Description

This course examines topics related to the design and implementation of analog microelectronic circuits. The topics include an introduction to noise and distortion in electronic circuits, feedback, analysis and design of biasing circuits, operational amplifiers and comparators, references, analog-to-digital converters, digital-to-analog converters, power amplifiers, mixers, signal generators and wave shaping, circuits for modulation and demodulation, phase-locked loops, and an introduction to analog filter design. Aspects of component modelling are also covered. This course builds on material in earlier circuits and electronics courses, including ELEC 221, ELEC 252, and ELEC 353, as well as concepts related to signals and systems in ELEC 323.

Course Learning Outcomes (CLOs)

• Design Active Filters using Biquads
• Understand switch capacitor filter design
• Understand simple Op Amp design
• Design Class A, B, AB, C and D amplifiers
• Understand principles of Variable Gain Amplifier design
• Understand principles of Comparator design
• Understand principles of Digital to Analogue Converter design
• Understand principles of Analogue to Digital Converter design
• Design oversampled converters
• Understand the principles of oscillator design
• Design Wien-Bridge and Two Integrator Oscillators using Op Amp circuits
• Understand principles Bistable Circuit, Astable Multivibrator and Saw-Tooth Waveform generator
• Apply a method for analysing noise figure and equivalent input noise density of linear electronic circuits
• Analyse and design Colpitts, Crystal Oscillator, Current Starved VCO, Relaxation Oscillator and Multi-vibrator as VCO
• Analyse Analog Multiplier (Gilbert Cell) and its applications to BPSK Modulator QPSK MOD and QAM MOD
• Using the Relaxation Oscillator and Gilbert cell a PLL is designed and analysed. A brief discussion on frequency synthesis is given.

Credit Breakdown

Lecture: 3
Lab: 0
Tutorial: 0.25

Academic Unit Breakdown

Mathematics 0
Natural Sciences 0
Complementary Studies 0
Engineering Science 20
Engineering Design 19
 

Outline:

Week 1: Introduction
Lecture 2: Class A Amp
Lecture 3: Class A Amp Efficiency / Examples

Week 2: Lecture 4: Heat Sink Design and Class B Amp Intro
Lecture 5: Class B Amp Power Dissipation, Efficiency and Realization
Lecture 6: Class AB Amp Realization and Bridged Amplifier

Week 3: Lecture 7: Class D Amp Into
Lecture 8: Class D Amp Efficiency and Power Dissipation
Lecture 9: Class D Amp Efficiency and Power Dissipation Conclusion, and Beyond Class D

Week 4: Lecture 10: Class E/F and Gain Control
Lecture 11: Distorion and Filters (Intro and bilinear)
Lecture 12: 2-Integrator Biquad and Example

Week 5: Lecture 13: Single OpAmp Biquad, Active Inductor and Intro to Switch Cap Filter
Lecture 14: Switch Cap Filter- 2 Phase Non overlapping Clock and CMOS Op Amp Small Signal Parameters
Lecture 15: CMOS Op Amp Small Signal Frequency Response and Stability/Compensation

Week 6: Lecture 16: CMOS Op Amp:Compensation Details and Slew Rate
Lecture 17: CMOS Op Amp: Folded Cascode and Comparator: Preamp and Decision Circuits
Lecture 18: Comparator: Modified Decision Circuit and Output Buffer

Week 7: Lecture 19: Sample and Hold; Binary Weighted DAC
Lecture 20: R-2R DAC and CMOS Current Scaling DAC
Lecture 21: Charge Scaling DAC and Serial DAC

Week 8: Lecture 22: ADC: Feedback, Dual-Slope, Flash and Charge Redistribution
Lecture 23: Oversampling and Intro to Delta-Sigma MOD
Lecture 24: Signal and Noise Transfer Functions, Delta-Sigma MOD hardware implementation, Oversampling ADC and DAC

Week 9: Lecture 25: Intro to Oscillators; Liminting Circuit
Lecture 26: Wien-Bridge Oscillator and Quadrature Oscillator
Lecture 27: Bistable Circuit and Astable Multivibrator

Week 10: Lecture 28: Saw-Tooth Generator, Colpitts and Crystal Oscillator
Lecture 29: Current Starved VCO and Relaxation Oscillator
Lecture 30: Multi-vibrator and Into to Noise

Week 11: Lecture 31: Noise Models and Noise through Filters
Lecture 32: Noise in S/H and Op Amp circuits.
Lecture 33: Noise Amplifier circuit, Analog Multiplier, and BPSK Modulator.

Week 12: Lecture 34: QPSK MOD and QAM MOD.
Lecture 35: Phase locked loops.
Lecture 36: Review.

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