September 2020 EEE6431 1
Electronic &
Electrical
Engineering.
EEE6431 BROADBAND WIRELESS TECHNIQUES
Credits: 15
Course Description including Aims
This module will give an understanding of the most up to date communication techniques used in the
design and operation of broadband wireless systems based on multicarrier technology such as OFDM as
used in LTE, WiFi and 5G-NR. Specifically, the module explores the physical layer functionalities of
broadband wireless systems. The outline syllabus will include an introduction to broadband wireless
systems; the principles of radio propagation including pathloss and shadowing; narrowband and
frequency selective fading; the information capacity of wireless channels; multicarrier techniques
including OFDM; and the application of OFDM to broadband wireless communication systems.
Outline Syllabus
1. Broadband wireless system concepts;
2. Signal propagation, pathloss models and shadowing;
3. Statistical narrowband and wideband multipath fading models;
4. Capacity of wireless channels;
5. Principles of multicarrier modulation;
6. Orthogonal frequency division multiplexing (OFDM).
Learning Outcomes
By the end of the module, a student will be able to demonstrate the ability to:
1. To identify the constituent parts of a wireless digital wireless communications system (US1,
US1m, US2, US2m, US3, US3m, E1, E1m, E2, E3m, E4);
2. To calculate pathloss and outage due to shadow fading in wireless communications systems (US1,
US1m, US2, US2m, US3, US3m, E1, E1m, E2, E2m, E3, E3m, E4);
3. To use narrowband and wideband statistical fading models to evaluate wireless communications
systems. (US1, US1m, US2, US2m, US3, US3m, E1, E1m, E2, E2m, E3, E3m, E4);
4. To use Shannon's theory to calculate optimum transmission rates in narrowband and wideband
wireless channels (US1, US1m, US2, US2m, US3, US3m, E1, E1m, E2, E2m, E3, E3m, E4);
5. To calculate the key design parameters of multicarrier modulation schemes for wideband wireless
systems (US1, US1m, US2, US2m, US3, US3m, E1, E1m, E2, E2m, E3, E3m, E4);
6. To analyse OFDM as an efficient implementation of multicarrier modulation for wideband wireless
communications systems and to explain how OFDM is used in major standards such as WiFi, LTE
or 5G-NR (US1, US1m, US2, US2m, US3, US3m, E1, E1m, E2, E2m, E3, E3m, E4, D1, S1, P6)
Time Allocation
Blended teaching with on-line video lectures and synchronous classes, plus small classes where suitable.
September 2020 EEE6431 2
Recommended Previous Knowledge
UG level 3 (or equivalent) understanding of basic electronic and electrical engineering, digital
communications theory, signal processing, MATLAB programming and/or applied mathematics.
Recommended Books
Title: Wireless Communications
Author: Andrea Goldsmith
Edition: 1
Publisher: Cambridge University Press
Assessment (see MSc Handbook for specific details)
Threshold assessment (50%).
Graded assessment (50%).
UK-SPEC/IET Learning Outcomes
Outcome Code Supporting Statement
SM1m/SM1fl
SM4m
The module covers underpinning scientific principles and methodologies related
to broadband wireless communications by exploring topics in wireless system
design; signal propagation and multipath fading; capacity; and multicarrier
transmission techniques, in particular OFDM.
SM2m/SM2fl
The module covers underpinning mathematical and statistical principles in
broadband wireless communications through the mathematical modeling of
radio pathloss, statistical narrowband and frequency selective multipath fading;
the analysis of system SNR and the formulation of Shannon capacity; the
mathematical representation of multicarrier schemes using high order
modulation, in particular OFDM; and the mathematical representation of
broadband wireless communication systems and their performance.
SM6m/SM3fl The course builds on a range of engineering disciplines that impart a working
knowledge of signals and systems, digital communications theory, cellular
mobile principles and stochastic processes. The module also requires an
appreciation of the commercial drivers of broadband wireless systems in relation
to spectrum and standards constraints.
EA1m/EA1fl
EA2m /EA2fl
EA5m
The module aims to provide analytical skills to underpin the students’ ability to
design and analyse the performance of a broadband wireless communication
system, particularly ones based on multicarrier technology. The students
determine pathloss, characterize frequency selective channels through rms delay
spread; calculate SNRs and capacity for various channel types; and quantify the
overall performance of a broadband wireless system based on OFDM.
EA3m
EA4m
Problem solving classes involve the evaluation of a broadband wireless
transmission system, such as IEEE802.11a/g WLAN, in terms of capacity. The
system performance is assessed for different system configurations and types of
communication channels.
D2m/D1fl/ ET5fl This learning outcome is generically considered through the treatment of
deployment practices for broadband wireless communication systems.
Constraints due to spectrum, power and energy limitations influence design and
September 2020 EEE6431 3
the deployment options of a cellular mobile system.
ET2m/ET2fl This learning outcome is also generically considered through the treatment of
cell deployment practices for broadband wireless communication systems. The
key factors that influence the cost of deployment are discussed such as the cost
of spectrum and the number of base stations deployed.
EP6m/EP2fl
This learning outcome is considered through the treatment of technical standards
for broadband wireless communication systems. The importance of standards in
this technology is emphasized as enabling scales of economy and competition as
well as defining communication interfaces.
EP9m This learning outcome is considered through the treatment of technical standards
for broadband wireless communication systems. The importance of standards in
this technology is emphasized as enabling scales of economy and competition as
well as defining communication interfaces.
学霸联盟