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1997 Swinburne Higher Education Handbook

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Timber design: simple beam and column design.<br />

Computer applications: modelling, analysis and design of a<br />

range of structures relevant to the course using available<br />

software.<br />

Recommended reading<br />

Spencer, W.J. Fundamental Structural Analysis. Macmillan<br />

<strong>Education</strong>, London, 1988<br />

Coates, R.C., Coutie, M.G. and Kong, F.K. Structural Analysis.<br />

2nd edn, Nelson, Surrey, 1980<br />

Schodeck, Daniel L. Structures. Regents/Prentice Hall, 1992<br />

Moy, Stuart S.J. Plastic Methods for Steel and Concrete Structures.<br />

Macrnillan, 1989<br />

Trahair, N.S. and Bradford, M.A. Behaviour and Design of Steel<br />

Structures. 2nd edn, Chapman and Hall, 1988<br />

Standards Association of Australia. AS 1170.1 - 1989 Loading Code<br />

Part 1: Dead and live loads and load combinations. Standards<br />

Association of Australia, Sydney, 1989<br />

Standards Association of Australia. AS 4100 - 1990 Steel Structures.<br />

Standards Association of Australia Sydney, 1990<br />

a BT v~. v--<br />

CE356 Civil Design cb-t.+~ r; v -<br />

10 Credit Points 4.5 hourspw week Hawthorn<br />

Instruction: lectures, tutoriah, seminars Assessment:<br />

examination 50%, assignment 50%<br />

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

Objectives<br />

To provide an appreciation of the systematic approach to<br />

design, construction and maintenance of civil engineering<br />

systems, the comparative merits of common materials, and<br />

through case studies to develop basic skill in design practice.<br />

Content -- -<br />

Engineering system reliability, failure modes, overdesign,<br />

failsafe design, risk.<br />

Introduction to the design process: problem formulation,<br />

system loads, environmental circumstances, customer service<br />

standards; problem analysis, design specification; developing<br />

alternative solutions, creativity; evaluating design options,<br />

decision criteria and processes; documenting chosen design,<br />

drawings, specifications, operating manuals, maintenance<br />

schedules.<br />

Overview of engineering materials: comparison of principal<br />

characteristics of steel, timber, concrete, plastics, foundation<br />

and pavement materials; materials codes of practice. Effects<br />

of repetitive loading, corrosion, ageing. Prefabricated<br />

K engineering components: precast concrete pipes and<br />

8 products, piles, building trusses, wall and floor panels,<br />

geotextiles. Connectors, fasteners, joint seals, adhesives.<br />

Shallow foundation systems: interpretation of foundation<br />

investigations, choice of foundation depth, type and size,<br />

design of foundation system, effect on adjacent structures.<br />

Drainage and flood mitigation systems: optional<br />

components, effects on surrounding areas, community use<br />

of floodways, water quality issues, system overload, system<br />

maintenance.<br />

Local area traffic management: objectives of traffic<br />

management, alternative means of control, consultation and<br />

decision processes.<br />

Recommended reading<br />

Ward-Harvey. Fundamental Building Materials. RAIA, 1995<br />

Tomlinson, M.J. Foundation Design and Construction. 6th edn,<br />

Longman, 1994<br />

Standards Association of Australia. AS 1170.1 - 1989 Loading Code<br />

Part 1: Dead and live loads and load combinations. Standards<br />

Association of Australia, Sydney, 1989<br />

Standards Association of Australia. AS 3600 - 1988 Concrete<br />

Structures. Standards Association of Australia, 1988 -<br />

<br />

CE366 Road and Traffic Engineering CL<br />

OP',' 5<br />

10 Credit Points 4.5 hours per week Hawthorn<br />

Instruction: lectures, tutorials, project sessions Assessment:<br />

examination 70%, assignment 30%<br />

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

0 biedives<br />

To develop further the principles and skills relevant to the<br />

geometric design of roads, introduced in CE246.<br />

To develop understanding of road construction practices.<br />

To introduce students to traffic engineering, particularly<br />

traffic studies.<br />

Content<br />

Traffic engineering: traffic studies including traffic study<br />

planning, and field methods and analysis for speed and<br />

volume studies; introduction to traffic management<br />

including classification systems, management techniques for<br />

arterial and rural roads, and construction traffic<br />

management.<br />

Drainage and road design: flow through pavements,<br />

pavement drainage; soil hydraulics including permeability,<br />

flow nets and anisotropic flow, with applications to slopes<br />

and retaining walls.<br />

Geometric design of roads: transitions and superelevation,<br />

sections and drainage in cut and fill, computer aided design.<br />

Road construction: construction sequence, types and use of<br />

plant, plant output, earthworks, erosion control, theory of<br />

compaction, in situ density measurement, pavement types,<br />

function of a pavement, stabilisation, construction and<br />

materials for flexible and rigid pavements.<br />

Recommended reading<br />

Austroads. Rural Road Design - Guide to the Geometric Design of<br />

Road. Austroads, Sydney, 1989<br />

Austroads. Guide to Trafic Engineering Practice - Part 3 Traffic<br />

Studies. Austroads, Sydney, 1993<br />

Craig, R.F. Soil Mechanics. 5th edn, Van Nostrand Reinhold ,<br />

UK, 1995<br />

Das, B.M. Principles of Geotechnical Engineering. 3rd edn, PWS,<br />

Boston, 1994<br />

Underwood, R.T. Road Engineering Practice. 1st edn, Macmillan<br />

<strong>Education</strong>, Melbourne, 1995<br />

CE397<br />

Industry Based Learning<br />

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

0 biedives<br />

To complete 24 weeks of full-time paid employment in a<br />

civil engineering related industry.<br />

To gain industry based learning experiences which integrate

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