MAE 140: LINEAR CIRCUITS SUMMARY

http://www-mae.ucsd.edu/research/krstic/schuster/teaching/mae140/mae140.html

 

Instructor: Eugenio Schuster

Room 1801, Engineering Building Unit I (EBUI)

Phone:  (858) 822-2406

Email:  schuster@mae.ucsd.edu

 

Class Times

& Location:

Monday/Wednesday/Friday 8:00 to 9:50 AM, Peter 104

Tuesday/Thursday 5:00 to 5:50 PM, WLH 2207

 

Course

Description:

Steady-state and dynamic behavior of linear, lumped-parameter electrical systems. Kirchoff’s laws.  RLC circuits.  Node and mesh analysis. Operational amplifiers. Dependent sources. Response of first-and second-order systems to impulse and step inputs. Laplace transforms. Design applications in engineering.

 

Textbook:

“Analysis and Design of Linear Circuits”, 3rd edition by Thomas and Rosa. Available at the UCSD Bookstore.  Student Solutions Manual by the same authors (shows how to be solve many problems on computers by using MATLAB, Mathcad and Excel) is optional.

 

Material Covered:

We will work through Chapters 1-4 in order.  Chapter 6 will be covered briefly and will be integrated with Chapter 4. We will work through Chapter 9-10 and use the techniques learned in these chapters to solve the kind of circuits presented in Chapter 7.  We will do a little work in Chapter 11 and 12 to learn how to design active filters covered in Chapter 14.

 

Prerequisites:

A grade of C- or better in Math 20D or 21D, and Physics 2B, admission to the Department of MAE (formerly AMES), Structures, or Bioengineering.

 

Teaching

 Assistant:

Rafael Vazquez: rvazquez@ucsd.edu (discussion sessions/office hours)

Olga Koroleva: olga@ucsd.edu (homework and exam grades)

 

Office Hours: 

Schuster: Monday/Wednesday/Friday 10:00-10:30 AM – 1801 EBUI

((or) by appointment – Contact instructor by e-mail.

Vazquez: Tu/Th 6:00-7:00 PM – 2207 WLH

                 M 6:00-7:00 PM – 105 EBUII

                 Th 11:00AM – 12:00PM – 105 EBUII

or by appointment – Contact TA by e-mail

 

Syllabus:

Kirchoff’s current and voltage laws.

Kirchoff's current and voltage laws.

Nodal and Mesh Analysis.

Equivalent Circuits.

Thevenin-Norton theorems.

Passive Circuits: Resistive circuits, RLC circuits.

Active Circuits: Dependent sources and operational amplifiers.

Laplace transform. Transfer functions.

Network functions.

Frequency response. Bode diagrams.

Filter design.