Electromagnetics

1. The Electromagnetic Model
2. Vector Analysis
3. Static Electric Fields
4. Steady Electric Currents
5. Static Magnetic Fields
6. Time-Varying Fields and Maxwell's Equations
7. Time-Varying Fields and Maxwell's Equations
8. Plane Electromagnetic Waves
9. Transmission Lines
10. Waveguides and Cavity Resonators
11. Antennas and Antenna Arrays

Electrical Circuits

Microwave Engineering

1.Review of EM Theory and Transmission Lines
2. Analysis of Transmission Lines and Waveguides
3.Microwave Network Analysis
4.Impedance Matching
5. Power Dividers, Couplers, and Hybrids

Introduction to Optical Fiber Communications

1. Fibers and Light Propagation
2. Optoelectronics
3. Point-to-point links
4. Basic receiver design
5. New technologies, directions - “hot topics”

 

High Speed Semiconductor Devices

1.Materials and Technologies for High-Speed Devices
2. Sub-micron MOSFET
3. Heterojunction Bipolar Transistors, (HBT)
4. Homogeneous Field-Effect Transistors, (MESFET)
5. Heterostructure Field-Effect Transistor, (HEMT)

Advanced Techniques in RF Power Amplifier Design

1. Introduction
2. Linear Power Amplifier Design
3. Conventional High-Efficiency Amplifier Modes
4. Matching Network Design for Reduced Conduction Angle High-Efficiency Amplifiers
5. Overdrive and Limiting Effects in RF Power Amplifiers
6. Switching Mode Amplifiers for RF Applications
7. Nonlinear Effects in RF Power Amplifiers
8. Efficiency Enhancement Techniques
9. Power Amplifier Linearization Techniques

Nano technology

1. Introduction of nano electron devices and optical devices (3hr）- Prof. Y. J. Chan, EE
2. Nano devices process (6hr) - Prof. Y. J. Chan, EE
3. Single-Electron Transistors（6hr）- Prof. P. W .Li, EE
4. Carbon nanotube（6hr）- Prof. Y. M. Hsin, EE
5. Electron spin resonance（6hr）- Prof. Y. J. Chan, EE
6. Quantum dot optical devices（6hr）- Prof. J. I. Chyi, EE
7. Photonic crystals（6hr）- Prof. C. C. Chen, IOS
8. Nano Bio-chip（6hr） - Prof. J.Z. Tsai, EE