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1997 Swinburne Higher Education Handbook

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SCE203 Industrial Process Engineering and<br />

Management<br />

10 credit points 4 hours per week @ Hawthorn<br />

Instruction: lectures, tutorials, discussions, plant visits<br />

Assessment: examination 50%, reports 30%, seminars 20%<br />

This is a subject in the intermediate stage of the Bachelor of<br />

Engineering (Chemcial).<br />

0 b jectives<br />

The aim of the subject is to impart a general understanding<br />

and appreciation - - of the following:<br />

the relationship between process engineering and other<br />

branches of engineering<br />

the steps involved and the various types of knowledge<br />

required in the design and operation of a process plant<br />

the technical and managerial responsibilities of the<br />

process engineer<br />

the tools of communication used by the process<br />

engineer: flowsheets, drawings, reports<br />

the economical, social and environmental impact of the<br />

process industry<br />

professional ethics and responsibilities in the work place<br />

Content<br />

History of the development of the process industry.<br />

Industrial and social contexts of process engineering. The<br />

role of the process engineer: technical and managerial.<br />

Examples of processes from the chemical, mineral,<br />

pharmaceutical, food, etc. industries.<br />

Process description and process analysis; flowsheets.<br />

The physical and chemical principles involved in a process;<br />

the laws of thermodynamics; rate processes: momentum,<br />

heat and mass transfer; reaction kinetics and mechanisms;<br />

process dynamics and control. Unit operations in process<br />

engineering.<br />

General process-design principles; mass and energy balances.<br />

Equipment design: materials, piping, instrumentation. Plant<br />

design; analysis of technical and economic feasibilities.<br />

Quality Assessment and control. Market research;<br />

economic forecasting; cost and risk analysis.<br />

Environmental and social issues; waste management;<br />

renewable resources; occupational health and safety;<br />

professional ethics.<br />

-. u<br />

Responsibilities of the process engineer: design, operation,<br />

investigation, research and development, management of<br />

people and resources, management of projects.<br />

%.<br />

Engineering tools: process flowsheets; engineering<br />

drawings; process/piping-and-instrumentation drawings<br />

(P&ID's); verbal and written reports; computers and<br />

microprocessors; modelling.<br />

Recommended reading<br />

Shreve, R.N., Austin, G.T., Shreve's Chemical Process Industries.<br />

5th ed, McGraw Hill, New York, 1984<br />

References<br />

Field, R W. Chemical Enginewing - Introductory Aspects.<br />

McMillan education. 1988<br />

SCE204 Biochemistry 1<br />

10 credit points 5 hours per week Hawthorn<br />

Instruction:lectures, laborato y Assessment: examination<br />

50%, tests 20%, laboratoy reports 30% Prerequisites: SC108<br />

Biology<br />

This is a subject in the intermediate stage of the Bachelor of<br />

Engineering (Chemcial).<br />

Objectives<br />

To acquaint students with detailed structures of<br />

biomolecules.<br />

To develop an understanding of enzyme structure,<br />

mechanisms, kinetics (including the roles of coenzymes,<br />

cofactors, activators, inhibitors). To develop a practical<br />

appreciation of the techniques for handling delicate<br />

macromolecules such as enzymes.<br />

To develop a detailed understanding of the main<br />

catabolic ~athwa~s, especially in relation to energy<br />

transformations and inter-relationships of the pathways.<br />

Content<br />

Introduction to biomolecules: monosaccharides,<br />

disaccharides, polysaccharides, amino acids, polypeptides,<br />

structure of proteins, lipids, nucleotides, enzymes,<br />

coenzymes, nucleic acids.<br />

Enzyme kinetics simple enzyme mechanisms, Michaelis-<br />

Menten kinetics, inhibition.<br />

Catabolic pathways for carbohydrate, lipid and protein.<br />

Laboratory exercises will include quantitative<br />

spectrophotometric analysis, colorigenic assays, biochemical<br />

extractions and analyses, model building of peptides,<br />

enzyme kinetics, computer simulated enzyme catalysis,<br />

isoenzyme analysis, and enzyme assays. The program<br />

supports the theory content by illustrating biochemical<br />

structures, enzyme kinetics and metabolic pathways.<br />

As well as practice in basic biochemistry laboratory<br />

techniques and procedures, skills emphasised by the<br />

practical program include protocol interpretation and<br />

design, and calculations and interpretation of data from<br />

quantitative analyses.<br />

Recommended reading<br />

Moran, L A, et al, Biochemistry, 2nd edition, Neil Patterson<br />

Publishers, Prentice Hall 1994<br />

SCE205 Chemistry 2<br />

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

Instruction: lectures, laboratoy work Assessment: tests 15%,<br />

examination 35%, laboratory work 50% Prerequisites:<br />

SClfi4N Chemist?<br />

This is a subject in the intermediate stage of the Bachelor of<br />

Engineering (Chemcial).<br />

Obiectives<br />

To build on the many basic concepts acquired elsewhere in<br />

Chemistry and to extend this knowledge to a level that is<br />

applicable for chemical engineering.<br />

Content<br />

Overview of chemical bonding, electronic structure of

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