EECS 862: Principles of Digital Communication Systems
  Spring 2013



Schedule:
Lecture period: TR 8:00-9:15, 2111 Learned Hall

Instructor: Prof. Erik Perrins
Office: 2020 Eaton Hall
Office hours: TR 2:00-4:00. Drop-ins at other times are always welcome but
are best scheduled via e-mail.
Office phone: 864-7370/864-7770
E-mail: e s p "a t" k u . e d u



Text: Fundamentals of Digital Communication, 
by U. Madhow, 2008.
 
Syllabus



Day
Date
Topic
Assignment
Tues
01/22
Course introduction

Thur 01/24
Complex baseband representation (Ch. 2, pp. 8-43)
Tues 01/29 Linear modulation (Ch. 2, pp. 43-48)
Thur 01/31 Linear modulation (Ch. 2, pp. 48-55) 2.6, 2.8, 2.13, 2.15, 2.18, 2.20, 2.22 (abc), and below* [due 02/07]
Tues 02/05 Demodulation (Ch. 3, pp. 74-94)

Thur 02/07 Demodulation (Ch. 3, pp. 94-102)
Tues 02/12
Demodulation (Ch. 3, pp. 102-110) P1: Ex 1 [due Fri 02/15]
Thur 02/14 Project 1: MATLAB code
P1: Ex 2-4 [due Fri 02/22]
3.6, 3.7, and 3.12 [due 02/21]
Tues 02/19 Performance Analysis (Ch. 3, pp. 110-118)
Thur 02/21 SNOW DAY
Tues 02/26 SNOW DAY
Thur 02/28 Performance Analysis (Ch. 3, pp. 110-118)
Chapter 3 wrap up
P1: Ex 1-5 final draft [due 03/07]
Problem 3.16 [due 03/07]
Tues 03/05 Case study: Modulation power efficiency

Thur 03/07 Continuous phase modulation
Tues 03/12 MIDTERM EXAM
Thur 03/14 Continuous phase modulation


SPRING BREAK
Tues 03/26 Continuous phase modulation
Thur 03/28 Continuous phase modulation P2: CPM [due 04/09]
Tues 04/02 Equalizers (Ch. 5, pp. 199-216)
Thur 04/04 ZF Equalizer (Ch. 5, pp. 216-220)
Tues 04/09 MMSE Equalizer (Ch. 5, pp. 220-226) P3: Adaptive Equalizers [due 04/23
Thur 04/11 DFE Equalizer (Ch. 5, pp. 228-231)
Tues 04/16 Equalizer Review (Problem 5.10) Problems 5.10, 5.11, and 5.12 [due 04/23]
Thur 04/18 OFDM (Ch. 8, pp. 397-399)
Tues 04/23 OFDM (Ch. 8, pp. 399-402)
Thur 04/25 OFDM (Ch. 8, pp. 402-405)
Tues 04/30 Waterfilling
Thur 05/02 OFDM Bit and Power Allocation P4: OFDM [due 05/17, 5:00 pm]
Tues 05/07 Course review
Thur 05/09 MIDTERM EXAM


* Additional HW problem: Verify that the 99% BW of the NRZ pulse is 10.29*Rs, and the 90% BW is 0.85*Rs.