1996 Swinburne Higher Education Handbook
1996 Swinburne Higher Education Handbook
1996 Swinburne Higher Education Handbook
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Prediction of heat transfer coefficients by the mechanisms of<br />
natural and forced convection, film and dropwise<br />
condensation; nucleate and film boiling. LMTD, FT and E-<br />
NTU methods to determine temperature driving forces.<br />
Thermal rating of shell and tube exchangers; pressure drop<br />
in heat exchangers.<br />
MM320 Energy Systems<br />
8 credit points 4 hours Hawthorn<br />
A third year subject in the Bachelor of Engineering<br />
(h4anufacturing)<br />
Content<br />
Thermodynamics<br />
Heat transfer. Forced and free convection, the thermal<br />
boundary layer in laminar and turbulent flow, momentum<br />
and eddy diffusivity, dimensional analysis applied to<br />
convective processes. Boiling and condensation. Types of<br />
heat exchangers, NTU, effectiveness. Combined modes of<br />
heat transfer. Combustion. Combustion equations for<br />
stoichiometric, rich and lean mixtures. Solid, liquid and gas<br />
fuels, exhaust and flue gas analysis. Enthalpy of formation<br />
and of reaction, non-flow combustion. Adiabatic flame<br />
temperature. Dissociation.<br />
Fluid mechanics<br />
Dimensional analysis and similarity. Methods of<br />
dimensional analysis; dimensionless groups associated with<br />
problems occurring in fluid flow including effects of natural<br />
and forced convection; modelling. Solution of turbulent<br />
flow problems; friction factor for laminar and turbulent<br />
steady, incompressible, viscous flow in pipes and ducts;<br />
series and parallel arrangements. Rotodynamic machinery;<br />
Classification and external considerations, power/flow<br />
characteristics, efficiency, similarity laws, system matching.<br />
Recommended reading<br />
Douglas, J.F., Gasiorek, J.M. and Swaffield, J.A., Fluid Mechanics.<br />
2nd edn, Burnt Hill, Harlow, Essex, England, Longman Scientific<br />
and Technical, 1985<br />
Holman, J.P., Heat Transfer. S1 Metric edn, Singapore, McGraw-<br />
Hill, 1989<br />
Rogers, G.F.C. and May hew, Y.R., Engineering Thermodynamics.<br />
4th edn, Harlow, Longman Scientific and Technical, 1992<br />
MM321 Fluid Mechanics<br />
7 credit points 3 hours per week Hawthorn<br />
Assessment: examinations and practical work<br />
A third year subject in the Bachelor of Engineering<br />
(Manufacturing) and (Chemical)<br />
Content<br />
Kinetic and potential energy, the equivalence of pressure and<br />
head. Bernoulli equation and its application to Pitot tube,<br />
orifice p late and Venturi, and weir plates.<br />
Momentum and the momentum equation. Viscosity, its<br />
measurement and use. Criteria of similarity; dimensional<br />
analysis and its application to the derivation of the Stanton<br />
(Moody) chart. Equivalent length and diameter. Stanton and<br />
von Karman charts. The Hagen-Poiseuille equation.<br />
Operation and characteristics of centrifugal pumps and fans;<br />
means off output control. The virtual head equation, the<br />
dimensionless groups relating pump head, throughput,<br />
power consumption and efficiency with impeller diameter<br />
and speed. Specific speed; cavitation and NPSH;<br />
relationships between frictional head loss in pipework and<br />
head development by pump or fan.<br />
Application of the above concepts to the solution of problems.<br />
Recommended reading<br />
Coulson, J.M., Richardson, J.F. and Bachkurm, J.R., Chemical<br />
Engineering. vol. 1,4th edn, Oxford, Pergamon Press, 1990<br />
MM330 Advanced Materials<br />
2 credit points I hourper week Hawthorn<br />
Assessment: examinations and assignments<br />
A third year subject in the Bachelor of Engineering<br />
(Manufacturing)<br />
Content<br />
Fracture mechanics<br />
Plane strain fracture toughness testing. Valid test sample,<br />
determination of stress intensity factor, toughness<br />
determination for a variety of materials and configurations.<br />
Fibre composite materials<br />
Fabrication and manufacture of fibre reinforced composites.<br />
Failure modes, analytical design, empirical design.<br />
Laminate composite analysis, examples of laminate analysis<br />
using computer packages.<br />
Surface engineering<br />
Nature of wear, quantitative description of wear, testing and<br />
evaluation for wear resistance.<br />
Review of industrial systems for modification of surfaces by<br />
infusion treatments and surface coatings.<br />
Structure modifications, properties and applications<br />
resulting from<br />
transformation hardening<br />
electrochemical techniaues<br />
thermochemical techniques<br />
physical and chemical vapour deposition<br />
Selection of surface modification techniques.<br />
Development of expert systems.<br />
Recommended reading<br />
Ashby, M. and Jones, D.R.H. Engineering Materials. vols I, 1986<br />
and 11, 1988, London, Pergamon Press<br />
Metals <strong>Handbook</strong>. 9th edn, ASM, Metals Park, Ohio, U.S.A., 1985<br />
Broek, D., Elementary Engineering Fracture Mechanics. 4th rev.<br />
edn, Boston, Nijhoff, 1987<br />
Hertzberg, R.W., D$omation and Fracture Mechanics of<br />
Engineering Materials. 3rd edn, New York, Wiley, 1989<br />
Mallick, P.K., Fiber-Reinforced Composites. New York, M. Dekker,<br />
1988<br />
McColm, I.J., Ceramic Sciencefor Materials Technologist. London,<br />
Chapman and Hall, 1983<br />
Richerson, D.W., M o b Ceramic EnginePn'ng. 2nd edn, New<br />
York, Marcel Dekker, 1992<br />
Tsai, S.W., Composites Design. 4rh edn, Dayton, Ohio, Think<br />
Composites, 1992