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Time: |
Lecture: Thursdays 6:00pm -
9:00pm |
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Place: |
Bannow 333 |
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Instructor: |
Jeffrey N. Denenberg |
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Google Voice: |
(203) 513-9427 |
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Email: |
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Home Page: |
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Prerequisites: |
EE221: Frequency Domain
Circuit Analysis or equivalent |
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Office Hours: |
McAuliffe Hall 4:30 - 5:30
pm before class on Thursdays also on Tuesdays and Wednesdays |
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Text: |
Lathi, Linear Systems
and Signals, 2nd edition, Oxford, 2005, ISBN 0941413330 |
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Software: |
MatLab 4.2c (or later), The Mathworks (4.2c is
available from the instructor) |
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Phillips and Parr, Signals, Systems, and
Transforms, 3rd
edition, Prentice-Hall
2003 Hsu, Analog and Digital Communications,
Schaum's Outlines, McGraw-Hill 1993 Interactive Notes (Phillips
and Parr), EE235 (analog)
and EE341
(Discrete). Thanks to the U. of
Washington Denenberg Tutorials: Fourier Series, Fourier Transform, Introduction to Noise, Sampling
and Reconstruction, Continuous-Time
Systems, Discrete-Time
Systems, Discrete Fourier Transform,
z-Transform |
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Course Description: |
This course studies and classifies
continuous and discrete signals and systems. It presents time domain and
discrete analysis of signals using the Fourier series, Laplace transforms,
Fourier transforms, z-transforms, and fast Fourier transforms (e.g.,
differential equations, convolution, concept and meaning of impulse
response); and examines frequency domain analysis, the Fourier series, and
the Fourier transform as an alternative to time domain analysis. Students
gain further insights into signal and system properties through the Laplace
transform methods and the concept of the transfer function. (3 credits) |
Schedule - Fall 2009 (Updated periodically so check regularly)
Student
Objective |
Outcome Category |
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Gain Proficiency in using Time Domain Analysis tools
(Differential Equations and the Convolution Integral) for Linear Systems. |
Knowledge of Math, Science & Engineering |
1.5 |
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Gain Proficiency in using Frequency Domain Analysis tools
(Fourier and Laplace) for Linear Systems. |
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Problem Solving |
1.0 |
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Gain confidence in the use of PCs for engineering analysis
purposes and understand strengths and limitations of computer tools. |
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0.5 |
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Gain proficiency in MatLab, a fundamental engineering
software tool. |
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Class Performance Summary: TBD
Supplementary Materials:
· MatLab Tutorial by B. Aliane
· MatLab files for Phillips and Parr, "Signals, Systems and Transforms", 2rd Ed.: (zip archive - 20 KB) Thanks to Drs. Phillips/Parr and The Mathworks
· Index to UCLA 102 Practice Sets Thanks to Dr. Paganini
· Spectrogram - A spectrum analysis tool (257KB zip archive, freeware for non-commercial use only)
Grading:
20% Homework
40% Examinations (2 exams)
40% Final Exam
There will be no make-up examinations. If
you are unable to take one of the mid-term examinations on the assigned date,
let me know in advance to make alternative arrangements. If you are unable to
take the final examination on the assigned date, then the instructor will
record a course grade of incomplete which can be redeemed by taking the
final examination when the course is next offered (usually 1 year later).
In case of a class cancellation, use U.S.
mail, e-mail, fax, or hand delivery to send in any assignment by the Friday
following the due date. The activity scheduled for a cancelled meeting date,
whether exam or lecture, is automatically postponed to the next class meeting
when it is eventually held. After a cancellation, an updated schedule will be issued.
Each reading assignment should be
completed before the weekly meeting. Homework is due at the meeting following
the week when it is assigned.
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
drsoderlund@mail.fairfield.edu, and notify the course instructor within the
first two weeks of the semester.
ACADEMIC DISHONESTY
Students
are sometimes unsure of what constitutes academic dishonesty. In all
academic work, students are expected to submit materials that are their own and
are to include attribution for any ideas or language that are not their
own. Examples of dishonest conduct include, but are not limited to:
• Falsification
of academic records or grades, including but not limited to any act of
falsifying information on an official academic document, grade report, class
registration document or transcript.
• Cheating,
such as copying examination answers from materials such as crib notes or
another student’s paper. .
• Collusion,
such as working with another person or persons when independent work is
prescribed. .
• Inappropriate
use of notes.
• Falsification
or fabrication of an assigned project, data, results, or sources. .
• Giving,
receiving, offering, or soliciting information in examinations.
• Using
previously prepared materials in examinations, tests, or quizzes.
• Destruction
or alteration of another student’s work.
• Submitting
the same paper or report for assignments in more than one course without the
prior written permission of each instructor.
• Appropriating
information, ideas, or the language of other people or writers and submitting
it as one’s own to satisfy the requirements of a course – commonly known as
plagiarism.
Plagiarism constitutes theft and deceit. Assignments (compositions, term
papers, computer programs, etc. .) acquired either in part or in whole from
commercial sources, publications, students, or other sources and submitted as
one’s own original work will be considered plagiarism.
• Unauthorized
recording, sale, or use of lectures and other instructional materials.
In
the event of such dishonesty, professors are to award a grade of zero for the
project, paper, or examination in question, and may record an F for the course
itself. When appropriate, expulsion may be recommended. . A notation of
the event is made in the student’s file in the academic dean’s office.