Wireless communications is a rapidly growing segment of the communications
industry, with the potential to provide high-speed high-quality information
exchange between portable devices located anywhere in the world. Potential
applications enabled by this technology include multimedia Internet-enabled
cell phones, smart homes and appliances, automated highway systems, video
teleconferencing and distance learning, and autonomous sensor networks, to name
just a few. However, supporting these applications using wireless techniques
poses a significant technical challenge.
This course will cover advanced topics in wireless communications for voice,
data, and multimedia. We begin with a brief overview of current wireless
systems and standards. We then characterize the wireless channel, including
path loss for different environments, random log-normal shadowing due to signal
attenuation, and the flat and frequency-selective properties of multipath
fading. Next we examine the fundamental capacity limits of wireless channels
and the characteristics of the capacity-achieving transmission strategies.
These strategies are typically not practical. Thus, our next focus will be on
practical digital modulation techniques and their performance under wireless
channel impairments, including flat and frequency selective fading. The next
part of the course is spent investigating techniques to improve the speed and
performance of wireless links. We will investigate the design and performance
of adaptive modulation and diversity techniques to compensate for flat-fading.
Three techniques to combat frequency-selective fading are then examined:
adaptive equalization, multicarrier modulation, and spread spectrum. We will
also study the multiple access capabilities of spread spectrum with multiuser
detection. The course concludes with a brief overview of wireless networks,
including multiple and random access techniques, WLANs, cellular system design,
and ad-hoc network design. Applications for these systems, including the
evolution of cell phones and PDAs, smart homes and appliances, sensor networks,
and automated highways and skyways, will also be discussed.
Basic Course Information
Class Time and Location: MW
11-12:15, Thornton 102.
Instructor: Andrea Goldsmith, Packard
371, andrea@ee, 5-6932. Office Hours: M 5-6 pm, W 12:30 and by appointment.
TA: Ritesh Madan, rkmadan@stanford,
OHs T after discussion, W 5-7 pm, in Packard 104. Email OHs: TW
10-11 pm.
Administrator: Joice DeBolt, 365
Packard, joice@stanford, 3-3164. Homework dropoff: Th by noon.
Discussion Section: T 5-6 pm, Room
TBD. Not televised.
Staff Email List(Professor & TA):
ee359-aut0506-staff@lists.stanford.edu
Prerequisites: EE279 (or equivalent).
Grading - Two options:
Project Option (4 units):
Homeworks: 20%, Exam 1: 25%, Exam 2: 30%, Project: 25%.
Nonproject Option (3 units): Homeworks: 25%, Exam 1: 35%, Exam 2: 40%,
Homeworks and project can be collaborative.
Detailed Course
Information
Tentative
Syllabus
Project Guidelines
Textbook:
Wireless Communications by Andrea Goldsmith (published by Cambridge
University Press).
P
rojects, Fall 2004
Projects, Fall 2003
Projects, Fall 2002
Projects, Fall 2001
Projects, Fall 2000
Lecture 1:
Overview of Wireless Systems