Due to Covid-19 students should refer to the module Blackboard pages for assessment details
|Assessment Type||Assessment length / details||Proportion|
|Semester Assessment||Worksheet 1||10%|
|Semester Assessment||Worksheet 2||10%|
|Semester Assessment||Technical Report 1||15%|
|Semester Assessment||Technical Report 2||15%|
|Semester Exam||2 Hours Exam||50%|
|Supplementary Assessment||Resit Assessment Resit failed component(s)||50%|
|Supplementary Exam||2 Hours Resit Exam||50%|
On successful completion of this module students should be able to:
Demonstrate an understanding of the core elements of the wireless communication architecture, modelling techniques, basic technical standards related to 2G/3G/4G wireless systems and prospects of 5G and future upgrades.
Critically analyze simple models developed for spectrum resources and aspects involved in efficient utilisation of allocated spectrum.
Critically evaluate the scope of using high-frequency spectrum for future wireless networks, design challenges, limitations, and mitigation.
Show mastery in application of computer-aided package for signal processing/filtering.
Present and discuss computational results from signal analysis in formal technical report(s).
The module provides a foundation of the fundamental principles of wireless spectrum and communication networks. The topics related to radio communication such as fading, interference, resource allocation of RF spectrum, spectrum monitoring and licensing are included to develop a good understanding of the radio spectrum engineering. Advanced network design techniques, scope of millimetre-wave communication and optimal network architecture are introduced to the students. The basics of signals and system are incorporated as an introduction to analog and digital signal processing. Application of the theory is supported through a series of practical/theoretical individual and group exercises in workshops.
• Introduction of modern communication systems and limitations associated with fading and interference.
• Channel-modelling, spectrum monitoring and sensing,
• Radio link budget analysis and transmission techniques
• Radio applications (radar, mobile comms, sensors, navigation, telemetry)
• Spectrum regulation/allocation/licensing and sharing
• Challenges involved in transition towards millimetre-wave communication.
• Network design; macro-, micro, nano and pico-cell architecture
• Health and safety risk assessment
• Mobile networks and physical layer protocols
Principles of Signals and Systems
• Fundamentals of signals: Continuous-time/Discrete-time signals, Unit Impulse, Unit step functions.
• Basic system properties: Continuous-time/ Discrete-time systems, LTI systems.
• Signal processing techniques.
|Skills Type||Skills details|
|Adaptability and resilience are required to lead the problem solving in the right direction.|
|Critical and analytical thinking is required for the exercises using software.|
|This will be helpful in group discussions during workshops.|
|Problem solving is a key skill in engineering.|
|The module develops technical skills related to antenna design.|
|Written communication is developed in formal technical reports.|
|The students will need to reflect on their practices when carrying out workshop exercises.|
|The module develops skills that may be applied in industry.|
|Digital capability is essential in the use of software packages.|
This module is at CQFW Level 7