- 학부 강좌
- 디바이스 분야
- Quantum mechanics for semiconductor
- [계절학기-여름] 시각심리 및 디스플레이 공학
- [2017.06.23] 제1장 Visual System and Psychophysics of Vision
- [2017.06.26] 제1장 Visual System and Psychophysics of Vision
- [2017.06.27] ]제1장, 제2장 Radiometry and Photometry, 제3장 Colorimetry
- [2017.06.28] 제3장 Colorimetry
- [2017.06.30] 제4장 Display Colorimetry
- [2017.07.03] lecture 1
- [2017.07.04] lecture1, 2
- [2017.07.06] lecture 2, 3
- [2017.07.07] lecture3
- [2017.07.10] lecture3
- [2017.07.11] 김학린교수님 1강
- [2017.07.14] 김학린교수님 2강
- [2017.07.14] 김학린교수님 3강
- [2017.07.15] 김학린교수님 4강
- [2017.07.17] 김학린교수님 6강
- [2017.07.17] 김학린교수님 7강
- [2017.07.15] 김학린교수님 5강
- [2017.07.18] 김학린교수님 8강
- [2017.07.18] 김학린교수님 9강
- [학부강의] 물리전자 (2010S_이정희)
- 1강 : Introduction
- 2강 : Semiconductors
- 3강 : effective mass
- 4강 : Effective Mass
- 5강 : Motion and Recombination of Electrons and Holes
- 6강 : Motion and Recombination of Electrons and Holes
- 7강 : indirect recombination
- 8강 : Peak Electric Field
- 9강 : PN and l - Semiconductor Junctions (1)
- 10강 : PN and l - Semiconductor Junctions (2)
- 11강 : PN and l - Semiconductor Junctions (3)
- 12강 : PN and l - Semiconductor Junctions (4)
- 13강 : Ideal ohmic contact
- 14강 : Choice of Vt and Gate Doping Type
- 신호 및 회로 분야
- 전자회로2 (2020 1학기 최병조)
- 전자회로 2:--01 Section 7.1: The Baic MOSFET Current Source I
- 02 Section 7.1: The Basic MOSFET Current Source II
- 03 Section 7.2: The CMOS Amplifiers with Active Load
- 04 Sections 7.3-7.5: MOSFET Current Steering Circuits, BJT Current Source, BJT Amplifier Circuits
- 05 Sections 8.1-8.2: The MOSFET Differential Pair, Small-Signal Operation of MOSFET Differential Pair I
- 06 Section 8.2: Small-Signal Operation of MOSFET Differential Pair II
- 07 Sections 8.3-8.4: The BJT Differential Pair
- 08 Sections 8.4-8.5: Differential Amplifiers with Active Load
- 09 Sections 8.5-8.6: Large-Signal Operation of MOSFET and BJT Differential Pair
- 10 Sections 8.6, 2.1, 2.2: Large-Signal Operation of BJT Diff. Pair, The Ideal Op Amlifier, The Inverting Configuration
- 11 Sections 2.2-2.4: The Inverting Configuration, The Noninverting Configuration, Frequency Response Part I
- 12 Sections 2.4-2.5: Frequency Response Part I, Integrators and Differentiators
- 13 Sections 2.5-2.6: Integrators and Differentiators, Effects of Finite Open-Loop gain and Bandwidth
- 14_Part I Section 2.6-2.7: Effects of Finite Open-Loop gain and Bandwidth, DC Imperfections
- 14_Part II Section 2.6-2.7: Effects of Finite Open-Loop gain and Bandwidth, DC Imperfections
- 15_Part I Section 2.7-2.8: DC Imperfections, Large-Signal Operation of OP Amp
- 15_Part II Section 2.7-2.8: DC Imperfections, Large-Signal Operation of OP Amp
- 16 Sections 2.8-2.9: Large-Signal Operation of Op Amp, Frequency Response Part II
- 17 Section 2.9: Frequency Response Part II
- 18_Sections 9.1-9.2: Frequency Response Analysis Using Amplifier Gain Function and Amplifier Small-Signal Model
- 19_Part I Section 9.2: Frequency Response Analysis Using Amplifier Small-Signal Model
- 19_Part II Section 9.2: Frequency Response Analysis Using Amplifier Small-Signal Model
- 20 Sections 9.2, 10.1, 10.2: Frequency Response Analysis, General Feedback Structure, Negative Feedback
- 21_Part I Sections 10.2-10.3: Negative Feedback, Voltage Amplifier and Seris-Shunt Feedback
- 21_Part II Sections 10.2-10.3: Negative Feedback, Voltage Amplifier and Seris-Shunt Feedback
- 22_Part I Sections 10.3-10.4: Series-Shunt Amlifiers, BJT Amplifier Analysis Techniques
- 22_Part II Sections 10.3-10.4: Series-Shunt Amlifiers, BJT Amplifier Analysis Techniques
- 22_Part III Sections 10.3-10.4: Series-Shunt Amlifiers, BJT Amplifier Analysis Techniques
- 23_Part I Sections 10.6-10.7: Analysis of Feedback Amplifiers
- 23_Part II Sections 10.6-10.7: Analysis of Feedback Ampifiers
- 24_Part I Sections 10.5-10.7: Analysis of Feedback Ampifiers
- 24_Part II Sections 10.5-10.7: Analysis of Feedback Ampifiers
- 25_Part I Sections 10.5-10.8: Analysis of Feedback Ampifiers, The Stability Problem
- 25_Part II Sections 10.5-10.8: Analysis of Feedback Ampifiers, The Stability Problem
- 26_Part I Sections 10.8-10.9: The Stability Problem, Frequency Compensation
- 26_Part II Sections 10.8-10.9: The Stability Problem, Frequency Compensation
- 27_Part I Sections 10.8-10.9: The Stability Problem, Frequency Compensation
- 27_Part II Sections 10.8-10.9: The Stability Problem, Frequency Compensation
- 28_Part I Section 10.9: Frequency Compensation, Problems and Solutions
- 28_Part II: Problems and Solutions
- Linear Algebra (2020 1학기_최병조)
- Linear Algebra_01_Section 1.1: Systems of Linear Equations
- 02_Part I_Section 1.2: Row Reduction and Echelon Form
- 02_Part II_Section1.2: Row Reduction and Echelon Form
- 03_Section 1.3: Vector Equations
- 04_Section 14: Matrix Equations
- 05_Sections 1.7-1.8: Linear Independence, Introduction to Linear Transformation
- 06_Sections 2.1-2.5: Matrix Operations, The Inverse Matrix, Matrix Factorization
- 07_Section 2.8: Subspace of R^n
- 08_Section 2.9: Dimension and Rank
- 09_Sections 3.1-3.2: Introduction to and Properties of Determinants
- 10_Section 3.2: Properties of Determinants
- 11_Section 3.3: Cramer\'s Rule, Volume, Transformation, and The Big Question \"What is the Determinant?\"
- 12_Section 5.1: Eigenvalues and Eigenvectors
- 13_Section 5.2: The Characteristic Equation
- 14_Sections 5.3, 5.6: Diagonalization, Discrete Dynamiccal Systems
- 15_Sections 5.6, 5.7: Discrete Dynamical Systems, Aplication to Differential Equations
- 16_Section 6.1: Inner Product, Length, and Orthogonality
- 17_Section 6.2: Orthogonal Set
- 18_Sections 6.3-6.4: Orthogonal Projection onto Subspace, The Gram-Schmidt Process
- 19_Sections 6.4-6.5: The Gram Schmidt Process, Least Squares Problems and QR Factorization
- 20_Sections 6.5-6.7: Least-Squares Problems and QR Factorization, Application to Linear Models
- 21_Sections 6.7: Application to Linear Models, Problems and Solutions I
- 22 Section: Problems and Solutions II
- 23_Section: Problems and Solutions III
- 24_Section: Problems and Solutions IV
- 25_Section: Problems and Solutions V
- 26_Section: Problems and Solutions VI, Semester Review I
- 26_Part II : Quiz
- 27_Semester Review II
- 28_Semester Review III
- 회로이론1
- 전자공학실험1
- [학부강의]구 공학수학2( 2021 version : 공대생을 위한 복소해석학-복해공 )
- 공대생을 위한 복소해석학-복해공(구 공학수학2) O.T.
- Chap.17( sec.17.1 Complex numbers )
- Chap.17( sec.17.2 Powers and roots )
- Chap.17( sec.17.3 Sets in the complex plane )
- Chap.17( sec.17.4 Functions of a complex variable )
- Chap.17( sec.17.5 Cauchy-Riemann equations )
- Chap.17( sec.17.6-I Exponential and logarithmic functions )
- Chap.17( sec.17.6-II Exponential and logarithmic functions )
- Chap.17( sec.17.7 Trigonometric anf hyperbolic functions )
- Chap.18( sec.18.1 Contiur integrals )
- Chap.18( sec.18.2 Cauchy-Goursat theorem )
- Chap.18( sec.18.3 Independence of the path )
- Chap.18( sec.18.4 Cauchy's integral formulas )
- Chap.19( sec.19.1 Sequences and series )
- Chap.19( sec.19.2 Taylor series )
- Chap.19( sec.19.3 Laurent series )
- Chap.19( sec.19.4 Zeros and poles )
- Chap.19( sec.19.5 Residues and residue theorem )
- Chap.19( sec.19.6 Evaluation of real integrals )
- Chap.20( sec.20.1 Complex functions as mappings )
- Chap.20( sec.20.2 Conformal mappings )
- Chap.20( sec.20.3 Linear fractional transformations )
- 복해공( 구 공학수학2 ) 종강 인사
- [학부강의] 확률과정 (2017S_최영숙)
- 1. Probability Models in Electrical and Computer Engineering
- 2. Specify Random Experiments, The Axioms of Probability
- 3. Conditional Probability, Independence of Events, Sequential Experiments
- 4. Conditional Probability, Independence of Events, Sequential Experiments
- 5. Conditional Probability, Independence of Events, Sequential Experiments
- 6. Conditional Probability, Independence of Events, Sequential Experiments
- 7. Conditional Probability, Independence of Events, Sequential Experiments
- 8. Conditional Probability, Independence of Events, Sequential Experiments
- 9. Cumulative Distribution Function , Probability Density Function
- 10. Cumulative Distribution Function , Probability Density Function
- 11. Cumulative Distribution Function , Probability Density Function
- 12. Function of Random Variable, The Expected Value of Random Variables
- 13. The Markov and Chebyshev Inequalities Multiple Random Variables
- 14. Joint cdf
- 15. The joint cdf, The joint pdf
- 16. Joint pdf of two continuous random variables
- 17. Independence od two random variables
- 18. Expected value of a function of two random variables
- 19. Function of two random variables
- 20. Function of two random variables
- 21. Function of two random variables
- 22. Random process
- 23. Specifying a Random Process
- [학부강의] 전자회로2 (2015F_최병조)
- 1강 : Amplifier Basics
- 2강 : MOSFET Amplifier Basics
- 3강 : BJT Amplifier Basics
- 4강 : Basic MOSFET Current Sources
- 5강 : CMOS IC Amplifiers with Active Load
- 6강 : BJT Current Source, Current Mirrors and Current Steering Circuits
- 7강 : Widlar Current Source, BJT Amplifiers and MOS Differential Pair
- 8강: Differential Amplifiers-- Differential Gain and Common-Mode Gain
- 9강 : BJT Differential Pair and Differential Amplifier with Active Load
- 10강: MOSFET Differential Amplifiers with Active Loads
- 11강: Large-Signal Operation of MOSFET and BJT Differential Pairs
- Help Session for Test One
- 12강: Chapter 2-- Ideal Op Amp, Virtual Short, and Inverting Amplifier
- 13강: Chapter 2-- Non-inverting Amplifier
- 14강: Chapter 2--Frequency Response and Miller Integrator
- 15강: Chapter 2-- Effects of Finite Open-Loop Gain and Bandwidth
- 16강: Chapter 2--Effects of Input Offset Voltage
- 17강: Chapter 2--Effects of Input Bias Current and Slew Rate Limitation
- Help Session for Test Two
- 18강: Frequency Response-Part Two
- 19강: Chapter 8--Frequency Response of Amplifiers
- 20강: Chapter 8--High-Frequency Response of Amplifiers
- 21강: Chapter 8--Low Frequency Response of Amplifiers
- 22강: Chapter 9--Feedback Amplifier Basics
- 23강: Chapter 9--Series Shunt Feedback Amplifier
- 24강 : Chapter 9--Series-Series and Shunt-Shunt Feedback Amplifiers
- 25강: Chapter 9--Stability of Feedback Amplifier
- 26강: Chapter 9: Relative Stabilities and Frequency Compensation
- Help Session for Test Three
- [학부강의] 전력전자 (2015F_최병조)
- 1강 - Chapter 1: Introduction to PWM Dc-to-Dc Power Conversion
- 2강 - Chapter 2: Semiconductor Switches
- 3강 - Chapter 2: Inductors
- 4강 - Chapter 2: Capacitors
- 5강 - Chapter 2: Transformers
- 6강 - Chapter 2: Switching Circuits in Practice
- Solutions to End of Chapter 2 Problems
- PSpice for Power Electronics
- 7강 - Chapter 3: Buck Converter-- Step-Down Dc-to-Dc Converter
- 8강 - Chapter 3: Buck Converter--Steady-State Analsis and DCM Operation
- 9강 - Chapter 3: Buck Converter--Closed-Loop Control and DC Regulation
- Solutions to End of Chapter 3 Problems
- 10강 - Chapter 4: Boost Converter--Evolution and Steady-State Operation
- 11강 - Chapter 4: Buck/Boost Converter--Evolution and Steady-State Operation
- Solutions to End of Chapter 4 Problems
- 12강 - Chapter 4: Flyback Converter-- Evolution and Steady-State Operation
- 13강 - Chapter 5: PWM Converer Modeling--Averaging Power Stage Dynamics
- 14강 - Chapter 5: PWM Converter Modeling--Linearization and Small-Signal Model
- 15강 - Chapter 6: Power Stage Transfer Functions--Bode Plot
- Solutions to End of Chapter 5 Problems
- 16강 - Chapter 6: Power Stage Transfer Funcions--Frequency-Response
- 17강 - Chapter 7: Dynamic Performance of PWM Converters--Performance Criteria
- Solutions to End of Chapter 6 Problems
- 18강_Chapter 7: Dynamic Performance of PWM Converters--Stability
- Solution to End of Chapter 7 Problems
- 19강 - Chapter 8: Feedback Compensation Design--Asymptotic Analysis Method
- 20강 - Chapter 8: Feedback Compensation Design--Voltage Feedback Compensation
- 21강 - Chapter 8: Loop Gain and Closed-Loop Performance
- 22강 - Chapter 8: Buck Converter Design and Performance Evaluation
- 23강 - Chapter 8: Phase Margin and Transient Responses
- Solution to End of Chapter 8 Problem
- 24강 - Chapter 8: Term Project: Control Design and Performance Evaluation
- [학부강의] 전자회로1 (2013S_최병조)
- 1강 : Introduction to Electronics
- 2강 : Concept and Circuit Model of Amplifier
- 3강 : Semiconductor Basics
- 4강 : Pn Junction and Forward/Reverse Biasing
- 5강 : Ideal Diode and Juction Diode
- 6강 : Circuit Models for Junction Diode
- 7강 : Small-Signal Modeling of Diode
- 8강 : Zener Diode and Voltage Regulator
- 9강 : Dc Power Supplies and Rectification Circuits
- 10강 : Full-Wave Rectiers, Clippers, and Clampers
- 11강 : Help Session for Test One
- 12강 : BJT Structure and Physical Operation
- 13강 : BJT Voltage and Current Characteristics
- 14강 : BJT as a Switch and Amplifier
- 15강 : BJT Amplifier Graphical Analysis and Small-Signal Modeling
- 16강 : BJT Small-Signal Circuit Models
- 17강 : Biasing Circuits and BJT Amplifiers
- 18강 : BJT Amplifier Analysis
- 19강 : CB and CC BJT Amplifiers
- 20강 : MOSFET Structure and Physical Operation
- 21강 : Help Session for Test Two
- 22강 : MOSFET Channel Length Modulation
- 23강 : MOSFET Small-Signal Model
- 24강 : MOSFET Amplifier Basics
- 25강 : MOSFET Amplifier Analysis I
- 26강 : MOSFET Amplifier Analysis II
- 27강 : Help Session for Final Exam
- [학부강의] 논리회로 (2015S_한동석)
- [학부강의] 논리회로 (2010S_박준구)
- 전자회로2 (2020 1학기 최병조)
- 소프트웨어 분야
- Quantum-dot based NIR/SWIR Image sensor
- [학부강의] C프로그래밍과 실습 (2016S_한동석)
- <20160309> C프로그래밍과 실습 제 1강
- <20160316> C프로그래밍과 실습 제 2강
- <20160323> C프로그래밍과 실습 제 3강
- <20160330> C프로그래밍과 실습 제 4강
- <20160406> C프로그래밍과 실습 제 5강
- <20160413> C프로그래밍과 실습 제 6강
- <20160413> C프로그래밍과 실습 제 7강
- <20160504> C프로그래밍과 실습 제 8강
- <201605011> C프로그래밍과 실습 제 9강
- <20160518> C프로그래밍과 실습 제 10강
- <20160525> C프로그래밍과 실습 제 11강
- <20160601> C프로그래밍과 실습 제 12강
- Quantum-dot based NIR/SWIR Image sensor
- 응용시스템 분야
- 선형대수 (Undergraduate Live Notes, 2021 Spring, 최병조)
- 제1강 030521
- 제2강: 030821
- 제3강:031221
- 제4강: 031521
- 제5강-031921
- 제6강_032221
- 제7강_032621
- 제8강_032921
- 제9강_040221
- 제10강_040521
- 제11강_040921
- 졔12강_041221
- 제13강_041621
- 제14강_Eigenvalues, Eigenvectors, and Characteristic Equation
- 제15강_ Diagonalization
- Lecture_16: Application to Differnce/Differential Equations
- Lecture 17: Section 6.1 - Orthogonality and Least Squares
- Lecture 18: Section 6.2 - Orthogonal Set
- Lecture 19: Section 6.3 Orthogonal Projection onto Subspace
- Lecture 20: Section 6.4 Gram- Schmidt Process and Least Squares Problem
- Lecture 21: Sections 6.5 and 6.6 - QR Factorization and Least Squares LInes
- Lecture 22: Help Session-I
- Lecture 23: Help Session II
- Lecture 24: Sections 7.1 and 7.4 - Symmetric Matrices and Quadratic Forms
- 자동제어 (Class Video, 2021 1학기 최병조)
- 자동제어 1강: 030321
- 제2강:030821
- 제3강: 031021
- 제4강_031521
- 제5강_031721
- 제6강_032221
- 제7강: 032421
- 혼합강의 안내
- 제8강_032921
- 제9강 Video강의_033121
- 제9강 Screen 강의_033121
- 제10강: 040521
- 제11강: 040721
- 제12강_041221
- 제13강: 041421
- 제14강_042621_Frequency Response Method
- 제15강: Bode Plot of Transfer Functions
- Lecture_16: Bode Plot Details
- Lecture 17: Polar Plot and Nyquist Analysis
- Lecture 18: Contour Mapping and Cauchy Theorem
- Lecture 19: Nyquist Stability Criterion
- Lecture 20: Simplified Nyquist Stability Criterion
- Lecture 21: Relative Stability - Stability Margins
- Lecture 22: Equivalent Second-Order System
- Lecture 23: Frequency-Response Design Method - The Loop Gain Shaping Method
- Lecture 24: Loop Gain Shaping and Feedback Compensation Structure
- Lecture 25: PID Compensation Design Example
- [학부강의] 통신이론 (2015F_한동석)
- 선형대수 (Undergraduate Live Notes, 2021 Spring, 최병조)
- 기타
- 디바이스 분야
- 대학원 강좌
- 디바이스 분야
- 스마트 윈도우 기술 동향 및 응용_오승원 교수님
- OLED 광학 기술 이슈와 원리 및 기술 동향B
- OLED 광학 기술 이슈와 원리 및 기술 동향A
- [대학원 기반과목] 전자물성 (2021S_이정희)
- [제 1강] Basic Semiconductor Properties
- [제 2강] Crystal structure
- [제 3강] Elements of Quantum Mechanics (1)
- [제 4강] Elements of Quantum Mechanics (2)
- [제 5강] WKB methods, Tunneling
- [제 6강] Energy Band Theory (1)
- [제 7강] Energy Band Theory (2)
- [제 8강] Energy Band Theory (3)
- [제 9강] Equilibrium Carrier Stastistics
- [제 10강] Recombination-Generation Process
- [제 11강] Carrier Transport (1)
- [제 12강] Carrier Transport (2)
- [제 13강] Carrier Transport (3)
- [대학원 기반과목] 전자장론(2019S_이승열)
- [1강] Static Electric Fields
- [2강] Static Electric Fields
- [3강] Solution of Electrostatic Problems
- [4강] Solution of Electrostatic Problems
- [5강] Staic Magnetc Fields
- [6강] Static Magnetic Fields
- [7강] Time-Varying Fields and Maxwell’s Equations
- [8강] Static Magnetic Fields
- [9강] Time-Varying Fields and Maxwell’s Equations
- [10강] Time-Varying Fields and Maxwell’s Equations -1
- [10강] Time-Varying Fields and Maxwell’s Equations -2
- [11강] Plane Electromagnetic Waves -1
- [11강] Plane Electromagnetic Waves -2
- [대학원 기반과목] 기초현대광학(2019S_최무한)
- 1강: Introduction
- 2강: Ray optics - Lens & Mirror
- 3강: Ray optics - Transfer Matrix & Resonator, Wave optics - Maxwell\'s equation
- 4강: Wave optics
- 5강: Wave optics
- 6강: Beam optics
- 7강: Fourier optics
- 8강: Fourier optics
- 9강: Electromagnetic Optics
- 10강: Electromagnetic Optics
- 11강: Reflection and polarization
- [대학원 기반과목] 반도체소자특성(2019S_박홍식)
- 1강 : Class overview and introduction
- 2강: Review the last lesson, band energy & band gap
- 3강: Drawing band diagram and Basic equation for SC device physics
- 4강: Metal Insulator SC Capacitors and MOSFET
- 5강: Metal oxide semiconductor field effect transistor
- 6강: Device scaling and short-channel effects
- 7강: Short-channel effects and FET scaling rule
- 8강: Metal oxide semiconductors Memory
- 9강: DRAM
- 10강: MOS memory
- 11강: Photodetectors and solar cells
- 12강: Photoconductor and Photodiodes
- [대학원 기반과목] 전자물성 (2018F_김학린)
- [1주차] Class overview and introduction to semiconductors
- [2주차] The crystal structure of semiconductors
- [3주차] Basics of quantum mechanics for semiconductors (1)
- [4주차] 휴강: 추석연휴
- [5주차] Basics of quantum mechanics for semiconductors (2)
- [6주차] Equlibrium carrier statics (1) - Density of states
- [7주차] 휴강: 학부 중간고사
- [8주차] Equilibrium carrier statics (2) - Equilibrium carrier concentration
- [9주차] Equlibrium carrier statics (3) : Concentration and Fermi level calculations, Determination of Fermi level
- [10주차] Recombination-generation processes
- [11주차] Carrier transport (1) - Drift
- [12주차] Carrier transport (2) - Diffusion
- [13주차] 휴강: 출장
- [14주차] Carrier transport (3) - Continuity equations and diffusion equations
- [15주차] Carrier transport (3) - Continuity equations and diffusion equations 2
- [대학원 기반과목] 기초현대광학 (2018S_최무한)
- [대학원 기반과목] 반도체소자특성 (2018S_박홍식)
- [2주차] Introduction & Basics for understanding the properties of semiconductor devices
- [3주차] Review of semiconductor physics, drawing and understanding band diagrams
- [4주차] Review of semiconductor physics, Metal-semiconductor junctions and characterization
- [5주차] Metal-semiconductor junctions and characterization, Metal-insulator-semiconductor capacitors
- [6주차] Metal-semiconductor junctions and characterization, Metal-insulator-semiconductor capacitors (2)
- [7주차] Short channel effects, DIBL
- [8주차] 휴강; 중간고사
- [9주차] 휴강
- [10주차] MOS Memory
- [11주차] 휴강 (어린이날 대체공휴일)
- [12주차] MOS memory – NON-volatile Memory(Flash memory)
- [13주차] MOS memory – NON-volatile Memory(Flash memory) (2)
- [14주차] 휴강(개교기념일)
- [15주차] Photodetectors and solar cells
- [16주차] Photoconductor, photodiode, phototransistor
- [대학원 기반과목] 전자물성 (2017F_이정희)
- Basic Semiconductor Properties
- Elements of Quantum Mechanics
- Energy Band Theory
- Energy Band Theory (Remind)
- Energy Band Theory
- Equilibrium Carrier Statistics
- Equilibrium Carrier Statistics
- Recombination-Generation Process
- Recombination-Generation Process
- Carrier Transport
- Carrier Transport
- Carrier Transport
- [대학원 기반과목] 전자장론 (2017F_김채영)
- [대학원 기반과목] 반도체 소자 특성 (2017S_강인만)
- Electrons and Holes in Semiconductors (1)
- 2강. Electrons and Holes in Semiconductors (2)
- 3강. Electrons and Holes in Semiconductors (3) & Motion and recombination of electrons and holes
- 4강. Motion and Recombination of Electrons and Holes & MOS capacitor
- 5강. Motion and recombination of electrons and holes
- 6강. Motion ans Recombination of electrons and holes (2)
- 7강. 1T-DRAM을 중심으로 바라본 DRAM 개발 및 연구동향
- 8강. 1T-DRAM을 중심으로 바라본 DRAM 개발 및 연구동향
- 9강. 1T-DRAM을 중심으로 바라본 DRAM 개발 및 연구동향
- 10강. 1T-DRAM을 중심으로 바라본 DRAM 개발 및 연구동향
- 11강. GaN Devices
- [대학원 기반과목] 전자물성 (2016F_이정희)
- Basic Semiconductor Properties
- Elements of Quantum Mechanics
- Energy Band Theory (1)
- Energy Band Theory (2) & Equilibrium Carrier Statistics(1)
- Equilibrium Carrier Statistics(2)
- Equilibrium Carrier Statistics(3) & Recombination-Generation Process(1)
- Recombination-Generation Process(2)
- Recombination-Generation Process(3)
- Carrier Transport(1)
- Carrier Transport(2)
- Boltzmann transport equation
- Boltzmann transport equation(2)
- Boltzmann transport equation(3)
- [대학원 기반과목] 반도체소자특성 (2016S_김대현)
- 신호 및 회로 분야
- [대학원 기반과목] 형태인식론 (2020F_장길진)
- 1강: Introduction to Pattern Recognition part 1
- 2강: Introduction to Pattern Recognition part 2
- 3강: Introduction to Pattern Recognition part 3
- 4강: Probability Theory and Random Variables
- 5강: Continuous Random Variables and Bayes Rules
- 6강: Gaussian Distribution
- 7강: Bayesian Decision Theory and k-Nearest Neighbors Classifier
- 8강: Parameter Estimation and Naive Bayes Classifier
- 9강: Iris Flower Dataset
- 10강: Holdout Validation
- 11강: Cross Validation
- 12강: Normal Random Variable
- 13강: Linear Classifier Design Using Normal Density Functions
- 14강: Quadratic Classifier Design Using Normal Density Functions
- 15강: Principal Component Analysis
- 16강: Linear Discriminant Analysis
- [대학원 기반과목] 형태인식론 (2019F_장길진)
- Introduction
- Probability and Statistics
- Bayesian Decision Theory & Cross Validataion
- Normal Random Variable and Its Discriminant Function Designs
- Principal Component Analysis
- Support Vector Machines
- Unsupervised clustering
- Unsupervised clustering
- Perceptron, Logistic Regression, Multi Layer Perceptron
- Handwritten Digit(MNIST) Recognition Using Deep Neural Networks
- Dynamic time warping dynamic pattern recognition
- [대학원 기반과목] 전자회로론(2019S_함성호)
- 1강: 반도체 시장의 흐름, MOS 트랜지스터의 원리
- 2강: P MOS, N MOS 트랜지스터의 원리.
- 3강: MOS device model (소신호 모델, 대신호 모델) 개념 설명
- 4강: CMOS Amplifiers
- 5강: CMOS Amplifiers (common Gate stage, source follower)
- 6강: Cascode Stages and current Mirrors
- 7강: Differential Amplifiers
- 8강: Frequency Response
- 9강: Frequency response of cascode stage
- 10강: Feedback
- 11강: Feedback
- 12강: Feedback
- 13강: Feedback, term presentation
- 14강: term presentation
- [대학원 기반과목] 확률과정론(2019S_진성일)
- 1강: Experiments, Models, and Probabilities
- 2강: Exprimts, Models, and Probabilities
- 3강: Exprimts, Models, and Probabilities, Discrete Random Variables
- 4강: Discrete Random Variable
- 5강: Continuous Random Variables
- 6강: Continuous Random Variables
- 7강: Continuous Random Variables, Pairs of Random Variables
- 8강: Continuous Random Variables, Pairs of Random Variables
- 9강: Pairs of Random Variables
- 10강: Pairs of Random Variables, Random Vectors
- 11강: Random Vectors, Sums of Random Variables
- 12강: Sums of Random Variables, Parameter Estimation using the Sample Mean
- Parameter Estimation using the Sample Mean
- [대학원 기반과목] 형태인식론 (2018F_장길진)
- 1강: Introduction to Pattern Recognition
- 2강: Probability Theory and Probabilistic Decision Theory
- 3강: Bayesian Decision Theory
- [4주차] 휴강: 추석연휴
- 5강: Clustering and K-means Clustering
- [6주차] 휴강: 한글날
- [7주차] 휴강: 학부 중간고사
- 8강: Normal Random Variable and Its Discriminant Function Designs
- 9강: Gaussian Mixture Models and Cross Validation
- 10강: Support Vector Machines
- 11강: Principal Component Analysis
- [12주차] 휴강
- 13강: Single-Layer Linear Perceptron and Multi-Layer Perceptron
- 14강: Handwritten Digit(MNIST) Recognition Using Deep Neural Networks
- [15강] Handwritten Digit(MNIST) Recognition Using Deep Neural Networks
- [대학원 기반과목]디지털신호처리(2018F_한동석)
- [대학원 기반과목] 디지털신호처리 (2018S_배건성)
- [1주차] Introduction and Sampling Theorem
- [2주차] Introduction and Sampling Theorem
- [3주차] DISCRETE-TIME SIGNALS AND SYSTEMS
- [4주차] DIGITAL FILTERS
- [5주차] Convolution
- [6주차] Quiz #1
- [7주차] FIR/IIR filter, window functions
- [8주차] 휴강; 중간고사
- [9주차] FIR, IIR 필터 설계
- [10주차] 휴강
- [11주차] Notch filter
- [12주차] DTMF
- [13주차] 휴강 (석가탄신일)
- [14주차] DTMF Term Project 보고서 제출 및 발표
- [대학원 기반과목] 형태인식론 (2017F_장길진)
- Basic Probability Theory
- Basic Probability Theory
- Bayesian Inference and Decision Theory
- Pattern Recognition and Bayesian Decision Theory
- Perceptron and SVM for Pattern recognition
- Support Vector Machines
- Principle Component Analysis (PCA)
- Unsupervised Learning
- Gaussian mixture model
- assignment # 3 discussion
- Deep neural networks
- Dynamic time warping
- Recurrent Neural Networks
- [대학원 기반과목] Advanced Digital Communications (2017F_한동석)
- 1강[Part 1] - Inroduction(digital Communication)
- 1강[Part 2] - Inroduction(digital Communication)
- 2강[Part 1] - Sampling theory, Fourier Transform
- 2강[Part 1] - Linecoding
- 3강[Part 1] - Pulse Shaping & AWGN
- 3강[Part 2] - Pulse Shaping & AWGN
- 3강[Part 3] -Pulse Shaping & AWGN
- 4강[part 1] - Matched filter
- 4강[part 2] - Matched filter
- 5강[part 1] - Probabilistic Detection
- 5강[part 2] - Probabilistic Detection
- 5강[part 1] - Probabilistic Detection
- 6강[part 1] - Digital Modulation
- 6강[part 2] - Digital Modulation
- 7강- Digital Modulation
- 8강[part 1] - FSK, OFDM
- 8강[part 2] - FSK, OFDM
- 8강[part 3] - FSK, OFDM
- 11강[part 1] - IEEE 802.11 a/p Wireless LAN
- 11강[part 2] - IEEE 802.11 a/p Wireless LAN
- 12강[part 1] - STBC & MIMO
- 12강[part 2] - STBC & MIMO
- [대학원 기반과목] 기초현대 광학 (2017S_이승열)
- [대학원 기반과목] 확률과정론 (2017S_진성일)
- Experiments, models, and probabilities
- 2강. Experiments, models, and probabilities
- 3강. Discrete Random Variable
- 4강. Discrete Random Variable
- 5강. Continuous Random Variables
- 6강. Continuous Random Variables
- 7강. chapter 3. (Ogata textbook)
- 8강. Pairs of Random Variables
- 9강. Random Vectors
- 10강. Sums of Random Variables, Parameter Estimation Using the Sample Mean
- 11강. Parameter Estimation Using the Sample Mean
- [대학원 기반과목] Advanced Digital Communications (2017S_한동석)
- Lecture01 : Introduction, Sampling theory
- lecture2 : Fourier Transform, Power spectrum
- lecture3 : Baseband communication
- lecture 4 : Line coding, Pulse shaping
- Lecture 5 : Introduction to SDR : Principles, Challenges, opportunities
- lecture 6 : Probabilistic Detection, White nosise, Matched filter
- lecture 7 : IEEE802.11a / IEEE802.11p PHY
- lecture8 : DQPSK, CPFSK, GMSK
- lecture 9 : OFDM
- lecture 10 : Channel Capacity
- Lecture 11 : IEEE 802.11a/p
- lecture 12 : Channel coding
- lecture 13 : Channel Coding & Decoding - Convolutional code TCM
- Lecture 14 : Analysis of H-STBC & LDC MIMO
- [대학원 기반과목] Power Conversion Circuits: DC Power Conversion Systems (2017S_최병조)
- Lecture 01: Introdution to dc power conversion systems - I
- Lecture 02: Introdution to dc power conversion systems - Ⅱ
- Lecture 03: Introdution to dc power conversion systems - III
- Lecture 04: PWM converter modeling and power stage dynamics - I
- Lecture 05: PWM converter modeling and power stage dynamics - II
- Lecture 06: PWM converter modeling and power stage dynamics - III
- Lecture 07: PWM converter modeling and power stage dynamics - IV
- Lecture 08: Dynamic performance of PWM Dc-to-Dc Converters - I
- Lecture 09: Dynamic performance of PWM Dc-to-Dc Converters - II
- Lecture 10: Closed-Loop Performance and Feedback Compensation-I
- Lecture 11: Closed-Loop Performance and Feedback Compensation-II
- Lecture 12: Closed-Loop Performance and Feedback Compensation-III
- Lecture 13: Closed-Loop Performance and Feedback Compensation-IV
- Lecture 14: Midterm Project
- Lecture 15: Current mode control-functional basics and classical analysis - I
- Lecture 16: Current mode control-functional basics and classical analysis - II
- Lecture 17: Current mode control-functional basics and classical analysis - III
- Lecture 18: Current mode control-sampling effects and new control design procedures - I
- Lecture 19: Current mode control-sampling effects and new control design procedures - II
- Lecture 20: Current mode control-sampling effects and new control design procedures - III
- Lecture 21: Current mode control-sampling effects and new control design procedures - IV
- Lecture 22: Current mode control-sampling effects and new control design procedures - V
- Lecture 23: Uncoupled converter and extra element theorem-I
- Lecture 24: Uncoupled converter and extra element theorem-II
- Lecture 25: Final Term Project
- [대학원강의] 공진형 전력변환: 동특성 해석 과 제어기 설계 (2012F_최병조)
- 1강: Introduction to Resonant Power Conversion
- 2강: Fundamentals of RLC Resonant Circuits - I
- 3강: Fundamentals of RLC Resonant Circuits - II
- 4강: Fundamentals of Resonant Power Invesion/Conversion
- 5강: General Structure of Resonant Inversion Circuits
- 6강: Fundamentals of Series Resonant Converters
- 7강: Sinusoidal Analysis of Resonant Converters
- 8강: Load Dependent Characeristics of Resonant Converters
- 9강: Zero Voltage Switching and Zero Current Switching
- 10강: An Ultra Low-Profile Series Resonant Converter
- 11강: LLC Resonant Inverter Design Example - I
- 12강: LLC Resonant Inverter Design Example - II
- 13강: Power Stage Dynamics of Series Resonant Converters
- 14강: Dynamic Performance of Dc-to-Dc Converters
- 15강: Opto-Coupler Isolated Feedback Circuits
- 16강: Dynamics and Control of Series Resonant Converters
- 17강: Voltage Mode Control of Series Resonant Converters
- 18강: Current Mode Control of Series Resonant Converters
- 19강: Basics of Discrete-Time Systems
- 20강: Discrete-Time System Transfer Functions
- 21강: Design Method using Discrete Equivalents
- 22강: Discrete-Time Compensation Design
- [대학원강의] 선형계통론 (2016F_양정민)
- 1. Course outline, Mathematical descriptions of system
- 2. Linearization, Jacobian matrix, etc.
- 3. Linear Algebra (1)
- 4. Linear Algebra (2)
- 5. State-Space solutions and Realization (1)
- 6. State-Space solutions and Realization (2)
- 7. Stability
- 8. Internal Stability
- 9. Controllability and Observability
- 10. Observability
- 11. Canonical Decompositions
- 12. Regulation and Tracking with Robustness (1)
- 13. Regulation and Tracking with Robustness (2)
- [대학원강의] 영상신호처리 (2016F_최두현)
- [대학원 기반과목] 전자장론 (2016F_김채영)
- 1. Vector 요약, Delta Function
- 2. Gauss`s Law, Step Response
- 3. RL circuit, Jordan`s lemma
- 4. step response, Impulse response, 점전하 전위계산, Green Function
- 5. 전송선, Average power, Smith chart
- 6. 정합문제, Smith chart, Y-chart
- 7. Smith chart, Transient response
- 8. Faraday\'s Low, Lenz\'s Low
- 9. 에너지 보존법칙, Moving Loop, Electromotive Force
- 10. 암페어 법칙, BJT
- 11. Vector potential, 변압기, 준자장
- 12. 연습문제 풀이
- 13. 파동, snell\'s law
- 14. RFID, Polarization
- [대학원강의] 기초현대광학 (2016S_최무한)
- 1. Ray Optics
- 2. Wave Optics
- 3. Geometrical optics
- 4. Nonlinear optics
- 5. Diffraction , Interference (Holography), and Tomography
- 6. Difference equation for ray position
- 7. Phasor-domain
- 8. RLC circuit
- 9. Wave Optics
- 10. Helmholtz Equation
- 11. Paraxial wave
- 12. Wave Interference
- 13. Fourier optics
- 14. Application of fourier optics
- [대학원강의] 확률과정론 (2016S_홍순목)
- [대학원강의] 디지털신호처리 / Digital Signal Processing (DSP) (2016S_하영호)
- 1. Introduction
- 2. Analog Signals and Systems (1)
- 3. Analog Signals and Systems (2)
- 4. Sampling (1)
- 5. Sampling (2) and Signal Reconstruction
- 6. Interpolation and Quantization
- 7. DFT and FFT (1)
- 8. DFT and FFT (2)
- 9. Truncation and The z-tranform (1)
- 10. The z-transform (2) and Discrete-time Systems
- 11. Discrete-time Systems and Stability
- 12. Realization Structures
- 13. Linear Phase FIR Systems and Structures
- 14. Lattice Structure Realization
- 15. FIR Filter Design (1)
- 16. FIR Filter Design (2)
- 17. IIR Filter Design (1)
- 18. IIR Filter Design (2)
- 19. Advanced Topics on DSP (1)
- 20. Lecture Material: Advanced Topics on DSP (2)
- [대학원 기반과목] 형태인식론 (2020F_장길진)
- 소프트웨어 분야
- [대학원 기반과목] 데이터 공학(2019S_박종희)
- 1강: Information processing
- 2강: 데이터를 저장 및 표현하는 방법
- 3강: 데이터베이스화의 중요성 및 종류
- 4강: DBMS의 쿼리 및 구조
- 5강: 관계들을 분류하기 위한 구조
- 6강: Data Set을 위한 Key의 활용
- 7강: Database에서 관계 표현 및 operations의 활용
- 8강: Algebra operators와 SQL의 활용
- 9강: Internet Applications
- 10강: Storage of data and Indexing
- 11강: Hash Indexing and Transaction Management
- 12강: Lock management and Normal forms
- 13강: Deductive Database and Datalog
- 14강: Data mining and Spatial data
- [대학원 기반과목] 컴퓨터통신망특론 (2018F_조유제)
- [1주차] Computer Networks and the Internet
- [2주차] Application Layer
- [3주차] Socket Programming
- [4주차] 휴강: 추석연휴
- [5주차] 휴강: 개천절
- [6주차] Transport Layer
- [7주차] 중간고사
- [8주차] Network Layer: Data Plane
- [9주차] Network Layer: Control Plane
- [10주차] Link Layer and LANs
- [11주차] Link Layer and LANs (2)
- [12주차] Link Layer and LANs (3)
- [13주차] Wireless and Mobile Networks
- [14주차] 휴강
- [15주차] Chapter 7-2 Wireless and Mobile Networks
- [대학원 기반과목] Programming 실습 (2016F_ 조정훈)
- [대학원 기반과목] 컴퓨터통신망특론 (2016S_조유제)
- 1. Computer Networks and the Internet
- 2. Application Layer Protocols
- 3. Socket Programming
- 4. Transport Layer (1)
- 5. Transport Layer (2)
- 6. Transport Layer (3)
- 7. Network Layer (1)
- 8. Network Layer (2)
- 9. Packet Tracer 실습
- 10. Network Layer (3)
- 11. Link Layer (1)
- 12. Link Layer (2)
- 13. Wireless and mobile networks
- [대학원 기반과목] 데이터 공학(2019S_박종희)
- 응용시스템 분야
- [대학원 기반과목] 오디오공학론 (2022S_이석진)
- 1강: Introduction, Acoustic Variables and Basic Relations (part1)
- 1강: Introduction, Acoustic Variables and Basic Relations (part2)
- 2강: Spherical Waves and Sound Radiation (part1)
- 2강: Spherical Waves and Sound Radiation (part2)
- 3강: Reflection and Transmission (1)
- 4강: Reflection and Transmission (2) and Absorption, Diffraction, and Scattering (1)
- 5강: Absorption, Diffraction, and Scattering (2) and Sound Transmission in Pipes and Horns (1) (part1)
- 5강: Absorption, Diffraction, and Scattering (2) and Sound Transmission in Pipes and Horns (1) (part2)
- 6강: Sound Transmission in Pipes and Horns (2) (part1)
- 6강: Sound Transmission in Pipes and Horns (2) (part2)
- 6강: Sound Transmission in Pipes and Horns (2) (part3)
- 7강: Human Hearing (1) (part1)
- 7강: Human Hearing (1) (part2)
- 8강: Human Hearing (2) (part1)
- 8강: Human Hearing (2) (part2)
- 9강: Room Acoustics (1) (part1)
- 9강: Room Acoustics (1) (part2)
- 9강: Room Acoustics (1) (part3)
- 10강: Room Acoustics (2) (part1)
- 10강: Room Acoustics (2) (part2)
- 10강: Room Acoustics (2) (part3)
- 11강: Building Acoustics (part1)
- 11강: Building Acoustics (part2)
- 11강: Building Acoustics (part3)
- 12강: Electromechanical Analogy and Electroacoustic Transducers (part1)
- 12강: Electromechanical Analogy and Electroacoustic Transducers (part2)
- 12강: Electromechanical Analogy and Electroacoustic Transducers (part3)
- 13강: Some Examples of Electroacoustic Transducers (part1)
- 13강: Some Examples of Electroacoustic Transducers (part2)
- 13강: Some Examples of Electroacoustic Transducers (part3)
- 14강: 3D Audio (part1)
- 14강: 3D Audio (part2)
- 14강: 3D Audio (part3)
- 컴퓨터지원 광기계 설계 (2022S_한준구)
- 메타표면 기반 초박막 평면광학 기술 노준석 교수님
- 홀로그래픽 기술 개요, 동향 및 응용 강훈종 교수님
- Design of Smart Materials using Liquid Crystallinity_포스텍 김영기 교수님
- [대학원 기반과목] 기초현대광학 (2020S_이승열)
- 1강: Introduction
- 2강: Ray optics (1)
- 3강: Ray optics (2)
- 4강: Wave optics (1)
- 5강: Wave optics (2)
- 6강: Beam potics
- 7강: Fourier optics (1)
- 8강: Fourier optics (2)
- 9강: Electromagnetic optics (1)
- 10강: Electromagnetic optics (2)
- 11강: Polarization optics (1)
- 12강: Polarization optics (2)
- 13강: Waveguide optics (1)
- 14강: Waveguide optics (2)
- [대학원 기반과목] 선형계통론 (2019F_허성호)
- Introduction & Mathematical Models of Systems
- Mathematical Models of Systems
- Mathematical Descriptions of Systems
- Mathematical Descriptions of Systems & Linear Algebra
- State-Space Solutions and Realisations
- Stability
- Controllability and Observability
- Controllability and Observability
- State Feedback and State Estimators
- Introduction to Optimal Control and Estimation
- [대학원 기반과목]Digital Control System(2019S_칼리아나 차크라바르띠 벨루볼루)
- 1강 Introduction To Digital Control System
- 2강 Basic Concept of Digital control system
- 3강 Numerical Approximation Techniques.
- 4강 Z-Transform
- 5강 Mapping Between s and Z planes
- 6강 Analysis Techniques
- 7강 Analysis techniques and Feedback Control Design
- 8강 Design Techniques
- 9강 Introduction to state space design methods
- 10강 State Space Design Methods
- 11강 State Space Design Methods2
- 12강 State Space Design method 2(Observability)
- 13강 State Space Design 3 (Observer design)
- 14강 State Space Design(4) Combined Control Law and Observer
- 15강 Optimal Control
- [대학원 기반과목] 광정보처리개론 (2018F_한준구)
- [1주차] Introduction
- [2주차] Analysis of 2-Dimensional Signals and Systems
- [3주차] Foundations of Scalar Diffraction Theory
- [4주차] Fresnel and Fraunhofer Diffraction
- [5주차] Experiment on interferometer
- [6주차] Frequency analysis of optical imaging system
- [7주차] 휴강: 학부 중간고사
- [8주차] 광정보처리개론 중간고사
- [9주차] Matlab을 이용한 광정보처리
- [10주차] Analog Optical Information Processing
- [11주차] Holography
- [12주차] Signal & Noise in Digital Holography (1)
- [13주차] Signal & Noise in Digital Holography (2)
- [14주차] 기말고사
- [대학원 기반과목] 선형계통론 (2018F_허성호)
- [1주차] Introduction & Mathematical Models of Systems
- [2주차] Mathematical Models of Systems
- [3주차] Mathematical Models of Systems
- [4주차] 휴강: 추석연휴
- [5주차] Mathematical Descriptions of Systems
- [6주차] Mathematical Descriptions of Systems
- [7주차] State-Space Solutions and Realisations
- [8주차] Mid-term Exam
- [9주차] Stability
- [10주차] Controllability and Observability
- [11주차] State Feedback and State Estimators
- [12주차] 휴강
- [13주차] State Feedback and State Estimators
- [14주차] Revision
- [15주차] Presentation Session 1
- [대학원 기반과목] 디지털제어시스템 (2018S_김민영)
- [2주차] Introduction to digital control systems
- [3주차] Discrete System Analysis - Discrete Signals
- [4주차] Discrete System Analysis - Discrete Signals
- [5주차] Discrete System Analysis - SAMPLED DATA SYSTEMS
- [6주차] Discrete System Analysis - SAMPLED DATA SYSTEMS
- [7주차] 휴강
- [8주차] 휴강; 중간고사
- [9주차] Term Project Proposal
- [10주차] Design of Discrete-Time Control Systems by Conventional Methods
- [11주차] 중간시험
- [12주차] Discrete Equivalents
- [13주차] 휴강 (석가탄신일)
- [14주차] Modeling of discrete-time control systems
- [15주차] 프로젝트 최종 발표
- [대학원 기반과목] 영상신호처리 (2017F_최두현)
- [대학원 기반과목] 선형계통론 (2017F_양정민)
- Mathematical descriptions of system I
- Mathematical descriptions of system II
- Linear algebra I
- Linear algebra II
- State-Space Solutions and Realizations
- tate-Space Solutions and Realizations II
- Stability
- Controllability and Observability
- State Feedback and State Estimators
- State Feedback and State Estimators II
- State Estimation and Optimal Control
- [대학원 기반과목] 디지털제어시스템 (2017S_김민영)
- Introduction to Digital Control System
- 2강. Discrete system analysis - Discrete signal
- 3강. Discrete system analysis - Discrete signals
- 4강. Discrete system analysis - Sampled data systems
- 5강. Discrete system analysis - Sampled data systems
- 6강. Discrete system analysis - Sampled data systems
- 7강. Discrete system analysis - Sampled data systems
- 8강. Discrete Equivalents
- 9강. Discrete Equivalents
- 10강 . DESIGN USING TRANSFORMATION TECHNIQUE
- [대학원 기반과목] 디지털제어시스템 (2016S_김민영)
- 1. Introduction to digital control systems
- 2. Sampling and reconstruction
- 3. Z-transforms: definition, properties and theorems
- 4. Sampled Data Systems (1)
- 5. Sampled Data Systems (2)
- 6. Discrete Equivalents (1)
- 7. Discrete Equivalents (2)
- 8. Midterm
- 9. Design using Transformation Technique - Classical Method (1)
- 10. Design using Transformation Technique - Classical Method (2)
- 11. STATE-SPACE Analysis
- 12. State Space Analysis. Problems
- 13. State-Space Analysis
- 14. State-Space Analysis (cont)
- [대학원 기반과목] 안테나공학 (2006S_조영기)
- [대학원 기반과목] 오디오공학론 (2022S_이석진)
- 전기/에너지 분야
- Engineering Notes for Power Electronics, Electronics, and Circuit Theory
- EN062522: EMI Filter Interaction in Power Factor Corrected Rectifiers
- EN062622: Feedback Compensation Implementation-Part One
- EN071022: Input Resistance of PWM Dc-to-Dc Converters
- EN073122: Feedback Compensation Implementation-Part Two
- EN081222: Bode Plot and Asymptotic Method in Dynamic Analysis of PWM Power Conversion-The First Lecture
- EN082022: Bode Plot and Asymptotic Method in Dynamic Analysis of PWM Power Converter-The Seco
- EN082522: Bode Plot and Asymptotic Method in Dynamic Analysis of PWM Power Conversion-The Th
- EN090422: Frequency Response in PWM Converters
- EN091822: RHP zero in Boost and Buck-Boost Converters
- EN100122: Line Filter Basics
- EN100922: Line Filter Analysis and Design
- Dynamics and Control of PWM Converters (Second Course on The 3-Lecture Series in 2022 Spring)
- Lecture 01: Introduction to Course and Dynamic Performance of PWM Converters
- Lecture 02: Frequency-Domain Performance Metrics
- Lecture 03: Stability of LTI Systems
- Lecture 04: Contour Mapping and Cauchy Theorem
- Lecture 05: Nyquist Stability Criterion
- Lecture 06: Absolute Stability and Relative Stability
- Lecture 07: Asymptotic Analysis Method
- Lecture 08: Voltage Feedback Compensation
- Lecture 09: Loop Gain Shaping
- Lecture 10: Compensation Design Example
- Lecture 11: Guide to PSIM for Midterm Test
- Lecture 12: Impacts of Compensation Parameters
- Lecture 13: Current Mode Control Basics
- Lecture 14: Modeling Current Mode Control
- Lecture 15: 2022 Midterm Review
- Using Parameter File in PSIM
- Lecture 16: Loop Gain Analysis
- Lecture 17: Design of Current Mode Control
- Lecture 18: Performance of Current Mode Control
- Lecture 19: Boost Converter Design Example
- Lecture 20: Sampling Effects of Current Mode Control
- Lecture 21: s-Domain Model for Current Mode Control
- Lecture 22: He(s)-the rhp Double Zero
- Lecture 23: New Design Procedures for Current Mode Control
- Lecture 24: New and Classical Design Procedures
- Lecture 25: Off-Line Flyback Converter and Final Exam
- First Lecture Series on PWM Power Conversion: PWM Converter Modeling and Analysis
- Lecture 01 - Introduction to Lecture Series
- Lecture 02 - Buck Converter in Steady State
- Lecture 03 - Buck Converter under Closed-Loop Control
- Lecture 04 - Boost Converter Evolution
- Lecture 05 - Boost Converter Operation
- Lecture 06 - Flyback Converter Evolution
- Lecture 07 - Bridge-Type Converter Operation
- Lecture 08 - Forward Converter Operation
- Lecture 09 - PWM Converter Modeling
- Lecture 10 - Circuit Averaging Technique
- Lecture 11 - PWM Switch Model
- Lecture 12 - Small-Signal Model Extension
- Lecture 13 - Closed-Loop Converter Small-Signal Models
- Lecture 14 - Transfer Functions and Bode Plots
- Lecture 15 - Buck Converter Transfer Functions
- Lecture 16 - Boost Converter Transfer Functions
- Lecture 17 - Frequency-Domain Measurements and Simulations
- Lecture 18: Loop Gain Measurement
- Lecture 19: Loop Gain Measurement and Interpretation
- Engineering Notes for Power Electronics, Electronics, and Circuit Theory
- 공학논문 작성법
- [대학원 기반과목] 공학논문작성법(2022S_칼리아나 차크라바르띠 벨루볼루)
- Introduction
- Research Metrics
- How to search for publications
- Structure of Research publication
- Abstract writing
- Literature Review
- Qualitative vs Quantitative Research
- Introduction to LATEX
- Research Body
- Publishing and Review
- Cover Letter and Response to Reviewers
- Qualitative vs Quantitative Research
- [대학원 기반과목] 공학논문작성법 (2022S_도윤선)
- Technical Writing
- Technical Writing 03 Structure of paper
- Technical Writing_04_Writing tip
- Technical Writing 05 Abstract
- Technical Writing 06 Introduction (1)-1
- Technical Writing 07 Introduction (2)
- Technical writing_09 Method(2)
- Technical Writing 10 Result (1)
- Technical Writing 11 Result (2)
- Technical Writing 12 Discussion Conclusion
- Technical Writing 13 Revision
- Technical Writing 14 Reference Presentation
- [대학원 기반과목]공학논문작성법(2021F_칼리아나 차크라바르띠 벨루볼루)
- Introduction
- Research Metrics
- How to search for publications
- Structure of Research publication
- Abstract writing
- Literature Review
- Qualitative vs Quantitative Research
- Introduction to LATEX
- Research Body
- Publishing and Review
- Cover Letter and Response to Reviewers
- Presentations part 1
- Presentations part 2
- Qualitative vs Quantitative Research
- [대학원 기반과목] 공학논문작성법 (2019F_말리페디람모한)
- Introduction to writing Research papers
- Overview of Research and Research Methodologies
- Owning Your Research and Setting up Yourself for Success
- Literature Review and Researchable Topic Identification2
- Citation 2
- Research Hypotheses and Conducting Experiments2
- Quantitative and Qualitative Methods in Research
- Research Ethics
- Writing and Publishing Your Paper1
- Writing and Publishing Your Paper2
- Writing and Publishing Your Paper 3
- [대학원 기반과목] 공학논문 작성법(2019S_최무한)
- [대학원 기반과목] 공학논문작성법 (2018F_말리페디 람모한)
- [1주차] Introduction to writing Research papers
- [2주차] Overview of Research and Research Methodologies
- [3주차] Owning Your Research and Setting up Yourself for Success
- [4주차] 휴강: 추석연휴
- [5주차] Research Hypotheses and Conducting Experiments 1
- [6주차] 휴강: 한글날
- [7주차] Presentation from student as the Midterm
- [8주차] Literature Review and Researchable Topic Identification 2
- [9주차] Research Ethics
- [10주차] Quantitative and Qualitative Methods in Research 1
- [11주차] Writing and Publishing Your Paper1
- [12주차] Quantitative and Qualitative Methods in Research 2
- [13주차] Quantitative and Qualitative Methods in Research 2
- [14주차] Writing and Publishing Your Paper 2
- [15주차] Correspondences with Editors
- [대학원 기반과목] 공학논문작성법 (2018S_이승열)
- 0강. 강의진행방법과 강사 소개
- 1강. 공학논문작성법 소개
- 2강. Title & Abstract
- 3강. Abstract의 예시와 수정
- 4강. Outline 작성하기
- 5강. Outline과 Abstract 수정
- [8주차] 중간고사 기간
- 6강. 개인주제 발표
- 7강. Main Results
- 8강. English Writing Skills (1)
- 9강. English Writing Skills (2)
- 10강. English Writing Skills (3)
- [14주차] 휴강
- 11강. English writing skills (4)
- 12강. English Writing Skills (5)
- [대학원 기반과목] 공학논문작성법 (2017F_말리페디 람모한)
- Overview of Research and Research Methodologies
- Owning your Research and Setting up Yourself for Success
- Literature Review and Researchable Topic Identification1
- Literature Review and Researchable Topic Identification2
- Research Hypotheses and Conducting Experiments1
- Quantitative and Qualitative Methods in Research1
- Writing and Publishing Your Paper1
- Writing and Publishing Your Paper2 And Correspondences with Editors
- Quantitative and Qualitative Methods in Research2
- Assignment
- Correspondences with Editors and Final presentation1
- Correspondences with Editors and Final presentation2
- Workshop on Paper/Thesis/Dissertation Writing and Final presentation3
- Final presentation4
- <10주차 보강> Correspondences with Editors and Final presentation2 (makeup class of 10th week)
- <14주차 보강> Final presentation4 (makeup class of 14th week)
- [대학원 기반과목] 공학논문작성법 (2017S_박홍식)
- [대학원 기반과목] 공학논문작성법 (2016F_최무한)
- [대학원 기반과목] 공학논문작성법 (2016S_박홍식)
- [대학원 기반과목] 공학논문작성법(2022S_칼리아나 차크라바르띠 벨루볼루)
- 디바이스 분야
- 기본소양 강좌
- 최신 기술 동향
- 산화환원 전해 이온수를 이용한 물걸레 청소기 및 이를 포함하는 물걸레 청소기 세트
- 저가형 라이다 깊이정보의 업샘플링에 기반한 실내외 환경의 초고해상도 3차원 스캐닝 방법
- 디스플레이 화각 능동스위칭 광스티어링 필름
- 온라인 교육 시스템 기반 문제 출제 및 채점 자동화 솔루션
- Lifetime Maximization in Directional Sensor Networks
- [2018.02.20] Flagship 디지털동반자 세실리아 프로젝트 워크샵
- [딥러닝 집중교육] 인공지능의 현재와 미래
- 2017 8th Korea International Summer School on Nanoelectronics (Nano-KISS)
- 01. 2D materials and devices_Prof. Athanasios
- 04. Tunnel Field Effect Transistors for Ultra Low Power Electronics_Prof. Siegfried Mantl
- 02. Proton-induced radiation effects in advanced CMOS devices and hardening solutions_Dr. Federico Faccio
- 03. Moores Law, past, current and future technologies to boost integrated in circuit performance_Prof. Jean-Pierre Colinge
- 05. Spin-based transistors_Dr. Hyun Cheol Koo
- 07. Variability issues in upcoming CMOS nodes_Prof. Asen Asenov
- 08. MBE growth of ordered III-Nitride nanomicrorods, basic aspects and applications to light source, nano transistors and pseudosubstrates_Prof. Enrique Calleja Pardo
- 09 .Oxide TFTs for future display_Dr. Chi-Sun Hwang
- 10. The concept of electrostatic doping and related devices_Prof. Sorin Cristoloveanu
- 06. FOSS TCAD,EDA tools for advanced nano-device modeling_Dr. Wladek Grabinski
- 글로벌 ICT기업의 어제와 오늘, 그리고 미래
- 2015년 2월 10일 BK 유망기술교류회
- 연구 결과 발표/출간
- 해외연수
- [BK 장기 연수] JEON HO SUNG (Visited Binghamton University)
- [대학원혁신] 2022 대학원생 글로벌챌린저 탐방(팀명:연구깨비)
- [BK 장기 연수] SEONG DAE WOON (Visited University of California, Irvine)
- [BK 장기 연수] Junsoo Lee (Visited University of Texas at Ausitn)
- [BK 장기 연수] Sungjin Lim (Visited Warsaw University of Technology)
- [BK 장기 연수] Jisoo Kim (Visited Bristol Robotics Laboratory)
- [BK 장기 연수] Kyungil Joo (Visited University of Arizona)
- KNU ICT 유망기술홍보집
- 2023 KNU ICT 유망기술 홍보집
- 2021 KNU ICT 유망기술 홍보집
- 2023 KNU ICT 유망기술 홍보집
- 해외연수
- 취업 및 진로
- 의사소통 기술
- KNUEERC
- 2023 KNU-EE Research Congress_특별세션 (신진연구인력 발표)
- Atmospheric Pressure Plasma Process Technology for Materials Synthesis and Environmental Chemistry
- Lg=25nm In0.8Ga0.2As/In0.52Al0.48As High-Electron Mobility Transistors on InP Substrate with Both fT and and fmax in Excess of 700 GHz
- Predictive Control of WInd Turbine Using Preview Wind Speed Information
- Spin-Isolated Dynamic Chiral Meta-Holographic Displays
- Nanoantenna-Coupled Tunnel Diode for THz to DC Conversion
- Modeling, analysis, and experimental validation of IT2 fuzzy PID controllers
- 2021 KNU-EE Research Congress_특별세션2(신진연구인력 발표)
- Development of Atmospheric Pressure Plasma System for Deposition of Polymer Nanocomposite Films(김재영)
- GaN-based piezotronic devices for electromechanical applications(말렘시바프라탑래디)
- Mask R-CNN 학습 기반의 효과적인 약품 검수 모델(권혁주)
- Continuous Genetic Algorithm based Parameter Estimation Paradigm for Power Signals(마흐무드 아마라)
- Carbon nanotube-based hydrogen gas sensor(한마음)
- Design and Analysis of DCDC Boost Converter Using Vertical GaN Power Device Based on Epitaxially Grown GaN-on-Sapphire(조민수)
- BA-MPCUBIC Bottleneck Aware Multipath CUBIC for Multipath TCP(임티아즈마흐무드)
- InGaAs Gate-all-around Nanosheet MOSFETs with Regrown SourceDrain Contacts(이인근)
- Comparative Neural Network base on Template Cluster for Automated Abnormal Beat Detection(이승민)
- Signal Strength-based Threshold for Multiple Transmitters in Molecular Communications System(시티리에뚱샨)
- Adaptive single input sliding mode control for hybrid-synchronization scheme of uncertain hyperchaotic Lu systems(샤트네쉬 싱)
- 2021 KNU-EE Research Congress_특별세션1(우수연구 및 산학협력 사례발표)
- Importance of Hole Transport Layer Thickness on Electrical Properties of PbS QDs Shortwave Infrared Photodiode(서경호)
- CMOS extension을 위한 초저전력 반도체 소자 개발(백지민)
- Imporved Self-Interference Incoherent Digital Holography System with Geometric-Phase Lens Made by Quarter-Wave Plate Condition(이재원)
- 세계 최고 동작속도 특성을 갖는 전자소자 개발 및 특성 분석개선 연구(조현빈)
- Optical Janus phenomenon in an asymmetric etalon structure using Au nanoislands thin film and active control of the device through additive liquid(배영규)
- Secure and Efficient Honey List-Based Authentication Protocol for Vehicular Ad Hoc Networks(이준영)
- 2019 KNU-ICT Research Award
- Quantitative Technique of the doped Adhesive on Dental surface by using Optical Coherence Tomography(김윤석)
- Abstractive Summarization of Long Texts by Representing Multiple Compositionalities with Temporal Hierarchical Pointer Generator Network(데니스사이모이랑뎀)
- Measurement for loss of enamel volume before and after orthodontic bracket bonding on tooth surface using optical coherence tomography(라비챤드란 나레시 쿠마르)
- Polarization-Independent Plasmonic Orbital Angular Momentum Generation Based on Nanoslit Pairs.(문성원)
- Swarm and Evolutionary Algorithms for Energy Disaggregation: Challenges and Prospects(사미라고르반포바포로시)
- Semi Supervised U-Net for Sound Event Detection(이상원)
- Named Entity Correction in Neural Machine Translation using Attention Alignment Map(이장원)
- Photodynamic Therapy Monitoring of Orthotopic Pancreatic Cancer Model In Vivo Image Using Waterproof Galvanometer Scanner Photoacoustic Microscopy(이재율)
- Classification of Bacterial Single Colonies by Non-invasive Morphological Imaging Using Spectral-domain Optical Coherence Tomography(이준수)
- Spectrometry based Color Change Evaluation Method of Loop-mediated Isothermal Amplification Reaction for Diagnosis of Infection by Bacteria(이준영)
- Angular-resolution-enhanced time-multiplexing three-dimensional display utilizing virtual-moving microlens array(이태현)
- Time-sequential super multiview display(임성진)
- Real-time Improve Sleep Apnea using Smart Pillow & Wearable Device(전영준)
- Expansion of Hologram CGH Pattern’s Viewing Angle by Attaching Random Phase Mask(최우영)
- Programmable 3D curvature of glassy polymer sheet by photo-triggered strain-engineering(최준찬)
- Scene2Wav: A Deep Convolutional Sequence-to-Conditional SampleRNN for Emotional Scene Musicalization(쿤하세르지오지웨날레)
- Effect of Annealing Environment of the Performance of Sol-Gel Processed ZrO2 Resistive Random Access Memory(하승현)
- Wide-field and High-speed Photoacoustic Microscopy Using Waterproof Galvanometer Scanner(한상엽)
- Sampled-parameter dependent stabilization for linear parameter varying system(한승용)
- 2018 KNU-ICT Research Award
- Uniform Area Treatment for Surface Modification by Simple Atmospheric Pressure Plasma Treatment Technique(김동하)
- Lg = 87 nm InAlAsInGaAs HEMTs on InP substrate with gm_max of 3.1 mSmm and fT of 559 GHz(조현빈)
- Impact of Device Area and Film Thickness on Performance of Sol-gel Processed ZrO 2 RRAM(이소정)
- High Figure-of-Merit (BV2 /RON,sp) AlGaN/GaN Power HEMT with Periodically C-doped GaN Buffer and AlGaN Back Barrier(이준혁)
- Clinical Utility of Intraoperative Tympanomastoidectomy Assessment Using a Surgical Microscope Integrated with an Optical Coherence Tomography(이재율)
- Real-time Field Inspection of in-situ Apple Blotch Disease using Wearable Optical Coherence Tomography (OCT) and Loop-mediated Isothermal Amplification (LAMP) Techniques(이준수)
- Virtual reality multi-layered display for occlusion and accommodation effects(김무건)
- Full-parallax three-dimensional display with spherical symmetry(허대락)
- Assessment of microdamage on cortical bone upon the placement of orthodontic microimplants using optical coherence tomography(나레시 쿠마르)
- ISDE+ - An Indicator for Multi and Many-objective Optimization(파물라파티 트리나드 레디)
- Human Action Generation with Generative Adversarial Networks(아항가리카사리 모하메드)
- Affine matched parameterization approach to sampled-data stabilization criteria for T-S fuzzy systems with variable sampling(진용식)
- CT-Cache: Compressed Tag-Driven Cache Architecture(조해윤)
- Node Pairing Scheme for Underwater Downlink NOMA(천진용)
- 2017 KNU-ICT Research Award
- Automatic industrial inspection of optical thin film using parallel spectral domain optical coherence tomography(이준수)
- Analysis and Design of Frequency Selective Surface for Millimeter-Wave Imaging System(모우딘와합)
- Development of the Light-Field camera for simultaneously capturing the 2D and 3D video Using fast switchable polarization dependent lens array(주경일)
- Expanded exit-pupil holographic head-mounted display with digital micromirror device(김무건)
- Scene-Based Adaptive Noise Filtering and evaluating technique for LWIR/MWIR imaging sensor systems(김병학)
- Cylindrical directional three dimensional display with spinning slit(최근섭)
- Fascicle bifurcation structure analysis of rat sciatic nerve using swept-source optical coherence tomography(최대영)
- An Effective way to Handle Secure Data Stream in IoT environment(은창오)
- Text Region Extraction in High Contrasting Image(강석준)
- Defect Inspection of Actuator Lenses using Swept-Source Optical Coherence Tomography(권오언)
- Low Voltage Operation of GaN Vertical Nanowire MOSFET(손동혁)
- 2023 KNU-EE Research Congress_특별세션 (신진연구인력 발표)
- BK 콜로키움
- BK 회로및시스템 특화연구그룹 런치 세미나(2024.04.03)
- BK 광융합 특화연구그룹 런치 세미나(2024.03.13)
- 전기에너지의 날(2023.11.23)
- AI융합정보통신의 날(2023.11.07)
- 회로 및 시스템의 날(2023.10.12)
- 인공지능의 날(2023.09.21)
- 차세대 지능형 반도체 소자의 날 (2023.07.05)
- 자율지능시스템의 날(2023.05.30)
- 광란의 밤(2023.05.11)
- Don't Be Yellow! Yield success in your life!(2022.12.06)
- Be Magenta! Make your dream come true!(2022.11.24)
- Be Cyan! Create your own world!(2022.11.10)
- Be Blue! Bring your brilliance!(2022.10.18)
- Be Green! Give yourself the green light!(2022.10.12)
- Be Red! Refill your passion!(2022.09.22)
- July, Jump to Jingle Jangle Jungle!(2022.07.21)
- June, Good evening, John. Good evening, Jimmy.(2022.06.23)
- May, Merge into the Marvelous!(2022.05.19)
- April, Attack Artificial Intelligence!(2022.04.28)
- 기타
- AI융합정보통신 세미나
- BK seminar for International Students
- 기술창업과 브랜드 경영
- 특허전략과 작성법
- 기술경영의 이해
- 기술창업과 기업가 정신
- 최신 기술 동향
- 학문/산업 분야별
- 전력전자
- 학부 강좌
- 대학원 강좌
- 산학 강좌
- Analysis and Design of PWM and Resonant Converters
- 1강 : PWM dc-to-dc power conversion
- 2강 : Power stage components/Semiconductor switches
- 3강 : Inductors/Capacitors/Transformers
- 4강 : Transformers/Buck converter
- 5강 : Buck converter basics
- 6강 : Buck converter in steady state
- 7강 : Output voltage ripple
- 8강 : Discontinuous conduction mode
- 9강 : Closed-loop operation
- 10강 : Boost converter basics
- 11강 : Boost converter in steady state
- 12강 : DCM operation/Effects of parasitic resistancer
- 13강 : Buck/boost converter/Three basic converters
- 14강 : Flyback converter
- 15강 : Buck-derived converters/Full-bridge converter
- 16강 : Half-bridge converter/Push-pull converter/Forward converters
- 17강 : Resonant power conversion basics
- 18강 : RLC resonant circuits
- 19강 : Resonant power inversion
- 20강 : Resonant inverters and converters
- 21강 : Series resonant converters
- Fundamentals of Dc Power Conversion: Circuits, Magnetics, and Power Switches
- 1강: PWM dc power conversion
- 2강: PWM technique/ Semiconductor switches
- 3강: Inductor fundamentals
- 4강: Inductors/ Capacitors/ Transformers
- 5강: Transformers/ Buck converter basics
- 6강: Buck converter in steady state
- 7강: Output ripple/ DCM operation
- 8강: Closed-loop control
- 9강: Boost converter
- 10강: Effects of parasitic resistance
- 11강: Buck/boost converter/ Isolated PWM converters
- 12강: Cpacitor and inductor characteristics
- 13강: Inductor in practice
- 14강: Flux balance and flux swing conditions
- 15강: Inductor design equations
- 16강: Transformer in practice
- 17강: Transformer design/ High frequency magnetics
- 18강: Power diode in practice
- 19강: Power MOSFET in practice
- 20강: Gate drive circuits/ Snubber circuits
- Analysis and Design of PWM and Resonant Converters
- 세미나 및 튜토리얼
- A design of 12-bit 125-MS/s 2.5-bit/Cycle SAR-based pipeline ADC employing a loop-based gain-boosting amplifier
- Active Cell Balancing Algorithm considering Cycle Life of Battery Systems
- Miniaturizing Artificial-Intelligence-of-Things into a Millimeter Scale
- Advanced control for efficient power conversion integrated circuits From high-power to RF systems
- Energy harvesting
- PWM Converter Modeling and Compensation Design_ICPE 2015-ECCE Asia
- 학부 강좌
- 디스플레이
- 학부 강좌
- 시각심리 및 디스플레이공학
- [2017.06.23] 제1장 Visual System and Psychophysics of Vision
- [2017.06.26] 제1장 Visual System and Psychophysics of Vision
- [2017.06.27] ]제1장, 제2장 Radiometry and Photometry, 제3장 Colorimetry
- [2017.06.28] 제3장 Colorimetry
- [2017.06.30] 제4장 Display Colorimetry
- [2017.07.03] lecture 1
- [2017.07.04] lecture1, 2
- [2017.07.06] lecture 2,3
- [2017.07.07] lecture3
- [2017.07.10] lecture3
- [2017.07.11] 김학린교수님 1강
- [2017.07.14] 김학린교수님 2강
- [2017.07.14] 김학린교수님 3강
- [2017.07.17] 김학린교수님 6강
- [2017.07.17] 김학린교수님 7강
- [2017.07.15] 김학린교수님 4강
- [2017.07.15] 김학린교수님 5강
- [2017.07.18] 김학린교수님 8강
- [2017.07.18] 김학린교수님 9강
- 시각심리 및 디스플레이공학
- 대학원 강좌
- 산학 강좌
- Liquid Crystal Material
- Barrier film
- 2015년도 액정여름학교
- 세미나 및 튜토리얼
- FFS LCD의 기술 개발 동향
- 고해상도 광음향 단층 영상 기술과 응용
- Metal-Organic Interfaces and Their Charge Injection in Organic Diodes
- 2D organization; from SAMs to surface nanostructuration via porous networks
- 학부 강좌
- 반도체_센서기술
- 학부 강좌
- 대학원 강좌
- 산학 강좌
- 반도체 및 디스플레이공학 단기집중강좌
- Photometry, Radiometry and Colorimetry
- Optoelectronic Materials (1)
- Optoelectronic Materials (2)
- Bandgap engineering in III‐.V and II‐.VI compound semiconductors (1)
- Bandgap engineering in III‐.V and II‐.VI compound semiconductors (2)
- LEDs and structures (1)
- LEDs and structures (2)
- Semiconductor lasers and structures (1)
- Semiconductor lasers and structures (2)
- How to do good research and documentation (1)
- How to do good research and documentation (2)
- 2015년도 첨단 센서기술 아카데미
- [IDEC]CMOS 이미지 센서 설계
- Fundamentals of integrated circuits (ICs) processing with emerging materials, devices and concepts
- 반도체 및 디스플레이공학 단기집중강좌
- 세미나 및 튜토리얼
- Machine Learning-Powered VLSI Physical Design Automation
- High Performance, High Integration Density, and Secured Semiconductor System Design based on a Packaging Technology
- Bio-image sensor for monitoring multi-neurotransmitters
- Research Environments in France and Heterogeneous Integration with Energy Harvesting Techniques for Wireless Sensor Network
- CMOS integrated circuits and system for affordable terahertz electronics
- MEMS-Based Bio Devices, Liquid Metal Electronics and Nanophotonics
- Vertical silicon nanowires for image sensor applications
- High performance InAs quantum dot lasers epitaxially grown on on-axis (001) Si for silicon photonics
- High-speed III-nitride laser diodes for visible light communication
- Developing Materials for Next Generation Device Applications
- Fundamentals of Molecular Beam Epitaxy 1
- Fundamentals of Molecular Beam Epitaxy 2
- Oxides for Novel Device Applications 1
- Oxides for Novel Device Applications 2
- FDSOI technology for scaling, low power, and enriched functionality
- Microwave response of a point contact on the basis of a GaAs quantum well
- Characterization Techniques for Ultrathin SOI-like Materials and Devices
- III-V Compound Semiconductor Devices: From Logic to THz
- In Vivo Non-invasive Non-ionizing Photoacoaustic Imaging
- Fabrication and characterization of high performance 1.2kV,3.3kV and 5.0kV class 4H-SiC power SBDs
- Growth and Characterization of III-V semiconductors and oxide materials by Molecular Beam Epitaxy (MBE)
- 학부 강좌
- 스마트 자동차
- 학부 강좌
- 대학원 강좌
- 산학 강좌
- 세미나 및 튜토리얼
- 2015년 8월 26일 CITAC 기술 교류회
- [IDEC]하이 스피드 인터페이스 SoC
- 2015년 6월 18일 CITAC 기술 교류회
- 2015년 5월 21일 CITAC 기술 교류회
- 2015년 4월 16일 CITAC 기술이전 워크샵
- 학부 강좌
- 소프트웨어
- 학부 강좌
- 대학원 강좌
- 산학 강좌
- Recent research trends for server systems: a computer architect's view
- The bad and the ugly of large-scale datacenters – a computer architect’s view of scale-out computing
- Scale-Out Processors
- Effective Instruction Prefetching for Many-Core Servers
- Memory System Support for Online Data-Intensive Services
- Scale-Out NUMA: a low-latency rack-scale in-memory computing architecture
- Recent research trends for server systems: a computer architect's view
- 세미나 및 튜토리얼
- On (Non-parametric) Statistical Benchmarking of Evolutionary Algorithms - Perspectives and Challenges
- Questioning Questions in Computational Neuroscience
- Introduction to Object-Oriented Programming: Dogs in Java
- Unite-and-Divide Algorithm: A Parallel Fourier Analysis Method in Computer Vision
- High-speed serial link at 40 Gb/s and beyond
- [IDEC]Xilinx ISE 기반의 FPGA 동작 실습
- Binary Decision Diagram based Decision-Making for Complex Systems
- 학부 강좌
- 인공지능
- 학부 강좌
- 대학원 강좌
- 산학 강좌
- 세미나 및 튜토리얼
- Reverse-Engineering the Brain: From Brain-Computer Interface to Neuroergonomics and Beyond
- Time-based Localization without synchronization: principles and applications
- A Hybrid Brain-Computer Interface (hBCI) for Behaviorally Non-Responsive Patients
- 학부 강좌
- 의용전자
- 학부 강좌
- 대학원 강좌
- 산학 강좌
- 세미나 및 튜토리얼
- Biomedical Optics in the 21st Century: Achievements, Challenges and Opportunities
- Surgical Robots: Safety, Autonomy and Beyond
- Upper-limb prosthesis control: Is moving away from myoelectric signal possible?
- 의용전자 분야의 최신 해외 연구동향 파악
- 학부 강좌
- 지능형 로봇
- 학부 강좌
- 대학원 강좌
- 산학 강좌
- 세미나 및 튜토리얼
- Goal-Oriented and Task-Assistive Robots in Human Centered Environment
- 종이접기(Origami) 기반 소프트 로보틱스 연구
- Future Developments in Neurorobotic Technology
- Geometry in learning theory
- Seamless Integration of Knowledge Acquisition for Autonomous Systems by Domain Users with Prudence Capability
- 학부 강좌
- IT 융합
- 학부 강좌
- 대학원 강좌
- 산학 강좌
- 세미나 및 튜토리얼
- Wind Energy trend in Europe and introducing floating offshore wind turbine research activities
- Introduction to global/EU energy policy and trends and Lifecycle Assessment
- 5G 위치 추적 시스템
- Quantum-dot based NIR/SWIR Image sensor
- Introduction to wind turbine dynamics and innovative rotor design
- Modelling of Bionic Manipulators
- Beyond the acoustic diffraction limit: Super-resolution Ultrasound Imaging
- Deep Learning in Biometry
- 자료실
- Congnitive and Developmental Learning for Artificial Agents : Modeling and Application of Perception-Action Cycle
- Design and Implementation of High-Performance Scientific CMOS Image Sensors
- Divisive Normalization in Deep Convolutional Neural Networks
- 학부 강좌
- 첨단센서인력양성
- 학부강좌
- 대학원강좌
- 산학강좌
- 2015년도 첨단 센서기술 아카데미
- [IDEC]CMOS 이미지 센서 설계
- Fundamentals of integrated circuits (ICs) processing with emerging materials, devices and concepts
- 세미나 및 튜토리얼
- Developing Materials for Next Generation Device Applications
- 2020년도 첨단 센서기술 아카데미
- CMOS integrated circuits and system for affordable terahertz electronics
- MEMS-Based Bio Devices, Liquid Metal Electronics and Nanophotonics
- Vertical silicon nanowires for image sensor applications
- High performance InAs quantum dot lasers epitaxially grown on on-axis (001) Si for silicon photonics
- High-speed III-nitride laser diodes for visible light communication
- Oxides for Novel Device Applications
- Fundamentals of Molecular Beam Epitaxy
- FDSOI technology for scaling, low power, and enriched functionality
- Microwave response of a point contact on the basis of a GaAs quantum well
- Characterization Techniques for Ultrathin SOI-like Materials and Devices
- Fabrication and characterization of high performance 1.2kV,3.3kV and 5.0kV class 4H-SiC power SBDs
- In Vivo Non-invasive Non-ionizing Photoacoaustic Imaging
- III-V Compound Semiconductor Devices: From Logic to THz
- Growth and Characterization of III-V semiconductors and oxide materials by Molecular Beam Epitaxy (MBE)
- 학부강좌
- 전력전자
- 참여교수 강의실
- 전력전자시스템
- 전자회로 및 제어시스템
- Classical Control Theory: 2024 Spring
- Lecture 01: Introduction to Control System
- Lecture 02: Turn Table Feedback Control System
- Lecture 03: Transfer Function
- Lecture 04: Mason Gain Rule
- Lecture 05: Standard Second-Order System
- Lecture 06: Higher-Order Systems
- Lecture 07: BIBO Stability
- Lecture 08: Feedback-Induced Instability
- Lecture 09: Routh-Hurwitz Method
- Lecture 10: Root Locus Construction
- Lecture 11: Frequency Response
- Lecture 12: Midterm Review Problems and Solutions
- Control Systems (2022 Spring Class)
- Lecture 01: Turn Table Drive System
- Lecture 02: Linear Systems Modeling
- Lecture 03: Block Diagram Manipulation
- Lecture 04: Mason Gain Rule
- Lecture 05: Feedback System Performance
- Lecture 06: Standard Second-Order System
- Lecture 07: Higher-Order Systems
- 2021 Midterm Test Review
- Lecture 08: BIBO Stability
- Lecture 09: Routh-Hurwitz Method
- Lecture 10: Root Locus Basics
- Lecture 11: Root Locus Rules
- Lecture 12: 2022 Midterm Test Solution
- Lecture 13: Frequency Response
- Lecture 14: Bode Plot Basics
- Lecture 15: Polar Plot Basics
- Lecture 16: Stability in Frequency Domain
- Lecture 17: Contour Mapping and Cauchy Theorem
- Lecture 18: Nyquist Stability Criterion
- Lecture 19: Simplified Nyquist Analysis
- Lecture 20: Relative Stability: Phase Margin and Gain Margin
- Lecture 21: Equivalent Second-Order System
- Lecture 22: Frequency-Domain Design Method
- Lecture 23: Feedback Compensation Design
- Lecture 24: 2021 Final Exam Review
- Electronics II (2020 Spring Class)
- Lecture 01: Introduction to Lectures on Electronics Two
- Lecture 02: MOSFET Current Source
- Lecture 03: CMOS Amplifiers with Active Load
- Lecture 04: MOSFET Current Steering Circuits
- Lecture 05: The MOSFET Differential Pair and its Small-Signal Operation
- Lecture 06: Small-Signal Operation of MOSFET Differential Pair
- Lecture 07: The BJT Differential Pair
- Lecture 08: Differential Amplifiers with Active Load
- Lecture 09: Large-Signal Operation of Differential Pair
- Lecture 10: The Ideal Op Amp and Inverting Configurations
- Lecture 11: Non-Inverting Configurations and Frequency Response Part I
- Lecture 12: Frequency Response Part I, Integrators and Differentiators
- Lecture 13: Integrators and Differentiators, Effects of Finite Open-Loop Gain and Bandwidth
- Lecture 14: Effects of Finite Open-Loop Gain and Bandwidth, Dc Imperfections and
- Lecture 15: Dc Imperfections, Large-Signal Operation of Op Amp
- Lecture 16: Large-Signal Operation of Op Amp, Frequency Response Part II
- Lecture 17: Frequency Response Part II
- Lecture 18: Frequency Response Analysis Using Amplifier Gain Functions
- Lecture 19: Frequency Response Analysis Using Amplifier Small-Signal Model
- Lecture 20: General Feedback Structure and Negative Feedback
- Lecture 21: Negative Feedback, Voltage Amplifier and Series-Shunt Feedback
- Lecture 22: Series-Shunt Amplifier. BJT Amplifier Analysis Techniques
- Lecture 23: Feedback Amplifier Analysis Part I
- Lecture 24: Feedback Amplifiers Analysis Part II
- Lecture 25: Feedback Amplifiers and Stability Problem
- Lecture 26: The Stability Problem and Oscillation
- Lecture 27: Stability and Frequency Compensation
- Lecture 28: Frequency Compensation, Problems and Solutions
- Electronics I (2022 Winter Class)
- Lecture 01: Introduction to Electronics
- Lecture 02: Thevenin Theorem and Voltage Amplifier
- Lecture 03: Semiconductor Basics
- Lecture 04: PN Junction
- Lecture 05: Diode Basics
- Lecture 06: Diode Forward Characteristics
- Lecture 07: Small-Signal Model
- Lecture 08: Zener Diode & Rectifier Circuits
- Lecture 09: Peak Rectifiers, Limiters, and Clamping Circuits
- Lecture 10: BJT Basics
- Lecture 11: npn BJT in Active Mode
- Lecture 12: BJT Operation Basics
- Lecture 13: BJT as An Amplifier
- Lecture 14: Amplifier Examples
- Lecture 15: Biasing in BJT Amplifiers
- Lecture 16: Common Emitter Amplifiers
- Lecture 17: Amplifiers and Their Applications
- Lecture 18: MOSFET Basics
- Lecture 19: Voltage-Current Characteristics of MOSFET
- Lecture 20: MOSFET at DC
- Lecture 21: Biasing MOSFET Amplifier Circuits
- Lecture 22: MOSFET Amplifiers and Their Applications
- Lecture 23: MOSFET Amplifiers with Current Source Bias
- Linear Algebra (2021 Spring Class)
- Lecture 01: Section 1.1 - Linear Equations in Linear Algebra
- Lecture 02: Section 1.2 - Row Reduction and Echelon Forms
- Lecture 03: Section 1.3 - Vector Equations
- Lecture 04: Sections 1.4-1.5 - Solution Sets of Linear Systems
- Lecture 05: Sections 2.1-2.2 - Matrix Operation and Inverse Matrix
- Lecture 06: Section 2.3 - Characteristics of Invertible Matrices
- Lecture 07: Section 2.5 - Matrix Factorization
- Lecture 08: Section 2.8 - Subspaces of Vector Spaces
- Lecture 09: Section 3.1 - Introduction to Determinant
- Lecture 10: Section 3.2 - Properties of Determinant
- Lecture 11: Section 3.3 - Cramer Rule, Volume, and Transformation
- Lecture 12: Definition and Implications of Determinant
- Lecture 13: Help Session I
- Lecture 14: Section 5.1 - Eigenvalues, Eigenvectors, and Characteristic Equation
- Lecture 15: Sections 5.2-5.3 - Diagonalization of Matrices
- Lecture_16: Sections 5.6-5.7 - Application to Difference/Differential Equations
- Lecture 17: Section 6.1 - Orthogonality and Least Squares
- Lecture 18: Section 6.2 - Orthogonal Set
- Lecture 19: Section 6.3 Orthogonal Projection onto Subspace
- Lecture 20: Section 6.4 Gram- Schmidt Process and Least Squares Problem
- Lecture 21: Sections 6.5 and 6.6 - QR Factorization and Least Squares LInes
- Lecture 22: Help Session - II
- Lecture 23: Help Session III
- Lecture 24: Sections 7.1 and 7.2 - Symmetric Matrices and Quadratic Forms
- Feedback Control Systems (Undergraduate Class Video, 2021 Spring)
- Lecture 01: Introduction to Control Systems - I
- Lecture 02: Introduction to Control Systems - II
- Lecture 03: Transfer Functions for Linear Systems
- Lecture 04: Block Diagram and Mason Gain Rule
- Lecture 05: Performance of Feedback Systems
- Lecture 06: Standard Second-Order Systems
- Lecture 07: Steady-State Error in Feedback Systems
- Lecture 08: Linear System Stability
- Lecture 09: Stability Analysis of Feedback Systems
- Lecture 10: Routh-Hurwitz Method
- Lecture 11: Root Locus Method
- Lecture 12: Root Loci Construction Rules
- Lecture 13: Applications of Root Locus Method
- Lecture 14: Frequency Response Method
- Lecture 15: Bode Plot of Transfer Functions
- Lecture_16: Bode Plot Details
- Lecture 17: Polar Plot and Nyquist Analysis
- Lecture 18: Cauchy Theorem
- Lecture 19: Nyquist Stability Criterion
- Lecture 20: Simplified Nyquist Stability Criterion
- Lecture 21: Relative Stability - Stability Margins
- Lecture 22: Equivalent Second-Order System
- Lecture 23: Frequency-Response Design Method - The Loop Gain Shaping Method
- Lecture 24: Loop gain Shaping and Feedback Compensation Structure
- Lecture 25: PID Compensation Design Example
- Electronics I (Undergraduate Class Video, 2013 Spring)
- 1강 : Introduction to Electronics
- 2강 : Concept and Circuit Model of Amplifier
- 3강 : Semiconductor Basics
- 4강 : Pn Junction and Forward/Reverse Biasing
- 5강 : Ideal Diode and Juction Diode
- 6강 : Circuit Models for Junction Diode
- 7강 : Small-Signal Modeling of Diode
- 8강 : Zener Diode and Voltage Regulator
- 9강 : Dc Power Supplies and Rectification Circuits
- 10강 : Full-Wave Rectiers, Clippers, and Clampers
- 11강 : Help Session for Test One
- 12강 : BJT Structure and Physical Operation
- 13강 : BJT Voltage and Current Characteristics
- 14강 : BJT as a Switch and Amplifier
- 15강 : BJT Amplifier Graphical Analysis and Small-Signal Modeling
- 16강 : BJT Small-Signal Circuit Models
- 17강 : Biasing Circuits and BJT Amplifiers
- 18강 : BJT Amplifier Analysis
- 19강 : CB and CC BJT Amplifiers
- 20강 : MOSFET Structure and Physical Operation
- 21강 : Help Session for Test Two
- 22강 : MOSFET Channel Length Modulation
- 23강 : MOSFET Small-Signal Model
- 24강 : MOSFET Amplifier Basics
- 25강 : MOSFET Amplifier Analysis I
- 26강 : MOSFET Amplifier Analysis II
- 27강 : Help Session for Final Exam
- Lecture
- Electronics II ( Undergraduate Class Video, 2015 Fall)
- 1강 : Amplifier Basics
- 2강 : MOSFET Amplifier Basics
- 3강 : BJT Amplifier Basics
- 4강 : Basic MOSFET Current Sources
- 5강 : CMOS IC Amplifiers with Active Load
- 6강 : BJT Current Source, Current Mirrors and Current Steering Circuits
- 7강 : Widlar Current Source, BJT Amplifiers and MOS Differential Pair
- 8강: Differential Amplifiers-- Differential Gain and Common-Mode Gain
- 9강 : BJT Differential Pair and Differential Amplifier with Active Load
- 10강: MOSFET Differential Amplifiers with Active Loads
- 11강: Large-Signal Operation of MOSFET and BJT Differential Pairs
- Help Session for Test One
- 12강: Chapter 2-- Ideal Op Amp, Virtual Short, and Inverting Amplifier
- 13강: Chapter 2-- Non-inverting Amplifier
- 14강: Chapter 2--Frequency Response and Miller Integrator
- 15강: Chapter 2-- Effects of Finite Open-Loop Gain and Bandwidth
- 16강: Chapter 2--Effects of Input Offset Voltage
- 17강: Chapter 2--Effects of Input Bias Current and Slew Rate Limitation
- Help Session for Test Two
- 18강: Frequency Response-Part Two
- 19강: Chapter 8--Frequency Response of Amplifiers
- 20강: Chapter 8--High-Frequency Response of Amplifiers
- 21강: Chapter 8--Low Frequency Response of Amplifiers
- 22강: Chapter 9--Feedback Amplifier Basics
- 23강: Chapter 9--Series Shunt Feedback Amplifier
- 24강 : Chapter 9--Series-Series and Shunt-Shunt Feedback Amplifiers
- 25강: Chapter 9--Stability of Feedback Amplifier
- 26강: Chapter 9: Relative Stabilities and Frequency Compensation
- Help Session for Test Three
- Classical Control Theory: 2024 Spring
- 전력전자 및 직류전력변환
- Power Conversion Circuits 2023 Fall
- Lecture 01: PWM Dc Power Conversion
- Lecture 02: Semiconductor Switches
- Lecture 03: Inductive Switching Circuit
- Lecture 04: Capacitive Switching Circuit
- Lecture 05: Transformer
- Lecture 06: Solenoid Drive Circuits
- Lecture 07: Capacitor Charging Circuits
- Lecture 08: Buck Converter
- Lecture 09: Steady State Analysis
- Lecture 10: Closed-Loop Operation
- Lecture 11: Transient Responses
- Lecture 12: Boost Converter
- Lecture 13: Buck/Boost Converter
- Lecture 14: Cuk Converter
- Lecture 15: Bidirectional Boost Converter
- Lecture 16: Forward Converter Basics
- Lecture 17: Forward Converters
- Lecture 18: Bridge-Type Converters
- Lecture 19: PFC Basics
- Lecture 20: PFC in Practice
- Resonant Power Conversion 2023 Spring
- Lecture 01:PWM Power Conversion and Resonant Power Conversion
- Lecture 02: RLC Series Resonant Tank
- Lecture 03: ZVS and ZCS Switching
- Lecture 04: Resonant Power Converters
- Lecture 05: Sinusoidal Approximation
- Lecture 06: Sinusoidal Analysis of Series Resonant Converter
- Lecture 07: Sinusoidal Analysis of Parallel-Loaded Series Resonant Converter
- Lecture 08: Dependence of Tank Input Impedance on Load
- Lecture 09: Dependence of ZVS and ZCS Boundary on Load
- Lecture 10: Tank Network Design Example_an LCC Inverter
- Lecture 11: Sinusoidal Analysis and Design of LLC Inverter
- Lecture 12: An Ultra Low-Profile Series Resonant Converter
- Lecture 13: Contactless Charger for Cellular Phones
- Lecture 14: Direct Modeling Approach (I)
- Lecture 15: Direct Modeling Approach (II)
- Lecture 16: Direct Modeling Approach (III)
- Lecture 17: Dynamics of Parallel-Loaded Series Resonant Converter
- Lecture 18: Frequency to Output Transfer Function
- Lecture 19: Compensation Design
- Lecture 20: Dynamics and Control of LLC Converter
- Lecture 21: Voltage Mode Control of LLC Converter
- Special Topics
- EMI Filter Interaction in PFC Rectifiers
- Feedback Compensation Circuits-Part One
- Feedback Compensation Circuits - Part Two
- Input Impedance of Dc-Dc Converters
- Frequency Response of PWM Converters
- RHP Zero in Boost and Buck/Boost Converters
- PWM Power Conversion and Resonant Power Conversion
- Extra Element Theorem - Overview
- Control and Circuit Theories
- Elements of Dc Power Conversion
- Topic 01: Resonant Power Conversion I - Functional Basics
- Topic 01: Resonant Power Conversion II - Resonant Inverters
- Topic 01: Resonant Power Conversion III - Resonant Converters
- Topic 02: Line Filters I - Line Filter Basics
- Topic 02: Line Filters II - Line Filer Design
- Topic 03: Extra Element Theorem I - EET Basics
- Topic 03: Extra Element Theorem II - Load Impedance Specification
- Topic 04: Lecture 01 - Power Switch Basics
- Topic 04: Lecture 02 - Diode and MOSFET Switching
- Topic 04: Lecture 03 - Gate Drive Circuits
- Topic 05: Lecture 01 - Reactive Circuit Components
- Topic 05: Lecture 02 - Magnetics Basics
- Topic 05: Lecture 03 - Inductor Operation
- Topic 05: Lecture 04 - Inductor Design
- Topic 05: Lecture 05 - Transformer Basics
- Topic 05: Lecture 06 - Transformer Design
- Modeling and Control of PWM Converters (Power Electronics 2015 Class)
- Lecture 01: Averaging Power Stage Dynamics
- Lecture 02: Linearization and Small-Signal Models
- Lecture 03: Bode Plot Basics
- Lecture 04: Power Stage Transfer Functions
- Lecture 05: Performance Metrics of PWM Converters
- Lecture 06: Stability of PWM Converters
- Lecture 07: Asymptotic Analysis Method
- Lecture 08: Voltage Feedback Compensation
- Lecture 09: Loop Gain and Converter Performance
- Lecture 10: Control Design Procedures
- Lecture 11: Phase Margin and Converter Performance
- Lecture 12: Control Design and Performance Evaluation
- Power Switches and Magnetic Components
- Lecture 01: Semiconductor Switches and Magnetic Components
- Lecture 02: Power Diode and MOSFET Switching
- Lecture 03: Gate Drive Circuits
- Lecture 04: Energy Storage Devices and Circuit Models
- Lecture 05: Inductors and Magnetics Basics
- Lecture 06: Inductor Operational Basics
- Lecture 07: Inductor Design Procedures
- Lecture 08: Transformer Circuit Models
- Lecture 09: Transformer Design Procedures
- Components and Circuits of PWM Converters (Power Electronics 2022 Class)
- Lecture 01: Introduction to Power Electronics
- Lecture 02: PWM Power Conversion Circuits and Systems
- Lecture 03: Semiconductor Switches
- Lecture 04: Inductor Basics
- Lecture 05: Inductive Switching Circuits
- Lecture 06: Capacitive Switching Circuits
- Lecture 07: Transformers
- Lecture 08: Solenoid Drive Circuits
- Lecture 09: Capacitor Charging Circuit
- Lecture 10: Capacitor Charging Circuit Application
- Lecture 11: Buck Converter Basics
- Lecture 12: Steady-State Operation
- Lecture 13: Discontinuous Conduction Mode
- Components and Circuits of PWM Converters (2022 Fall Class)
- Lecture 01: Introduction to Power Electronics
- Lecture 02: PWM Power Conversion Circuits and Systems
- Lecture 03: Semiconductor Switches
- Lecture 04: Inductor Basics
- Lecture 05: Inductive Switching Circuits
- Lecture 06: Capacitive Switching Circuits
- Lecture 07: Transformers
- Lecture 08: Solenoid Drive Circuits
- Lecture 09: Capacitor Charging Circuit
- Lecture 10: Military Application of Capacitor Charging Circuit
- Lecture 11: Buck Converter Basics
- Lecture 12: Steady-State Operation
- Lecture 13: Discontinuous Conduction Mode
- Lecture 14: Closed-Loop Control
- Lecture 15: Transient Response
- Lecture 16: Boost Converter
- Lecture 17: Buck/Boost Converter
- Lecture 18: Bidirectional Boost Converter
- Lecture 19: Flyback Converter
- Lecture 20: Forward Converter and Reset Circuits
- Lecture 21: Tertiary Winding Reset Forward Converter
- Lecture 22: Forward Converters with Other Reset Schemes
- Lecture 23: Bridge-Type Converters
- Dc Power Distribution Systems (Third Course on The 3-Lecture Series in 2022 Fall)
- Lecture 01: Dc Power Distribution Systems and Uncoupled Converters
- Lecture 02: Control Design of Uncoupled Converters
- Lecture 03: Extra Element Theorem and Load-Coupled Converters
- Lecture 04: Source-Coupled Converter and Feedback Theorem
- Lecture 05: Feedback Theorem and its Applications
- Lecture 06: Load Impedance-Graphical Construction
- Lecture 07: Load Impedance and Minor Loop Gain
- Lecture 08: Stability of Load-Coupled Converters
- Lecture 09: Loop Gain Analysis of Load-Coupled Converter
- Lecture 10: Impedance Overlap and Converter Performance
- Lecture 11: Source-Coupled Converters and Input Filter Interaction
- Lecture 12: Stability of Input Filter-Coupled Converter
- Lecture 13: Input Filter Interaction Under Current Mode Control
- Lecture 14: Dc Power Distribution Systems
- Lecture 15: System Design Strategy and Source Impedance Analysis
- Lecture 16: Impedance Overlap and Impedance Gap
- Lecture 17: Input Impedance Analysis
- Lecture 18: Dc Link Dynamics and Single-Module System Design
- Lecture 19: Design of Parallel-Module Systems
- Lecture 20: EET Fundamentals
- Lecture 21: Load Impedance Specification
- Lecture 22: Line Filter Basics
- Lecture 23: Line Filter Design
- Lecture 24: Final Chapter Summary
- Engineering Notes for Power Electronics, Electronics, and Circuit Theory
- EN062522: EMI Filter Interaction in Power Factor Corrected Rectifiers
- EN062622: Feedback Compensation Implementation-Part One
- EN071022: Input Resistance of PWM Dc-to-Dc Converters
- EN073122: Feedback Compensation Implementation-Part Two
- EN081222: Bode Plot and Asymptotic Method in Dynamic Analysis of PWM Power Conversion-The First Lecture
- EN082022: Bode Plot and Asymptotic Method in Dynamic Analysis of PWM Power Converter-The Second Lecture
- EN082522: Bode Plot and Asymptotic Method in Dynamic Analysis of PWM Power Conversion-The Third Lecture
- EN090422: Frequency Response in PWM Converters
- EN091822: RHP Zero in Boost and Buck/Boost Converters
- EN100122: Line Filter Basics
- EN100922: Line Filter Analysis and Design
- EN103022: PWM and Resonant Power Conversions
- EN112722: Resonant Power Conversion Basics - Part I
- Dynamics and Control of PWM Converters (Second Course in 3 Lecture Series)
- Lecture 01: Introduction to Course and Dynamic Performance of PWM Converters
- Lecture 02: Frequency-Domain Performance Metrics
- Lecture 03: Stability of LTI Systems
- Lecture 04: Contour Mapping and Cauchy Theorem
- Lecture 05: Nyquist Stability Criterion
- Lecture 06: Absolute Stability and Relative Stability
- Lecture 07: Asymptotic Analysis Method
- Lecture 08: Voltage Feedback Compensation
- Lecture 09: Loop Gain Shaping
- Lecture 10: Compensation Design Example
- Lecture 11: Guide to PSIM for Midterm Test
- Lecture 12: Impacts of Compensation Parameters
- Lecture 13: Current Mode Control Basics
- Lecture 14: Modeling Current Mode Control
- Lecture 15: 2022 Midterm Review
- Using Parameter File in PSIM
- Lecture 16: Loop Gain Analysis
- Lecture 17: Design of Current Mode Control
- Lecture 18: Performance of Current Mode Control
- Lecture 19: Boost Converter Design Example
- Lecture 20: Sampling Effects of Current Mode Control
- Lecture 21: s-Domain Model for Current Mode Control
- Lecture 22: He(s)-the rhp Double Zero
- Lecture 23: New Design Procedures for Current Mode Control
- Lecture 24: New and Classical Design Procedures
- Lecture 25: Off-Line Flyback Converter and Final Exam
- Topologies and Modeling of PWM Converters (First Course in 3-Lecture Series)
- Lecture 01 - Introduction to Lecture Series
- Lecture 02 - Buck Converter in Steady State
- Lecture 03 - Buck Converter under Closed-Loop Control
- Lecture 04 - Boost Converter Evolution
- Lecture 05 - Boost Converter Operation
- Lecture 06 - Flyback Converter Evolution
- Lecture 07 - Bridge-Type Converter Operation
- Lecture 08 - Forward Converter Operation
- Lecture 09 - PWM Converter Modeling
- Lecture 10 - Circuit Averaging Technique
- Lecture 11 - PWM Switch Model
- Lecture 12 - Small-Signal Model Extension
- Lecture 13 - Closed-Loop Converter Small-Signal Models
- Lecture 14 - Transfer Functions and Bode Plots
- Lecture 15 - Buck Converter Transfer Functions
- Lecture 16 - Boost Converter Transfer Functions
- Lecture 17 - Frequency-Domain Measurements and Simulations
- Lecture 18: Loop Gain Measurement
- Lecture 19: Loop Gain Measurement and Interpretation
- Power Electronics (Undergraduate Class Video, 2021 Fall)
- Lecture 01: Introduction to Dc-to-Dc Power Conversion
- Lecture 02: PWM Dc-to-Dc Power Conversion
- Lecture 03: Standalone PWM Dc-Dc Converters
- Lecture 04: Power Stage Components-Semiconductor Switches
- Lecture05: Inductors
- Lecture 06: Capacitors
- Lecture 07: Transformers
- Lecture 08: Solenoid Drive Circuits
- Lecture 09: Capacitor Charging Circuit
- Lecture 10: PSIM Simulation and Buck Converter Basics
- Lecture 11: Buck Converter in Steady-State
- Lecture 12: Buck Converter-Output Ripple and DCM Operation
- Lecture 13: DCM Operation and Closed-Loop Control
- Lecture 14: Buck Converter in Transient Periods
- Lecture 15: Boost Converter - Circuit Topology and Steady-State Operation
- Lecture 16 :Boost Converter at Steady State
- Lecture 17: Buck/boost Converter
- Lecture 18: Flyback Converter
- Lecture 19: Flyback Converter & Space Power Systems
- Lecture 20: Bidirectional Boost Converter
- Lecture 21: Buck-Derived Isolated Converters
- Lecture 22: Forward Converter I
- Lecture 23: Forward Converter II
- Lecture 24: Bridge-Type Buck Derived Converters
- Resonant Converter Basics ( Postgraduate Class Video, 2012 Fall)
- Lecture 01: Introduction to Resonant Power Conversion
- Lecture 02: Fundamentals of RLC Resonant Circuits - I
- Lecture 03: Fundamentals of RLC Resonant Circuits II
- Lecture 04: Fundamentals of Resonant Power Inversions/Conversions
- Lecture 05: General Structure of Resonant Inversion Circuits
- Lecture 06: Fundamentals of Series Resonant Converters
- Lecture 07: Sinusoidal Analysis of Resonant Converters
- Lecture 08: Load Dependent Characteristics of Resonant Converters
- Lecture 09: Zero Voltage Switching and Zero Current Switching
- Lecture 10: An Ultra Low-Profile Series Resonant Converter
- Lecture 11: LLC Resonant Inverter Design Example - I
- Lecture 12: LLC Resonant Inverter Design Example - II
- Lecture 13: Power Stage Dynamics of Series Resonant Converters
- Lecture 14: Dynamic Performance of Dc-to-Dc Converters
- Lecture 15: Opto-Coupler Isolated Feedback Circuits
- Lecture 16: Dynamics and Control of Series Resonant Converters
- Lecture 17: Voltage Mode Control of Series Resonant Converters
- Lecture 18: Current Mode Control of Series Resonant Converters
- Lecture 19: Basics of Discrete-Time Systems
- Lecture 20: Discrete-Time System Transfer Functions
- Lecture 21: Design Method using Discrete Equivalents
- Lecture 22: Discrete-Time Compensation Design
- Fundamentals of Dc Power Conversion: Circuits, Magnetics, and Power Switches
- 1강: PWM dc power conversion
- 2강: PWM technique/ Semiconductor switches
- 3강: Inductor fundamentals
- 4강: Inductors/ Capacitors/ Transformers
- 5강: Transformers/ Buck converter basics
- 6강: Buck converter in steady state
- 7강: Output ripple/ DCM operation
- 8강: Closed-loop control
- 9강: Boost converter
- 10강: Effects of parasitic resistance
- 11강: Buck/boost converter/ Isolated PWM converters
- 12강: Cpacitor and inductor characteristics
- 13강: Inductor in practice
- 14강: Flux balance and flux swing conditions
- 15강: Inductor design equations
- 16강: Transformer in practice
- 17강: Transformer design/ High frequency magnetics
- 18강: Power diode in practice
- 19강: Power MOSFET in practice
- 20강: Gate drive circuits/ Snubber circuits
- Off-Line Flyback Converter: Control Design and Performance Evaluation
- 제1강: Power stage operation
- 2강: Optocoupler fundamentals
- 3강: TL431 fundamentals
- 4강: Optocoupler-isolated feedback circuit
- 5강: Time-domain simulation
- 6강: Frequency response fundamentals/Converter modeling
- 7강: PWM converter modeling I
- 8강: PWM converter modeling II
- 9강: Power stage transfer function
- 10강: Flyback power stage transfer function
- 11 강: PWM converter stability
- 12강: Current mode control I
- 13강: Current mode control II
- 14강: Current mode control III / Step load response
- 15강: Current mode control design example
- 16강: Power stage, bias, control waveforms simulations
- 17강: Closed-loop performance simulations
- Analysis and Design of PWM and Resonant Converters
- 1강 : PWM dc-to-dc power conversion
- 2강 : Power stage components/Semiconductor switches
- 3강 : Inductors/Capacitors/Transformers
- 4강 : Transformers/Buck converter
- 5강 : Buck converter basics
- 6강 : Buck converter in steady state
- 7강 : Output voltage ripple
- 8강 : Discontinuous conduction mode
- 9강 : Closed-loop operation
- 10강 : Boost converter basics
- 11강 : Boost converter in steady state
- 12강 : DCM operation/Effects of parasitic resistancer
- 13강 : Buck/boost converter/Three basic converters
- 14강 : Flyback converter
- 15강 : Buck-derived converters/Full-bridge converter
- 16강 : Half-bridge converter/Push-pull converter/Forward converters
- 17강 : Resonant power conversion basics
- 18강 : RLC resonant circuits
- 19강 : Resonant power inversion
- 20강 : Resonant inverters and converters
- 21강 : Series resonant converters
- PWM Converter Modeling and Compensation Design - ICPE 2015-ECCE-Asia
- Dynamics and Control of PWM Converters and Converter Systems
- Lecture 01: Introduction to dc power distribution systems - I
- Lecture 02: Introduction to dc power distribution systems - II
- Lecture 03: Introduction to dc power distribution systems - III
- Lecture 04: PWM converter modeling and power stage dynamics - I
- Lecture 05: PWM converter modeling and power stage dynamics - II
- Lecture 06: PWM converter modeling and power stage dynamics - III
- Lecture 07: PWM converter modeling and power stage dynamics - IV
- Lecture 08: Dynamic performance of PWM Dc-to-Dc converters - I
- Lecture 09: Dynamic performance of PWM Dc-to-Dc converters - II
- Lecture 10: Feedback compensation and closed-loop performance - I
- Lecture 11: Feedback compensation and closed-loop performance - II
- Lecture 12: Feedback compensation and closed-loop performance - III
- Lecture 13: Feedback compensation and closed-loop performance - IV
- Lecture 14: Midterm Test
- Lecture 15: Current mode control - Functional basics and classical analysis - I
- Lecture 16: Current mode control - Functional basics and classical analysis II
- Lecture 17: Current mode control - Functional basics and classical analysis III
- Lecture 18: Current mode control - Sampling effects and new control design procedures - I
- Lecture 19: Current mode control - Sampling effects and new control design procedures - II
- Lecture 20: Current mode control - Sampling effects and new control design procedures - III
- Lecture 21: Current mode control - Sampling effects and new control design procedures - IV
- Lecture 22: Current mode control - Sampling effects and new control design procedures - V
- Lecture 23: Uncoupled converter and extra element theorem - I
- Lecture 24: Uncoupled converter and extra element theorem - II
- Lecture 25: Final Term Project
- Power Electronics (Undergraduate Live Notes, 2020 Fall)
- 제1강_090120
- 제1강 Quiz
- 제2강_090720
- 제3강_090920
- 제4강_091420
- 제5강_091620
- 제6강_092120
- 제7강_092320
- 제8강_092820
- 제9강_093020
- 제9강 Quiz
- 제10강_100520
- 제11강_100720
- 제12강_101220
- 제13강_101420
- 제14강_101920
- 제15강_102120
- 제16강_102620
- 제17강_102820
- 제18강_110280
- 제19강_110420
- 제20강_110920
- 제21강_111120
- 제22강_111620
- 제23강_111820
- Solution to Quizes and Chapter 6 Problems
- Nyquist Criterion
- 제24강_112320
- 제25강_112520
- Solution to Chapter 7 Problems
- 제26강_113020
- 제27강_120220
- Solutions to Chapter 8 Problems
- Power Electronics (Undergraduate Class Video, 2015 Fall)
- Lecture 01 - Chapter 1: Introduction to PWM Dc-to-Dc Power Conversion
- Lecture 02 - Chapter 2: Semiconductor Switches
- Lecture 03 - Chapter 2: Inductors
- Lecture 04 - Chapter 2: Capacitors
- Lecture 05 - Chapter 2: Transformers
- Lecture 06 - Chapter 2: Switching Circuits in Practice
- Solutions to End of Chapter 2 Problems
- PSpice for Power Electronics
- Lecture 07 - Chapter 3 :Buck Converter: Step- Down Dc-to-Dc Converter
- Lecture 08 - Chapter 3: Buck Converter - Steady-State Analysis and DCM Operation
- Lecture 09 - Chapter 3: Buck Converter - Closed-Loop Control and Dc Regulation
- Solution to End of Chapter 3 Problems
- Lecture 10 - Chapter 4: Boost Converter - Evolution and Steady-State Operation
- Lecture 11 - Chapter 4: Buck/Boost Converter - Evolution and Steady-State Operation
- Solutions to End of Chapter 4 Problems
- Lecture 12 - Chapter 4: Flyback Converter - Evolution and Steady-State Operation
- Lecture 13 - Chapter 5: PWM Converter Modeling - Averaging Power Stage Dynamics
- Lecture 14 - Chapter 5: PWM Converter Modeling - Linearization and Small-Signal Model
- Lecture 15 - Chapter 6: Power Stage Transfer Functions - Bode Plot Technique
- Solutions to End of Chapter 5 Problems
- Lecture 16 - Chapter 6: Power Stage Transfer Functions - Frequency response
- Lecture 17 - Chapter 7: Dynamic Performance of PWM Converters - Performance Criteria
- Solution to End of Chapter 6 Problems
- Lecture 18 - Chapter 7: Dynamic Performance of PWM Converters - Stability
- Solution to End of Chapter 7 Problems
- Lecture 19 - Chapter 8: Feedback Compensation Design - Asymptotic Analysis Method
- Lecture 20 - Chapter 8: Feedback Compensation Design - Voltage Feedback Compensation
- Lecture 21- Chapter 8: Loop gain and Closed-Loop Performance
- Lecture 22 - Chapter 8: Buck Converter Design and Performance Evaluation
- Lecture 23 - Chapter 8: Phase Margin and Transient Responses
- Solutions to End of Chapter 8 Problems
- Lecture 24 - Chapter 8: Term Project - Control Design and Performance Evaluation
- Industrial Applications
- Topic 01: Lecture 01-Power Stage Operation
- 2강: Optocoupler fundamentals
- 3강: TL431 fundamentals
- 4강: Optocoupler-isolated feedback circuit
- 5강: Time-domain simulation
- 6강: Frequency response fundamentals/Converter modeling
- 7강: PWM converter modeling I
- 8강: PWM converter modeling II
- 9강: Power stage transfer function
- 10강: Flyback power stage transfer function
- 11 강: PWM converter stability
- 12강: Current mode control I
- 13강: Current mode control II
- 14강: Current mode control III / Step load response
- 15강: Current mode control design example
- 16강: Power stage, bias, control waveforms simulations
- 17강: Closed-loop performance simulations
- PWM Dc-to-Dc Power Conversion: Circuits, Dynamics and Control Design
- Lecture 01: Introduction to PWM Power Conversion
- Lecture 02: Functional Basics and Steady-state Operation
- Lecture 03: Buck Converter - DCM Operation and Closed-loop Control
- Lecture 04: Thoughts on Modeling PWM Dc-to-Dc Converters
- Lecture 05: State-Space Averaging and Circuit Averaging
- Lecture 06: Linearization for Small-Signal Models of PWM Converters
- Lecture 07: Power Stage Transfer Functions and Bode Plots
- Lecture 08: Frequency Response of Power Stage Transfer Funtions
- Lecture 09: Dynamic Performance and Stability of PWM Dc-to-Dc Converters
- Lecture 10: Nyquiat Analysis and Stability Margins
- Lecture 11: Feedback Compensation Design and Closed-loop Performance
- Lecture 12: Voltage Feedback Compensation and Converter Performance
- Lecture 13: Control Desing Example and Performance Evaluation
- Lecture 14: Midterm Project
- Lecture 15: Current Mode Control - Functional Basics and Classical Analysis
- Lecture 16: Dynamics of Peak Current Mode Control
- Lecture 17: Loop Gain Analysis and Converter Performance
- Lecture 18: Step Load Transient Response
- Lecture 19: Design and Analysis of Boost Converter
- Lecture 20: Sampling Effects and New Control Design Procedures
- Lecture 21: Origin and Propagation of Sampling Effects
- Lecture 22: New Small-Signal Models for Current Mode Control
- Lecture 23: Design Equations for Current mode Control
- Lecture 24: Optocoupler-Isolated Flyback Converter with Current mode Control
- Power Conversion Circuits 2023 Fall
- 전자회로 및 제어시스템
- 전력전자시스템