Swinburne University of Technology - Melbourne Australia
Future Students - Courses
Duration
Contact Hours
Campus
Prerequisite
Corequisite
1 Semester
60 Hours
Hawthorn, Sarawak
Nil
Credit Points: 12.5 Credit Points
A unit of study in the Bachelor of Engineering (Biomedical Engineering), Bachelor of Engineering (Electrical and Electronic Engineering), Bachelor of Engineering (Electronics and Computer Systems)Bachelor of Engineering (Electrical and Electronic Engineering)/Bachelor of Commerce ( EM057)Bachelor of Engineering (Electronics and Computer Systems), Bachelor of Engineering (Electronics and Computer Systems)/ Bachelor of Commerce, Bachelor of Engineering (Mechanical Engineering), Bachelor of Engineering (Mechanical Engineering)/ Bachelor of Commerce Bachelor of Engineering (Product Design Engineering), Bachelor of Engineering (Robotics and Mechatronics), Bachelor of Engineering (Robotics and Mechatronics)/ Bachelor of Commerce Bachelor of Engineering (Robotics and Mechatronics)/ Bachelor of Science (Computer Science and Software Engineering), Bachelor of Science (Biomedical Sciences), Bachelor of Engineering (Electronics and Computer Systems)/ Bachelor of Science (Computer Science and Software Engineering)Bachelor of Engineering (Electronics and Computer Systems)/Bachelor of Science (Biomedical Sciences) ( S040Y)Bachelor of Engineering (Electronics and Computer Systems)/ Bachelor of Science (Computer Science and Software Engineering), Bachelor of Engineering (Telecommunication and Network Engineering)/ Bachelor of Science (Computer Science and Software Engineering), Bachelor of Engineering (Telecommunication and Network Engineering).
This unit provides a basic introduction to analog and digital electronics (including analog DC circuit theory, digital logic and digital electronics, analog AC circuit theory, and amplification). The subject also provides a basic introduction to electromagnetism (including electric and magnetic fields, and the generation of electricity). An understanding of basic electronic principles is an important cornerstone of most technology-related careers in science and engineering. The subject uses 'real life' examples where possible. After successfully completing this unit, you should be able to: Demonstrate a good understanding of the fundamental principles underlying basic electronics and electromagnetism.Construct and design simple electronic circuits.Analyse electronic circuits both independently and collaboratively.Identify and solve problems involving electronics and electromagnetism.Communicate your understanding of electronics and electromagnetism both verbally and in written form.
Lectures (36 hours), Practical laboratory work (12 hours) and Tutorials (12 hours).
Examination (60%), Practical laboratory-based work (participation, lab tests, report) (20%), Tutorial-based work (assignments, participation) (20%).
In this unit, students are expected to enhance the Key Generic Skills below as recognised by Engineers Australia. The Unit Outline explains how these outcomes will be achieved. Ability to apply knowledge of basic science and engineering fundamentalsAbility to communicate effectively, not only with engineers but also with the community at largeAbility to undertake problem identification, formulation and solutionUnderstanding of the social, cultural, global and environmental responsibilities of the professional engineer, and the need for sustainable development
Analog DC Electronics: charge, current, voltage, Ohm’s law, Kirchoff’s laws, series and parallel circuits, voltage divider, current divider, simplifying resistor networks, power and power transfer;Electromagnetism: electric and magnetic fields (static and changing), magnets, magnetic induction, Faraday’s Law, Lenz’s Law, AC generators;Analog AC Electronics: alternating current & voltage, frequency, period, phase, amplitude (p-p, peak, RMS), capacitor circuit and reactance, inductor circuit and reactance, RC and RL series circuits, phasor notation; impedance, RLC series resonance circuit; low and high pass filters, ideal transformers;Amplification: ideal op-amp, model, open and closed loop gain; inverting and non-inverting configurations;Digital Electronics: introduction, digital logic, number systems, Boolean operators, truth-tables, design and simplification of circuits, Boolean laws and identities, S of P representation, K maps, combinatorial logic.
Hambley, AR, Electrical Engineering, Principles & Applications, Prentice-Hall, 1997.Serway, RA, Principles of Physics, Saunders College Press, 2nd edn, 1994.