수업운영방식, 과제물, 성적평가방식으로 구분하여 안내합니다.
    Lecture Objectives This is an introductory course for the students who face optics for the first time. In this class, we will focus on understanding the concepts shown in wide range of issues including waves, interference, laser as well as fiber optics. Especially, nonlinear devices based on nanocarbon materials such as carbon nanotubes and graphene will be discussed intensively. Cutting-edged technologies in optics and their trend will be dealt for the students to have both practical knowledge and insight.
  • Major Introduction to Polymer Materials 08327 3 View Button

    Course Name

    Introduction to Polymer Materials

    Summary

    Summary
    강의목표, 교재 및 참고문헌, 수업운영방식, 과제물, 성적평가방식으로 구분하여 안내합니다.
    Lecture Objectives This course will provide overviews of polymer materials. The goals of the course are as follows: 1) to understand the basic concept of polymer synthesis, 2) to understand properties related to structures and which characterization technique would be appropriate for determining properties of interest in the polymers, 3) to understand processing methods related to their applications
  • Major Introduction to Practical Surface Analysis 1 20404 3 View Button

    Course Name

    Introduction to Practical Surface Analysis 1

    Summary

    Summary
    강의목표, 교재 및 참고문헌, 수업운영방식, 과제물, 성적평가방식으로 구분하여 안내합니다.
    Lecture Objectives 첨단소재 연구에 활용되는 다양한 표면분석기술에 대한 소개와 실제 적용을 위한 실습을 진행하고자 한다. 진공에 대한 기본 개념과 XPS, AES, XRD, AFM, SIMS, RBS, MEIS, Synchrotron X-ray facility, and Neutron scattering 등 다양한 표면분석 장비의 원리에 대해 설명하고, 촉매 및 나노소재, 나노박막 등의 정성 및 정량분석에 대한 다양한 활용 사례를 소개함으로써 연구에 직접적으로 활용될 수 있도록 도움을 주고자 한다. This course is intended to give students the opportunity to extend their knowledge of surface analysis techniques used in advanced materials research and to help them to be used directly in their research. The basic concept of vacuum and the fundamental principles and applications of surface analysis techniques such as XPS, AES, XRD, AFM, SIMS, RBS, MEIS, Synchrotron X-ray facility, and Neutron scattering will be introduced. And practice of surface analysis equipments for practical applications will be conducted. *강의내용: ● Introduction to surface analysis and vacuum (Surface analysis and vacuum technology, etc.) ● X-ray Photoelectron Spectroscopy : Principles and Case studies, Practical training ● Auger Electron Spectroscopy : Principles and Case studies, Practical training ● X-Ray Scattering : Principles and Case studies, Practical training ● Synchrotron radiation : Introductions and Case studies
  • Major Introduction to Practical Surface Analysis 2 20405 3 View Button

    Course Name

    Introduction to Practical Surface Analysis 2

    Summary

    Summary
    강의목표, 교재 및 참고문헌, 수업운영방식, 과제물, 성적평가방식으로 구분하여 안내합니다.
    Lecture Objectives 첨단소재 연구에 활용되는 다양한 표면분석기술에 대한 소개와 실제 적용을 위한 실습을 진행하고자 한다. 진공에 대한 기본 개념과 XPS, AES, XRD, AFM, SIMS, RBS, MEIS, Synchrotron X-ray facility, and Neutron scattering 등 다양한 표면분석 장비의 원리에 대해 설명하고, 촉매 및 나노소재, 나노박막 등의 정성 및 정량분석에 대한 다양한 활용 사례를 소개함으로써 연구에 직접적으로 활용될 수 있도록 도움을 주고자 한다. This course is intended to give students the opportunity to extend their knowledge of surface analysis techniques used in advanced materials research and to help them to be used directly in their research. The basic concept of vacuum and the fundamental principles and applications of surface analysis techniques such as XPS, AES, XRD, AFM, SIMS, RBS, MEIS, Synchrotron X-ray facility, and Neutron scattering will be introduced. And practice of surface analysis equipments for practical applications will be conducted. *강의내용: ● Secondary Ion Mass Spectrometry : Principles and Case studies, Practical training ● Atomic Force Microscopy : Principles and Case studies, Practical training ● Rutherford Backscattering Spectrometry : Principles and Case studies, Practical training ● Medium Energy Ion Scattering : Principles and Case studies, Practical training ● Neutron scattering : Principles and Case studies
  • Major Introduction to Semiconductor Material and Device Characterization 20064 3 View Button

    Course Name

    Introduction to Semiconductor Material and Device Characterization

    Summary

    Summary
    강의목표, 교재 및 참고문헌, 수업운영방식, 과제물, 성적평가방식으로 구분하여 안내합니다.
    Lecture Objectives To introduce the method of acquiring the fundamental electrical and optical properties of semiconductor materials, for example, energy gap and carrier density. To introduce how to perform the measurement of electrical properties of semiconductor materials and devices, for example, resistance and capacitance, using several instruments. To introduce the LabView programming for measurement automation.
  • Major Introduction to Semiconductor Materials and Devices 20058 3 View Button

    Course Name

    Introduction to Semiconductor Materials and Devices

    Summary

    Summary
    강의목표, 교재 및 참고문헌, 수업운영방식, 과제물, 성적평가방식으로 구분하여 안내합니다.
    Lecture Objectives To provide an introduction to the experimental idea underpinning band structure and electrical conduction processes in solids. To introduce the method of acquiring the fundamental electrical properties and several transport mechanisms of semiconductors and of electronic devices (diode and transistor).
  • Major Introduction to Virtual/Augmented Reality 20070 3 View Button

    Course Name

    Introduction to Virtual/Augmented Reality

    Summary

    Summary
    강의목표, 교재 및 참고문헌, 수업운영방식, 과제물, 성적평가방식으로 구분하여 안내합니다.
    Lecture Objectives Augmented Reality/Virtual Reality is becoming one of promising future technology ini IT area. In this course, we will study theoretical basis for AR/VR such as display, tracking and interaction technologies. 증강현실/가상현실은 최근 IT 분야에서 유망한 미래 기술로 꼽히고 있다. 본 수업에서는 증강현실/가상현실에 중요한 기술인 디스플레이, 트랙킹, 인터랙션 등에 대한 이론적인 기초와 응용에 대해서 배운다.
  • Major Laboratory Automation Electronics 101 for Non-EE Students 20398 3 View Button

    Course Name

    Laboratory Automation Electronics 101 for Non-EE Students

    Summary

    Summary
    강의목표, 교재 및 참고문헌, 수업운영방식, 과제물, 성적평가방식으로 구분하여 안내합니다.
    Lecture Objectives 비전자공학 학부 출신 학생을 위한, 기본 전자공학, basic laboratory electronic for lab automation. Designed for non-EE based student. 학생들은 수업 및 실험에 필요한 최소한의 장비를 미리 소지해야 함. [지도 박사의 부품 비용 지원 약정 필요 약 10만원 정도]
  • Major Magnetic Materials 20402 3 View Button

    Course Name

    Magnetic Materials

    Summary

    Summary
    강의목표, 교재 및 참고문헌, 수업운영방식, 과제물, 성적평가방식으로 구분하여 안내합니다.
    Lecture Objectives This lecture is designed for graduate students to understand basic principles of magnetic materials. The scope of this lecture embraces the magnetic phenomena associated with magnetic materials. This lecture will cover the theoretical and experimental details of magnetic materials and recent progress of Spintronics.
  • Major Materials Science of Thin Films 20059 3 View Button

    Course Name

    Materials Science of Thin Films

    Summary

    Summary
    강의목표, 교재 및 참고문헌, 수업운영방식, 과제물, 성적평가방식으로 구분하여 안내합니다.
    Lecture Objectives This lecture is designed for graduate students who work on thin film technology. The scope of this lecture embraces basic vacuum techniques to various thin film deposition technologies including their common underlying principles. This lecture will cover the theoretical and experimental details of physical vapor depostion (PVD), chemical vapor deposition (CVD), plasma-assisted vapor deposition processes, plasma spray, electrodeposition as well as their applications in semiconductor, chemical, optical, mechanical, and metallurgical industries.
  • Major Mechanical Behavior of Materials 20061 3 View Button

    Course Name

    Mechanical Behavior of Materials

    Summary

    Summary
    강의목표, 교재 및 참고문헌, 수업운영방식, 과제물, 성적평가방식으로 구분하여 안내합니다.
    Lecture Objectives This class will cover the basics of mechanical behavior of materials that materials scientists of different fields are required to understand. As a lecture-based class, we will go over various topics from the mathematical description of stress and strain to elasticity, plasticity, fracture, fatigue, and tribology as well as specific charactersitics of metals, ceramics, and polymers.
  • Major Modern Information Technology 20406 3 View Button

    Course Name

    Modern Information Technology

    Summary

    Summary
    강의목표, 교재 및 참고문헌, 수업운영방식, 과제물, 성적평가방식으로 구분하여 안내합니다.
    Lecture Objectives 양자이론과 정보이론을 융합한 양자정보를 이해하고, 이를 양자통신, 양자컴퓨팅 연구에 활용할 수 있다. Understanding quantum information science and its application to research on quantum communication and quantum computation
  • Major Nanomaterials Processing and Applications 09142 3 View Button

    Course Name

    Nanomaterials Processing and Applications

    Summary

    Summary
    강의목표, 교재 및 참고문헌, 수업운영방식, 과제물, 성적평가방식으로 구분하여 안내합니다.
    Lecture Objectives In this class, we will cover fundamentals of band structures and transport properties of matter, fundamentals and applications of nanostructured organic materials including ultrathin films and hybrids, and nanomaterials for healthcare.
  • Major Nanophotonic Materials for Future Semiconductor 20886 3 View Button

    Course Name

    Nanophotonic Materials for Future Semiconductor

    Summary

    Summary
    강의목표, 교재 및 참고문헌, 수업운영방식, 과제물, 성적평가방식으로 구분하여 안내합니다.
    Lecture Objectives 본 과목은 차세대 반도체 산업의 경쟁력 확보를 위해 광공학, 전자공학, 재료공학이 융합된 나노포토닉스 기반 차세대 반도체 재료공학 지식을 전달하는 것을 목적으로 한다. 본 과목에서는 기초 광학, 포토닉스 개론, 플라즈모닉스 개론 및 응용, 광컴퓨터용 소자 원리 및 응용 등에 대한 내용을 한 학기 동안 가르치고, 원리의 이해를 넘어, 그것을 연구에 응용할 수 있는 시뮬레이션 등에 기초한 실습을 한다. This course aims to deliver the knowledge of next-generation semiconductor material engineering based on nanophotonics in which optical engineering, electronic engineering, and material engineering are fused to secure competitiveness of the next-generation semiconductor industry. This course teaches basic optics, introduction to photonics, introduction to plasmonics and application, device principles and applications for optical computers, etc. for one semester, and practice beyond basic understanding of principles and to apply them to research.
  • Major Phase Transformation of Metals and Alloys 20198 3 View Button

    Course Name

    Phase Transformation of Metals and Alloys

    Summary

    Summary
    강의목표, 교재 및 참고문헌, 수업운영방식, 과제물, 성적평가방식으로 구분하여 안내합니다.
    Lecture Objectives This class is to understand the basics of phase transformations in metals and metal alloys. The lecture-based class will cover the topics of basic thermodynamics, phase diagrams, diffusion, interfaces, solidification, and diffusional transformations.
  • Major Physically based Animation 20066 3 View Button

    Course Name

    Physically based Animation

    Summary

    Summary
    강의목표, 교재 및 참고문헌, 수업운영방식, 과제물, 성적평가방식으로 구분하여 안내합니다.
    Lecture Objectives Modern graphics applications increasingly require highly sophisticated animation subsystems. this course is to provide students with various physically based modeling techniques for animation of particles, rigid bodies, hair, cloth, and other systems. the emphasis will be on practical implementation issues rather than rigorous mathematics.
  • Major Quantum Physics 20399 3 View Button

    Course Name

    Quantum Physics

    Summary

    Summary
    강의목표, 교재 및 참고문헌, 수업운영방식, 과제물, 성적평가방식으로 구분하여 안내합니다.
    Lecture Objectives 양자역학을 이해하고 다양한 연구에 활용할 수 있다. Understanding quantum physics and its application to various research
  • Major X-Ray Diffraction and Crystallography 20057 3 View Button

    Course Name

    X-Ray Diffraction and Crystallography

    Summary

    Summary
    강의목표, 교재 및 참고문헌, 수업운영방식, 과제물, 성적평가방식으로 구분하여 안내합니다.
    Lecture Objectives Basics on crystallography and x-ray diffraction will be understood through this course. This course will cover unitcell description, 7 crystal system, 14 Bravais lattice, 32 point group, space group, reciprocal space, Ewald sphere, x-ray diffraction. Several case studies of XRD analysis will be introduced, finally.