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1997 Swinburne Higher Education Handbook

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exercise, anaesthesia: agents and their administration,<br />

monitoring, physiological effects of anesthesia.<br />

Sleep monitoring; monitoring the respiratory processes<br />

associated with sleep, and disorders of sleep.<br />

Renal biophysics:, vasculature, the juxtaglomerular<br />

apparatus, kidney function tests, countercurrent<br />

multiplication, control of kidney function, renal<br />

pathophysiology, the artificial kidney.<br />

SE3 10 Analog Electronics Design<br />

10 credit points 4.5 hours per week Hawthorn<br />

Prerequisites: SE210 Assessment pracs, assignments and<br />

examination<br />

A third year subject in the degree of Bachelor of Engineering<br />

(Electrical)<br />

0 bjedives<br />

To provide the student with a variety of applicationsoriented<br />

analog electronic design skills Provide insights into<br />

design issues related to component variability, and into the<br />

behaviour of semiconductor functional blocks commonly<br />

used in integrated and discrete analog circuits. Introduce<br />

solid state device characteristics with particular emphasis on<br />

analog integrated circuit characteristics and the uses of<br />

analysis and simulation.<br />

Content<br />

Diode and bipolar transistor large signal models<br />

FET large signal model<br />

Integrated circuit current mirror circuits and large signal<br />

analysis<br />

Emitter coupled differential amplifier & behaviour as a DC<br />

amplifier<br />

Variable transconductance operational amplifier and<br />

balanced modulator with some basic applications including<br />

multiplication<br />

Bias circuits to establish desired operating voltages and<br />

currents<br />

AC coupling and bypass for AC amplifiers<br />

Small signal models and their use for finding gain and<br />

frequency response<br />

Mid-band and high-frequency small signal analysis of CE<br />

and cascode amplifier stages and tuned circuits<br />

Feedback in discrete device amplifiers<br />

Phase-locked loops<br />

ADC, DAC sample/hold, analog multiplexer principles of<br />

operation<br />

CAE design of circuits and integrated devices<br />

Recommended reading<br />

Sedra & Smith, Microelectronic Circuits 3rd Edition, HRW<br />

SE312 Control and Automation<br />

10 credit points 4.5 hoursper week Hawthorn<br />

Prerequisites SE212,SM233 Assessmenr Practical work,<br />

assignments and examination<br />

A third year subject in the degree of Bachelor of Engineering<br />

(Electrical)<br />

Objectives<br />

To develop techniques to formulate models to represent<br />

a linear dynamic system;<br />

To predict the dynamic response of a linear system to a<br />

variety of inputs using analytical tools<br />

To introduce the concept of feedback in a linear system<br />

and to emphasise its advantages using specialised<br />

analytical techniques.<br />

Content<br />

System Concepts: Introduction to the concept of a system as<br />

a connection of elements; Electrical mechanical and thermal<br />

elements and their basic physical relationship; Formulation<br />

of system equations to form a system model; The linear<br />

system and open loop and closed loop systems.<br />

Analysis of Linear Systems: The following analysis<br />

techniques are developed so that the dynamic response of a<br />

single input single output system may be predicted for a<br />

variety of input signals; Classical solution of differential<br />

equations; Solution of differential equations using Laplace<br />

transform techniques; Formulation of a system transfer<br />

function; The analogue computer and its application to<br />

modelling dynamic systems; Frequency response techniques<br />

- analysis from the s-plane and Bode diagrams; An<br />

introduction to state variable analysis.<br />

Feedback Control Systems: Basic concepts of negative<br />

feedback and its advantages; Analysis of feedback control<br />

systems using specialised techniques, root locus diagrams<br />

and frequency response analysis; Steady state performance<br />

using the final value theorem; Basic compensation<br />

techniques using tacho-feedback and proportional plus<br />

integral control to improve dynamic and steady state<br />

performance; Criteria for stability; Determining stability<br />

from the s-plane and from Bode plots, gain margin and phase<br />

margin.<br />

Recommended Reading<br />

Dazm & Houpis, Linear Control Systems Analysis and Design,<br />

McGraw-Hill, 3rd Ed. 1989.<br />

Dorf, R.C. M o h Control Systems, Addison-Wesley, 1989 5th<br />

Ed.<br />

Ogata K, M o h Control Enginem'ng, Prentice-Hall, 1992.<br />

SE314 Communication Principles<br />

10 credit points 4.5 hours per week Hawthorn<br />

Prerequisites: SM244 & SE212 Assessment pracs,<br />

assignments and examination<br />

A third year subject in the degree of Bachelor of Engineering<br />

(Electrical)<br />

Ob jectives<br />

The student should become familiar with common<br />

terminology, concepts, equipment and techniques of signal<br />

processing for communications. The student should be able<br />

to explain, justify, analyse and critically evaluate common<br />

signal processing concepts and methods. The student should<br />

be able to analyse the performance of various modulation<br />

<strong>Swinburne</strong> University of Technology <strong>1997</strong> <strong>Handbook</strong> 503

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