ECE 201 Circuit Analysis I Spring 04
Instructor: Prof. Glazos
Office: ECC 203B
Phone: 308-6073
FAX: 308-5127
E-mail: mglazos@stcloudstate.edu
Office
Hours: M
W
H
F
Lecture Hours: M,W,F
Lab Hours: F
H
Course
Description:
Current, voltage, and power; independent and dependent sources; Ohm’s law; Kirchhoff’s laws; single-loop and single-node-pair
circuits; resistance and source combination; voltage and current division;
nodal analysis, mesh analysis, linearity and superposition; source
transformations; Thevenin’s and Norton’s theorems;
inductance and capacitance; transient response of RL, RC, and RLC circuits;
computer-aided analysis. Lab.
Prerequisites: MATH 222 – Calculus and Analytic Geometry
II (or equivalent)
PHYS 235 – Classical Physics II (or
equivalent)
ECE 102 – Engineering Problem Solving
*Recommended corequisite: MATH 325 – Differential Equations
Text: W.H. Hayt, Jr.,
J.E. Kemmerly, and S.M. Durbin, Engineering
Circuit Analysis,
6th Ed., McGraw
Hill, 2002.
References:
(1) J.D. Irwin, Basic
Engineering Circuit Analysis, 7th Ed., John Wiley & Sons, 2002.
(2) J.W. Nilsson
and
(3) R.C. Dorf and J.A. Svoboda, Introduction to Electric Circuits,
5th Ed., John Wiley & Sons, 2001.
(4) The Online
Learning Center, www.mhhe.com/hayt6e
(5) The Electronic
Teaching Assistant, www.clarkson.edu/~svoboda/eta/
(6) Schaum’s Outline Series in Electronics and Electrical Engineering, Basic
Circuit Analysis, 2nd Ed., McGraw Hill.
(7) Schaum’s Outline Series in Electronics and Electrical Engineering, Electric
Circuits, 4th Ed., McGraw Hill.
(8) Schaum’s Solved Problems Book Series, 3000 Solved Problems in Electric
Circuits, McGraw Hill.
Objectives:
(1) Reinforce fundamental concepts of current, voltage, power, Kirchhoff’s laws, and resistance from general physics.
(2) Introduce and practice fundamental DC analysis techniques such as mesh
and nodal analysis, linearity and superposition, source transformations, and Thevenin’s and Norton’s theorems.
(3) Introduce time dependent behavior of first- and second-order circuits and
the associated mathematical analysis.
(4) Gain hands-on laboratory experience with equipment such as power
supplies, multimeters, oscilloscopes, and function
generators.
(5) Develop skills using simulation software.
Outcomes: After successful completion of this course
the student should be able to
(1)
apply their knowledge and
experiences toward follow-up courses such as Signals and Systems, and Analog
Electronics,
(2)
use circuit fundamentals
in their job experiences, and
(3)
successfully
complete the electric circuits part of the Fundamentals of Engineering
examination.
Laboratory: The laboratory provides students the
opportunity to put to practice much of the theory and analysis techniques
presented in lecture. It also allows students to gain experience constructing
physical circuits and using the lab equipment (computer software, power
supplies, multimeters, oscilloscopes, and function
generators). See the Laboratory Policies
handout for policies and procedures concerning the laboratory.
Course Outline:
|
Date |
Topic |
Text |
|
|
|
|
|
Week
1 |
Basic
concepts |
Pages
1-19 |
|
Week
2 |
Ohm’s
law, KVL, KCL |
Pages
19-23 Pages
29-41 |
|
Week
3 |
Resistance/source
combination, voltage/current division |
Pages
42-54 |
|
Weeks
4-5 |
Nodal and mesh analysis |
Pages
69-85 |
|
Week
6 |
Linearity
and superposition, source transformations |
Pages
101-116 |
|
Weeks
7-8 |
Thevenin’s
and Norton’s Theorems |
Pages
116-127 |
|
Week
9 |
Inductance
and capacitance |
Pages
173-191 |
|
Weeks
10-12 |
RL
and RC circuits |
Pages
211-245 |
|
Weeks
13-14 |
RLC
circuits |
Pages
261-292 |
Course Policies:
·
Homework will be assigned daily, and is due at the
beginning of class, as
it will be the first order of business every class period. No late submissions will be accepted. Homework should be prepared in an organized
manner with all answers clearly indicated (either circled or boxed in). You must show all of your work to receive
full credit. Please be sure that you
write your name on your homework, and that all of the pages are firmly stapled
together.
Beginning in about three
weeks (date to be announced) you may print “FREE” in large capital letters
adjacent to the problem number for any six (6) homework problems. These six problems will be marked perfect.
Keep count of the number of FREE’s you use and stop
at six! These FREE problems are also
due at the beginning of the class period.
·
A 15-minute quiz will be given at the beginning of class every
Wednesday. The lowest quiz score
will be dropped.
·
A comprehensive final exam will be given during finals
week.
·
Class attendance will be observed, but is not
required. However, you are responsible
for everything that happens in class. If you miss a quiz or homework submission
as a result of an unexcused absence, you will receive a grade of zero on the
quiz or homework.
·
I will always be available during my designated
office hours, but you may stop by my office at any time. If I am free, I will be more than happy to
talk with you. However, if you want to
be sure that I will be in my office at a time other than my designated office
hours, make an appointment with me.
·
Your grade for the course will be based entirely on
your performance on homework, quizzes, the final exam, and the laboratory
exercises. The point breakdown for your final grade is as follows:
Homework 100
Quizzes 300
Final Exam 150
Lab Exercises 100 (See Lab Policies handout)
650
·
Your final
grade will be determined from your total points as follows:
A 572 - 650
B 507 - 571
C 423 - 506
D 358 - 422
F 0 - 357
You must pass ( >
55% ) both the lecture portion of the course and the lab
portion of the
course to receive a passing grade for the course.
·
Course
material (lecture notes, homework/reading assignments,
homework/quiz solutions, and laboratory exercises) will be
posted on the web using WebCT. Information about WebCT
and directions on how to access your WebCT account
can be found at http://webct.stcloudstate.edu/.
Note: I am
strongly committed to continually improving every course I teach, and student feedback is essential for making
improvements. Your feelings about the
course (good or bad) are very important to me.
Any feedback (e.g., ideas, suggestions, comments) you can provide would be
greatly appreciated.

