RF Circuit and System Design
CEESI Module Details| Institution: |
University of Surrey |
| Module Code | scMrfs |
| Module Credits (level M): | 15 |
| Learning hours | 150 |
| Module Convenor: | T G Jeans |
| Tutors: | T G Jeans, C. Free, I. D. Robertson, M. Underhill |
| Industrial Advisors: | UniS MSc Industrial Advisory Board (>20 members from mobile, RF and satellite comms industries) |
| Delivery Mode: | 5 day residential course, shared with “RF Engineering”, plus on-line Distance Learning using the UniS supported VLE (currently tenders for provision are under consideration; either Blackboard or WebCT are likely to be chosen). |
Module Aims
The aim of the module is to provide detailed information on
RF Electronic systems and circuits, building upon the basis of the RF Engineering
module. To prepare engineers for industry with an advanced level of understanding
in modern RF design techniques
Learning Objectives
To provide an understanding of the design and performance of individual circuit blocks used in various RF systems, including an introduction to the use of DSP techniques.
Background to the Module
Surrey offers a popular 5-day residential short course every July entitled “RF Circuit and System Design”. Students attending this course can elect to take TWO 15 credit level M modules, with the additional learning hours at present made up through paper-based learning. This proposal is to replace that paper-based element with on-line materials.
Prerequisite Knowledge
Students should have an understanding of the basics of RF engineering. This would normally be provided by the “RF Engineering” module at Surrey, but can be provided by an equivalent course or industrial experience.
Assessment
| Assignment 1 | 20% |
| Examination | 80% |
A typical assignment would be a computer-based exercises using “shareware”
CAD readily available on the web (with links from UniS VLE).
Syllabus
| Directed Learning | 50 hours |
| Independent Learning | 50 hours |
| Assignments | 50 hours |
| Residential Course | 5 days Shared with “RF Engineering” |
Topic |
Content |
Applications and systems |
|
Modern transceiver architectures |
superheterodyne and direct conversion techniques.
Modulators and demodulators. |
Software radio |
concepts and subsystems. Structure of DSP
receivers. Sigma-delta bandpass sampling. Digital synchronisation techniques:
Frequency error detection algorithms. Phase error detector algorithms.
|
RFIC and MMIC technology |
Introduction, active and passive components.
Comparison of technologies; RF CMOS, BiCMOS, SiGe, GaAs and InP FET and
HBT. Example circuits; standard building blocks. |
Frequency synthesis |
Phase noise processes and time jitter.
Oscillators, VCOs and VXCOs. Phased lock loops, phase comarators and demodulators..
Direct digital synthesis, and digital demodulators. |
Solid state power amplifiers |
SSPA implementation technologies. HMICS
and MMICS. Impedance mismatch, PAE, power dissipation. Class A, overdriving and bipolar analysis. Class B with resistive load, with tuned load, push pull amplifiers and complementary pairs. Class D and E. Special device technologies; GaN, LDMOS, SiC. DC biasing, quiescent points and networks. Matching circuits; power combining techniques. Load pull; measurement and simulation. Reliability. Thermal management |
Linearisation techniques |
RF, IF and digital predistortion, feedforward,
feedback |
Passive components |
filters, couplers, baluns, antennas |
Measurement techniques |
Modern vector network analysers, RF-on-wafer
measurements, Noise measurement, load pull. Measurements for modulated
signals; eye diagram, constellation, EVM, etc. |
Recommended Texts
Delivery mode
5 day residential course, shared with “RF Engineering”, plus on-line Distance Learning using the UniS supported VLE.