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ICE649 Microwave Engineering

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<strong>ICE649</strong> — <strong>Microwave</strong> <strong>Engineering</strong> 4 Sept. 2002<br />

Lecture<br />

Autumn 2002<br />

<strong>ICE649</strong> <strong>Microwave</strong> <strong>Engineering</strong><br />

2003 Fall Semester<br />

Instructor: Seong-Ook Park, Ph. D. Tel: 866-6132, E-mail: sopark@mail.icu.ac.kr<br />

Class Hours: Thu 16:00~17:30 (4:00~5:30 pm)<br />

Thu 19:00~120:30 (7:00~8:30 pm)<br />

Prerequisites: ICE509 Electromagnetics<br />

Classroom: To be announced<br />

Office Hours: Room 23323, Wed: 11:00~12:00 am or by appointment<br />

Assistant: Dong-Hyack Choi<br />

Assistant’s Office Hours: 13:30 ~ 14:30 (Tue & Thu)<br />

Textbooks:<br />

1. Pozar, D., <strong>Microwave</strong> <strong>Engineering</strong>, 2nd Edition, John Wiley & Sons, 1998<br />

2. Lecture Note<br />

Reference : Additional recommended:<br />

1. Sigfrid Yngvesson; <strong>Microwave</strong> Semiconductor Devices<br />

2. Solid-State <strong>Microwave</strong> Power Oscillator Design, Eric Holzman, Artech House(1992)<br />

3. Vendelin, Pavio, Rohde, <strong>Microwave</strong> Circuit Design Using Linear and Nonlinear Techniques, J. Wiley<br />

& Sons, 1990<br />

4. Reinhold Ludwig, RF Circuit Design Theory and Applications, Prentice-Hall Inc. 2000<br />

Grading Policy: Midterm (30%), Final (40%), HW (15 %), Quiz ( %), Term Project (15 %),<br />

Course Objectives:<br />

The goal of this course is to introduce students to the concepts and principles of the advanced microwave<br />

engineering, including the use of computer aided design(CAD) methods. RF/microwave CAD is employed<br />

extensively in industry and a knowledge of the principles and methods used is important for anyone who may<br />

work in an RF/microwave related field. Theory and design of passive and active microwave components, and<br />

microwave circuits including: microstrip line, guided wave device, filter, amplifier, oscillators, and<br />

experimental characterization of above components using the network analyzer, spectrum analyzer, power and<br />

noise meters. In this course, the theoretical and practical concept of microwave engineering is useful<br />

applications to the analysis and design of microwave components, microwave circuits, and optics.<br />

The general flow of this class is Application --> System --> Component; individual components are analyzed by Fields --> Modes --><br />

Equivalent Network.<br />

Course Description:<br />

- Discusses the electrical property of material, and microwave application.<br />

- Analysis and design of planar transmission lines, matching circuits, passive and active microwave<br />

components, and microwave circuit, etc.<br />

Relationship to Other Courses and Prerequisite:<br />

The theoretical concepts of this course is useful to the understanding of microwave circuits and optics<br />

classes. And this class becomes directly useful in understanding the behavior of the field and we can<br />

make intelligent guesses as to how to improve the behavior of the RF/<strong>Microwave</strong> structures we are<br />

designing and analyzing. Prefer Prerequisite: ICE509 Electromagnetics, or equivalent knowledge, but not<br />

necessary requirement.<br />

Computer Usage:<br />

Computer aides design tools, such as ADS, are used to design, analyze and construct RF and <strong>Microwave</strong><br />

Circuits. Matlab


<strong>ICE649</strong> — <strong>Microwave</strong> <strong>Engineering</strong> 4 Sept. 2002<br />

Lecture<br />

Autumn 2002<br />

Course Schedule<br />

Fall 2003<br />

Week Topic Text Homework<br />

/Project<br />

1<br />

2<br />

3<br />

4<br />

5<br />

6<br />

7<br />

8<br />

9<br />

10<br />

11<br />

12<br />

13<br />

14<br />

Maxwell's equations review<br />

Transmission line, review of field and component relationship HW#1<br />

<strong>Microwave</strong> network analysis; S-parameter matrix,<br />

Signal flow graphs<br />

Measurement Techniques with Network Analyzer, Calibration HW#2<br />

De-embedding Technique<br />

E&M CAD, waveguides; TE, TM waves, modes, attenuation<br />

Passive RF Components and Equivalent Circuits<br />

<strong>Microwave</strong> resonators<br />

<strong>Microwave</strong> resonators<br />

Material measurement techniques<br />

Power dividers, hybrids & directional couplers<br />

Dividers & couplers (continued)<br />

De-embedding Technique with Package<br />

De-embedding Technique with Active Component<br />

Review<br />

Mid Exam.<br />

Filter (Floquet Mode Theorem & Periodic<br />

structure)<br />

Filter ( Photonic Band Gap, Rx/Tx Filter, Duplexer)<br />

Practical microwave component analysis<br />

Practical microwave system analysis<br />

Amplifiers<br />

<strong>Microwave</strong> CAD for amplifier design<br />

Oscillators<br />

<strong>Microwave</strong> CAD for oscillators<br />

Noise Figure and Measurement techniques<br />

Oscillator stability & noise (continued)<br />

HW#3<br />

HW#4<br />

HW#5<br />

HW#6<br />

HW#7<br />

Practical mw/mm <strong>Microwave</strong> System Project #1<br />

Practical mw/ mm <strong>Microwave</strong> System<br />

15 Review<br />

Final Exam.<br />

* Above schedule is subject to change.

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