FAIRFIELD UNIVERSITY
School of Engineering
Spring, 2022
EE221 Frequency Domain Circuit
Analysis (2nd Circuits course)
Prerequisites: MA 227
(Calculus 3) and EE213 (Circuits 1 or equiv.) 3
Credits 45 hours
Description:
Students perform frequency domain analysis of passive and active circuits,
study transient and AC circuit analysis manually and with computer-aided applications
and examine the transient response of first and second order circuits. The
course introduces pole and zero concepts and applies them to circuit analysis
and introduces computer methods of circuit analysis and design.
Class
location is Bannow 335, Wednesdays from 6:30 to 9:00 pm.
No |
Objective |
Outcome |
a-k |
1 |
To understand and AC signals, phasor representation
of AC signals, steady state analysis of AC circuits including power
calculations |
Students will understand
AC signal representation and apply different
methods and circuit theorems in analysis of AC circuits and determine the
complex power in the AC circuit. |
a,
e |
4 |
To understand transient (First and Second order) behavior of electric circuits with
R, L and C |
Student will apply
methods to analyze transient behavior of circuits. |
a,
e |
3 |
To understand frequency response, resonance,
passive and active filters |
Students will be able to understand Transfer function
of filters and Resonant circuits Students will be
able to analyze active filter circuits
with op-amps. |
a,
e |
4 |
To understand Three
Phase circuits |
Students will be able
to analyze balanced and unbalanced three phase circuits. |
a,
e |
5 |
To understand
magnetically coupled circuits |
Students will be able
analyze circuit with transformers and design matching circuits with them. |
a,
e |
6 |
To develop familiarity with |
Students will use Multisim
and MatLab to aid in solving circuit analysis problems. |
e,
i. k |
Grade Distribution TBD
Text: Fundamentals of
Electric Circuits,
(7th Ed.), Charles Alexander & Matthew Sadiku, 2021, McGraw-Hill, ISBN: 1260226409
Supplement: Schaum's Outlines: Electric Circuits
(4th Ed.), Nahvi & Edminster, 2003, McGraw Hill, ISBN: 0-07-139307-2
References:
Basic Engineering Circuit Analysis, J. David Irwin, John
Wiley & Sons, 2002
Selected Answers (pdf) V.7, V.8 - Text Support Site (V.8)
Introduction to
Electric Circuits,
Dorf & Svoboda, John Wiley & Sons., 1996, ISBN 0‑471‑12702‑7
Introduction to MatLab
For Engineers And Scientists, Etter, Prentice-Hall, 1996, ISBN 0‑13‑519703‑1
Introduction-to-Complex-Numbers
HW: All HW is on-line using
MHE Connect via Blackboard in the Content
section. You will need an active account
at their facility to do the homework.
Required
Software:
MatLab, Student Ed. (The Math Works) or Octave (An Open Source MatLab Clone)
MatLab Tutorial by B. Aliane
LTSpice, (Free from Linear Technology) or Multisim, (Student Version Nat.
Instr.)
LTSpice Tutorial, Multisim
Tutorial
Course Schedule:
Date |
Topic |
Text |
Dr Munden Videos |
1/19 |
|
||
1/26 |
1st Order Transient review, 2nd Order Transients (RLC) |
7, 8 |
|
2/2 |
2nd
Order Transients (RLC) |
||
2/9 |
Sinusoidal
Steady-State Analysis, Phasors, Phasor Diagrams, Impedance and Admittance,
Kirchhoff |
||
2/16 |
Sinusoidal Steady-State Power* |
||
2/21 |
Presidents Day No Classes (Tuesday is Monday!) |
||
3/2 |
Exam 1 Reprise, |
10, 11, |
|
3/9 |
Mutual Inductance (Transformers) |
||
3/16 |
Spring Break Exam 2 (Ch 10-11) |
|
|
3/23 |
Exam
2 reprise Three-Phase
Circuits ("Polyphase")** |
||
3/30 |
Frequency
Response |
FreqAnal, TransfFunc, Mag&Phase, dB, Bode1, TF, Bode2, MatLab, Resonance |
|
4/6 |
Introduction
to Laplace Transforms, |
15, IR-Ch13
|
Laplace Transforms
|
4/13 |
Transfer
Functions, |
16, IR-Ch14
|
|
4/14-4/18 4/20 |
Easter Break No
classes Active
Filters, Design Project |
Approximation
Theory
|
|
4/27 |
Exam
3 (Ch.
13-16) Design Project Discussion |
|
|
5/4 |
Reading
Day No Class |
|
|
5/11 |
Exam
3 Reprise Design
Project Presentation |
Final Exam
Week |
|
*
Topic not covered in the following exam **
Topic introduced, not emphasized IR-IrwinPPT
Grade
allocation:
Exams (2) |
50% |
Homework/Quizzes |
25% |
Design Project |
25% |
Total |
100% |
CLASS EXPECTATIONS
I. TEACHER
Distribute
syllabus.
Review
the material described in the syllabus.
Explain
material.
Identify
alternate reading assignments or books that clarify the material.
Relate
material to "real world" situations when possible.
Answer
questions.
Be
available to discuss problems.
Google Voice: |
(203) 513-9427 |
Email: |
|
Zoom Personal Office: |
710 293 2408 |
Home Page: |
|
Office Hours: |
1:00-2:00, 4:00-5:00 pm, Wednesdays in BNW 133 |
Be
receptive to new ideas.
Announce
business/class conflicts in advance.
Make
up missed classes.
Prepare
and administer exams.
Grade
fairly.
Assign
appropriate home problems.
Homework
policy reviewed in class, Quizzes
II. STUDENT
Be familiar with the
prerequisite material
Linear differential equations
Passive components
Nodal and Mesh Equations
Th่venin and Norton Transformations
Time-Domain Analysis of RLC Circuits
Computer Tools and Tutorials for Circuit
Analysis:
Inverse Matrix Tutorial - Determinants
tutorial
Basic Analog Circuit
Tutorial
- Tutorial from National Instruments
DC Circuits Tutorial - Tutorial from
University of Guelph, Dept. of Physics
Use of Excel, and MatLab, Use of Multisim or LTSpice
Ask
questions and stay current.
Study
the material described in the syllabus. Preferably before it covered in class
and do some of the problems with answers in the back of each assigned chapter.
Complete
the assigned homework via Mentor in the quiz section.
Obtain
class notes and homework if a class is missed.
Use
the library and the Internet to obtain supplemental material.
Prepare
for exams.
Ask
for help
(tutors are available for assistance)
Note:
All exams in this course are open book, but not open computer (or phone) so relying
on an eBook or PDF will put you at a disadvantage.
III. Disability
If
you have a documented disability and wish to discuss academic accommodations,
please contact: David Ryan-Soderlund at Academic and Disability Support
Services (203) 254-4000, x2615, or email [email protected], and
notify the course instructor within the first two weeks of the semester.