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Please note - Swinburne University of Technology

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Textbooks<br />

As specified by the lecturer<br />

Reference<br />

Austin, G.T. Shreves Chemical Process Industries. 5th ed, New York:<br />

McGraw-Hill, 1984<br />

MM2l I Introduction to Chemical Engineering<br />

No. <strong>of</strong> hours per week: two hours for two<br />

semesters<br />

Assessment: exams, assignments<br />

Subject aims and description<br />

Chemical engineeering thermodynamics: physical equilibrium,<br />

bubble and dewpoint relations, phase diagrams, activity and<br />

activity coefficients, Gibbs Duhem equation, chemical<br />

reaction equilibria, heats <strong>of</strong> reaction and mixing.<br />

Basic design techniques: mass and energy balance<br />

calculations; flowsheets; stoichiometry calculations involving<br />

bypass, recycle and purge; combustion and heat engine<br />

calculations.<br />

Textbooks<br />

Felder, R.M. and Rousseau, R.W. Elementary Principles <strong>of</strong> Chemical<br />

Processes. 2nd ed, New York: Wiley, 1986<br />

Smith and Van Ness. Introduction to Chemical Engineering<br />

Thermodynamics. 4th ed, New York: McGraw Hill. 1987<br />

~ ~ 2 2Energy 0 Systems<br />

No. <strong>of</strong> hours per week: four hours<br />

Assessment: examination, laboratory assignment<br />

Subject aims and description<br />

This subject is a second-year first semester subject in the<br />

degree <strong>of</strong> Bachelor <strong>of</strong> Engineering (Manufacturing).<br />

This subject comprises:<br />

Thermodynamics (two hours per week).<br />

Fluid mechanics (two hours per week).<br />

Thermodynamics<br />

Revision <strong>of</strong> non-flow processes with gases.<br />

Revision <strong>of</strong> steady flow processes with gases and liquids.<br />

Non-steady flow with non-reacting fluids (mechanical<br />

engineering students only).<br />

Second law <strong>of</strong> thermodynamics.<br />

-<br />

3 Reversibility.<br />

n<br />

c_ Entropy <strong>of</strong> gases, liquids and vapours, T-S and h-5 charts.<br />

r*<br />

Vapour compression refrigeration.<br />

2 Real gases (manufacturing engineering students only).<br />

rn<br />

3 Fluid Mechanics:<br />

%. Fundamental concepts: perfect and real fluids; density,<br />

51<br />

compressibility, viscosity, Newtonian and non-Newtonian<br />

2. fluids, surface tension.<br />

* Fluid statics: Measurement <strong>of</strong> pressure, laws <strong>of</strong> fluid pressure,<br />

hydrostatic thrust on submerged surfaces; buoyancy and<br />

flotation.<br />

Basic fluid dynamics: Continuity, energy and momentum<br />

equations; application to devices for measuring velocity and<br />

flow rate.<br />

lntroduction to boundary layer theory: qualitative treatment<br />

<strong>of</strong> boundary layer growth; laminar and turbulent velocity<br />

pr<strong>of</strong>iles.<br />

References<br />

Daugherty, R.L., Franzini, J.B. and Finnermore, E.J. Fluid Mechanics<br />

with Engineering Applications. 5.1. Metric Edition. New York:<br />

McGraw-Hill. 1989<br />

Eastop, T.D. and McConkey, A. Applied fhermodynamics for<br />

Engineering Technologists. 4th ed, London: Longman, 1986<br />

Rogers, G.F.C. and Mayhew, Y.R. Thermodynamic and Transport<br />

Pmperties <strong>of</strong> Nuids 4th ed, Oxford: Blackwell, 1988<br />

Rogers, G.F.C. and Mayhew, Y.R. Engineering Thermodynamia, Mibrk<br />

& Heat Transfer. 4th ed, London: Longman, 1992<br />

Schmidt. Mollier Enthalply - Entmpy and Diagram for Steam. Latest<br />

ed, Springer<br />

MM222 Energy Systems<br />

No. <strong>of</strong> hours per week: four hours for semester<br />

one and three hours for semester two<br />

This subject is for all degree <strong>of</strong> Bachelor <strong>of</strong> Engineering<br />

(Mechanical).<br />

Subject aims and description<br />

This subject comprises:<br />

Thermodynamics (two hours per week).<br />

Fluid mechanics (one hour per week).<br />

Thermodynamics:<br />

Revision <strong>of</strong> non-flow processes with gases.<br />

Revision <strong>of</strong> steady flow processes with gases and liquids.<br />

Non-steady flow with non-reacting fluids.<br />

Second law <strong>of</strong> thermodynamics.<br />

Entropy <strong>of</strong> gas, liquids and vapoun, T-s and h-s charts.<br />

Reversibility.<br />

Vapour compression refrigeration.<br />

Turbine isentropic efficiency.<br />

Reciprocating has compressors.<br />

lntroduction to power cycles including Carnot, Rankine (with<br />

reheat and feed water heating), Otto, Diesel, Joule, Stirling.<br />

Fluid mechanics<br />

Fundamental concepts: perfect and real fluids; density,<br />

compressibility, viscosity, Newtonian and non-Newtonian<br />

fluids, surface tension. revision <strong>of</strong> fluid statics: measurement<br />

<strong>of</strong> pressure, laws <strong>of</strong> fluid pressure, hydrostatic thrust on<br />

submerged surfaces. Basic fluid dynamics: continuity, energy<br />

and momentum equations; velocity measurements.<br />

Qualitative treatment <strong>of</strong>: laminar and turbulent flow,<br />

boundary layers in incompressible conduit flow. Viscous flow<br />

in pipes and ducts: head losses due to friction; other head<br />

losses; friction factor for laminar and turbulent steady flow.<br />

Aim: Following a brief revision <strong>of</strong> MM120 studies, students<br />

will be introduced to the second law <strong>of</strong> thermodynamics,<br />

entropy, energy conservation in unsteady fluids and<br />

reversibility.<br />

Students will be introduced to the mechanics <strong>of</strong> fluids,<br />

covering fluid properties, fluid statics, momentum, energy<br />

and an introduction to boundary layer theory.<br />

Textbooks<br />

Daughew, R.L., Franzini, J.B. and Finnermore, E.J. Fluid Mechanics<br />

with Engineering Applications. 51 Metric ed, New York: McGraw-Hill.<br />

1989<br />

Eastop. T.C. and McConkey, A. Applied Thermodynamics for<br />

Engineering Technologists. 4th ed, London: Longmans. 1986<br />

Rogers, C.F.C. and Mayhew, Y.R. Thermodynamic and Transport<br />

Properties <strong>of</strong> Fluids. 4th ed, Oxford: Blackwell, 1988<br />

References<br />

Rogers, G.F.C. and Mayhew, YR. Engineering Thermodynamics -<br />

Wrk and Heat Transfer. 4th ed, London: Longmans, 1922<br />

Schmidt, Molhier Enthalpy - Entropy Diagram for Steam. Latest ed,<br />

Springer<br />

MM230 Engineering Materials<br />

No. <strong>of</strong> hours per week: two hours for two<br />

semesters<br />

This subject is a second-year subject in the School <strong>of</strong><br />

Mechanical and Manufacturing Engineering.<br />

Subject aims and description<br />

It aims to establish a working knowledge <strong>of</strong> the relationships<br />

between the structure and properties <strong>of</strong> materials as applied<br />

to fields <strong>of</strong> mechanical and manufacturing engineering.<br />

Subjects covered include:<br />

Fracture mechanics. Fibre composite materials. Polymeric<br />

materials. Ferrous materials. Non-ferrous materials. Processing<br />

<strong>of</strong> electrical materials. Corrosion and stress corrosion.<br />

Tribology. Joining technology. Material property data bases.

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