University of California, Berkeley                                                                       Spring 2005

EECS 217                                                                                                  Prof. A. Niknejad

 

Course Syllabus

 

Course:                       Microwave Circuits

 

Instructor:                  Prof. Ali Niknejad, 572 Cory Hall, 2-0459, niknejad@eecs

Guest Insturctor:       Dr. Luiz Franca-Neto

Class Schedule:          TuTh 11:00-12:30 PM, 293 Cory Hall

Office Hours:             MTh 10-11 or by appointment (email)

 

Grading Policy:         Homework                  20%

                                    Midterm                      20%

                                    Project                         30%

                                    Final                            30%

 

Prerequisites:  EECS 117 and 140 or equivalent.  EECS 242 provides a helpful background although we will review most of the needed material for this course. 

 

Project:  Design and simulation of a microwave circuit block meeting given specification. 

 

Tools:  ADS, SpectreRF, Matlab/Mathematica

 

Textbook:      

Microwave Engineering, David Pozar, 2nd ed. Wiley 1998.

 

References:

 

Ramo, Whinnery, Van Duzer, Fields and Waves in Communication Electronics, Wiley 1984

 

R. E. Collin, Foundations for Microwave Engineering, McGraw-Hill, 1966

 

G. Gonzalez, Microwave Transistor Amplifiers, Prentice-Hall, 1984

 

T.C. Edwards, Foundations for Microstrip Circuit Design, Wiley 1981

 

G. D. Vendelin, Design of Amplifiers and Oscillators by the S-Parameter Method, Wiley-Interscience, 1982.

 

Vendelin, Pavio, Rohde, Microwave Circuit Design, Wiley 1990.

 

Yannis Tsividis, Operation and Modeling of the MOS Transistor, 2nd ed, McGraw-Hill, c1999.

 

Date

Lecture

Title

Topics

1/18

1

Review of Field Theory

origin of circuit theory; Maxwell's eq.

1/20

2

Review of Field Theory

power; impedance; surface impedance

1/25

3

Distributed Circuits

resistors, capacitors

1/27

4

T-Lines (lossless, lossy)

volt, cur, impedance, swr

2/1

5

T-Lines in Time

transients

2/3

6

T-Line Resonators

Q factor, "lump" Q, Layout

2/8

7

ISSCC

no lecture

2/10

8

Smith Chart

 

2/15

9

Impedance Matching

stubs, multi-section (tapered)

2/17

10

Imepdance Matching

lumped elements

2/22

11

Network Analysis

Y,Z,S,ABCD,T

2/24

12

Amplifiers as Two-Ports

Def of Gain

3/1

13

Amplifiers as Two-Ports

Gmax, Mason

3/3

14

Stability

stability circles

3/8

15

Transformer Matching

T-lines at low freq, T-line baluns, etc

3/10

16

Hybrids

three ports; four ports; power comb/div

3/15

17

Hybrids

couplers

3/17

18

Hybrids

applications and examples

3/29

19

Filters

bloch waves, periodic structures

3/31

20

Filters

the insertion loss method; impedance inverter; coupled T-lines; implementation details

4/5

21

Filters

high-Z, low-Z, distributed

4/7

22

Noise

two port noise char; correlation term; Fmin

4/12

23

Noise

system noise analysis

4/14

24

Active Devices (CMOS, SiGe)

Technology, device layout, small signal models

4/19

25

LNA

examples from industry/academia

4/21

26

Broadband Amps

shunt fb, active filter, dist amps

4/26

27

Power Amps

class A, B; distributed; examples

4/28

28

Osc

theory (neg resistance)

5/3

29

Osc

examples from industry/academia

5/5

30

Mixers

theory

5/10

31

Mixers

examples from industry/academia