EE383/ECE480

Wireless Systems
Course Syllabus (Spring 2016)
Fairfield University School of Engineering

 

Course Number: EE 383/ECE480

Course Name: Wireless Systems

Time: Tuesdays 6:30pm - 9:00pm

Course Location: BNW 254

Instructor: Jeffrey N. Denenberg

Final Exam: Team Design project

Office: Bannow 301C

Hours: Mon, Wed &  Thurs 2:00 4:00

Office Phone: (203) 254-3330

Google Voice: (203) 513-9427

Email: jeffrey.denenberg@ieee.org

WWW: http://doctord.webhop.net

Course Description:

This course covers several aspects of wireless communication, including antenna design, FCC regulations, and multi-channel transmission protocols. Modern design approaches, such as Bluetooth, are discussed, along with wide-area network systems (WANS) and local broadband networks.

 

Prerequisites:  EE321 (Electromagnetic Fields), EE213 (Circuit Analysis 1)

Expected Student Outcomes

Learning Outcome

Cognitive Level

ABET a-k

1.

The student will know the constituents of a wireless communications system.

Knowledge

c, i, j

2.

The student will be able to analyze various methods of wireless transmission and detection methods. 

Analysis

a, c, h, i, j, k

3.

The student will be able to analyze and allocate performance objectives to components of a wireless communications system.

Application

a, c, e, i, j, k

4.

The student will understand wireless coverage modeling techniques.

Knowledge

a, c, e, i, j, k

5.

The student will become more proficient in their use of MatLab/Simulink in modeling the performance of complex systems.

Analysis

a, c, e, i, j, k

6.

The student will gain a group engineering design experience.

Synthesis

a, c, e, g, i, j, k


Textbook 1: David Tse and Pramod Viswanath, Fundamentals of Wireless Communication, ISBN #9780521845274, Cambridge University Press 

Textbook 2: Robert G. Gallager, Principals of Digital Communication, ISBN #9780521845274, Cambridge University Press

References:

·        “Analog and Digital Communication Systems”, Hwei Hsu, Schaum’s Outline Series,
2008, ISBN 0-07-140228-4

·       MatLab Tutorial by Dr. Aliane at the University of New Haven

Performance Indicators and grading:

6 written quizzes will be given after each section during the term as outlined in the syllabus. The quizzes will be closed book, no notes, no computer and no makeup quizzes will be given.

Quizzes (4 of 6 count)                                     40%

Quiz Review Exam                                          30%

Project in lieu of a Final Exam                                                                       30%   

Quiz grading:

The purpose of the quizzes is to convey your understand the material; therefore, it is important that you show your work.  Even if you feel that the solution to a problem is obvious; you must still explain why it is obvious.  Furthermore; if you are asked to solve

a problem using a given technique; then use that technique; otherwise, I have no way to judge your understanding of the technique being tested.

Homework policy:

The purpose of homework:

  1. To give student practice.
  2. To prepare for the quizzes.

Periodic short quizzes on the HW due that day will be given in class.

Grades are based on honest effort (copies of the work of others, or content from the Internet, is not acceptable).

Homework is due Thursday the next class after it is assigned (except when specified). This homework cycle gives an intervening class where students can ask questions. If you know you have a conflict, please make arrangements ahead for time.

If you understand how to do the homework problems you will have an easier time with the Quizzes.

Class structure:

Lectures/notes/text/videos are the primary sources of information.  Students are expected to attend every class and to participate in class discussions.  Homework assignments will be discussed in class. Students will be expected to work problems in class. You will find it beneficial to review the chapter to be covered before the lecture.


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, projects, 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.  The student will receive a copy.


 

Class Topics and Order of Material

Week

Subject

PPTs

References

HW

1/21

Course/Topic Introduction

Introduction to Noise

 

JS-Wireless Overview

Prob. & Noise Intro.

G: Ch7, Lec13

Review Prerequisite materials
(incl. appendices A, B)

Get ahead in your reading

1/28

Intro to Digital Communications

 

G: Ch1, Lec1

JD-1a, JD-2a, JD-3a

 

2/4

RF Propagation & Antennas

 

JS-Antennas

JS-RF Prop & Modeling

 

2/11

Wireless Channel

Q1

Ch1-2

JS-Multipath,

G: C9, Lec20

2.3, 2.9, 2,10

2/18

Wireless Channel (cont.)

 

JS-Stat Multipath Models

Shannon Channel Capacity

G: C9, Lec21-23

 

2/25

Point to Point Communication
Diversity
Discuss Design Project

Q2

Ch3

 


Q-function

Design Project

3.11, 3.13, 3.14, 3.18, 3.10, 3.12, 3.16

3/3

 

Multiple Access

Q3

Ch4

 

G: Ch9, Lec24

 

4.1

3/7–3/11

Spring Recess
No Classes

 

Project Definition Due Upload to BB

 

3/17

Wireless Capacity

Q4

Ch5

JS-WirelessChanCap

ShannonChannelCapacity

5.6, 5.7, 5.8, 5.9

3/24

Easter Recess

 

 

 

3/31

Wireless Capacity (cont.)

Ch5

 

 

4/7

Multi User Capacity

Q5

Ch6

Noise and BER analysis in Projects

 

4/14

MIMO 1

Q6

Ch7

 

 

4/21

Quiz Review Exam

Design Project Discussion

 

 

 

4/28

Design Project Presentations

 

Last Day to Upload Project Materials

 

5/12

Design Project Presentations
(as required)

 

Finals Week

May 5-12

 

*JS – Fairfield SOE Professor Emeritus Jerry Sergent; G – Professor Gallager at MIT