Course Coordinator:Dariusz Alterman (dalterman@usc.edu.au) School:School of Science, Technology and Engineering
UniSC Sunshine CoastUniSC Moreton Bay |
Blended learning | Most of your course is on campus but you may be able to do some components of this course online. |
Please go to unisc.edu.au for up to date information on the
teaching sessions and campuses where this course is usually offered.
Civil engineers are responsible for designing solutions to complex problems that meet client requirements and regulatory standards. In this course you will learn the classical theory of structures and the Australian Standards design approach applying techniques to analyse responses of linear elastic structures under various loads and predict their behaviour. You will apply design codes to determine loads and load combinations for serviceability and ultimate limit states, preparing you to tackle real-world engineering challenges and ensuring the safety and functionality of structures.
| Activity | Hours | Beginning Week | Frequency |
| Blended learning | |||
| Learning materials – Asynchronous learning material including videos, articles and readings | 2hrs | Week 1 | 13 times |
| Information session – Online workshop | 1hr | Week 1 | 13 times |
| Tutorial/Workshop 1 – On campus tutorial/ PC workshop | 3hrs | Week 1 | 13 times |
Topics may include:
200 Level (Developing)
12 units
| Course Learning Outcomes On successful completion of this course, you should be able to... | Graduate Qualities Mapping Completing these tasks successfully will contribute to you becoming... | Professional Standard Mapping * Competencies from multiple Professional Bodies (see below) * | |
| 1 | Apply an existing industry-standard computer program to model real structures, interpret the results and perform manual checks to validate the results. | Empowered |
2, 2, 2.2.d, 2.2.d, 2.2, 2.2 |
| 2 | Estimate internal and external wind loadings on typical portal-framed buildings for the purpose of analysis and design. | Empowered |
2, 2, 2.2.b, 2.2.b, 2.2, 2.2 |
| 3 | Produce a well-communicated and professionally-presented document including details of computer modelling, along with outcomes and conclusions. | Engaged |
3, 3, 3.2.a, 3.2.a, 3.2, 3.2 |
| 4 | Demonstrate competence in utilising Australian Standards and relevant loading guidelines. | Ethical |
1, 1, 1.6.a, 1.6.a, 1.6, 1.6 |
| 5 | Recognise the distinction between the allowable stress and strength limit state approaches and justify the adopted approach. | Knowledgeable |
1, 1, 1.3.a, 1.3.a, 1.3, 1.3 |
| 6 | Discern the importance of checking the validity of computer-generated structural analysis results and identify the structural principles by which this is done. | Knowledgeable |
1, 1, 1.3.a, 1.3.a, 1.3, 1.3 |
| CODE | COMPETENCY |
| Engineers Australia Stage 1 Engineering Technologist Competency Standards | |
| 1 | Elements of competency: Knowledge and Skill Base |
| 1.6.a | Knowledge and Skill Base - Understanding of the scope, principles, norms, accountabilities and bounds of sustainable engineering practice in the technology domain: Understands the standards and codes of practice, as well as the legislative and statutory requirements associated with specialist practice area(s) of the technology domain. |
| 1.3.a | Knowledge and Skill Base - In-depth understanding of specialist bodies of knowledge within the technology domain: Proficiently applies advanced technical knowledge and skills to deliver engineering outcomes in specialist area(s) of the technology domain and associated industry, commercial and community sectors. |
| 1.3 | Knowledge and Skill Base: In-depth understanding of specialist bodies of knowledge within the technology domain. |
| 1.6 | Knowledge and Skill Base: Understanding of the scope, principles, norms, accountabilities and bounds of sustainable engineering practice in the technology domain. |
| 2 | Elements of competency: Engineering Application Ability |
| 2.2.d | Engineering Application Ability - Application of engineering techniques, tools and resources within the technology domain: Determines properties, performance, safe working limits, failure modes, and other inherent parameters of materials, components and systems relevant to specialist area(s) of the technology domain. |
| 2.2.b | Engineering Application Ability - Application of engineering techniques, tools and resources within the technology domain: Understands the principles, limitations and accuracy of mathematical, physical or computational modelling. |
| 2.2 | Engineering Application Ability: Application of engineering techniques, tools and resources within the technology domain. |
| 3 | Elements of competency: Professional and Personal Attributes |
| 3.2.a | Professional and Personal Attributes - Effective oral and written communication in professional and lay domains: Is proficient in listening, speaking, reading and writing English. |
| 3.2 | Professional and Personal Attributes: Effective oral and written communication in professional and lay domains. |
| Engineers Australia Stage 1 Professional Engineer Competency Standards | |
| 1 | Elements of competency: Knowledge and Skill Base |
| 1.6.a | Knowledge and Skill Base - Understanding of the scope, principles, norms, accountabilities and bounds of sustainable engineering practice in the specific discipline: Appreciates the basis and relevance of standards and codes of practice, as well as legislative and statutory requirements applicable to the engineering discipline. |
| 1.3.a | Knowledge and Skill Base - In-depth understanding of specialist bodies of knowledge within the engineering discipline: Proficiently applies advanced technical knowledge and skills in at least one specialist practice domain of the engineering discipline. |
| 1.3 | Knowledge and Skill Base: In-depth understanding of specialist bodies of knowledge within the engineering discipline. |
| 1.6 | Knowledge and Skill Base: Understanding of the scope, principles, norms, accountabilities and bounds of sustainable engineering practice in the specific discipline. |
| 2 | Elements of competency: Engineering Application Ability |
| 2.2.d | Engineering Application Ability - Fluent application of engineering techniques, tools and resources: Applies a wide range of engineering tools for analysis, simulation, visualisation, synthesis and design, including assessing the accuracy and limitations of such tools, and validation of their results. |
| 2.2.b | Engineering Application Ability - Fluent application of engineering techniques, tools and resources: Constructs or selects and applies from a qualitative description of a phenomenon, process, system, component or device a mathematical, physical or computational model based on fundamental scientific principles and justifiable simplifying assumptions. |
| 2.2 | Engineering Application Ability: Fluent application of engineering techniques, tools and resources. |
| 3 | Elements of competency: Professional and Personal Attributes |
| 3.2.a | Professional and Personal Attributes - Effective oral and written communication in professional and lay domains: Is proficient in listening, speaking, reading and writing English. |
| 3.2 | Professional and Personal Attributes: Effective oral and written communication in professional and lay domains. |
Refer to the UniSC Glossary of terms for definitions of “pre-requisites, co-requisites and anti-requisites”.
ENG105 or ENG102
Not applicable
Not applicable
Not applicable
Not applicable
Standard Grading (GRD)
| High Distinction (HD), Distinction (DN), Credit (CR), Pass (PS), Fail (FL). |
The engagement in weekly formative tutorial and workshop problems will demonstrate the level of proficiency and understanding of the course material.
| Delivery mode | Task No. | Assessment Product | Individual or Group | Weighting % | What is the duration / length? | When should I submit? | Where should I submit it? |
| All | 1 | Written Piece | Individual | 50% | Equivalent to max. 800 words each. |
Refer to Format | Online Assignment Submission with plagiarism check |
| All | 2 | Examination - Centrally Scheduled | Individual | 50% | 2 hours |
Exam Period | Online Assignment Submission with plagiarism check |
| All - Assessment Task 1:Written Piece | |||||||||||||||||||
| Goal: | These assignments (take-home tasks) develop your understanding of core theory and its application to practical problems and enable you to identify and address gaps in your skills and knowledge. |
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| Product: | Written Piece | ||||||||||||||||||
| Authorship Statement: | |||||||||||||||||||
| Format: | You will use the material presented in the Learning Material and Workshops, and applied in the Tutorials to complete your assignment. Your submissions will be assessed individually. This assignment helps you to test your knowledge to ensure that you understand the basic concepts of load theory. You will hand sections of this task progressively on the indicated weeks to ensure you receive early, regular, and timely feedback on the progress of your work. Due Weeks 3, 6, 9 & 12. |
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| Criteria: |
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| Generic Skills: | Problem solving, Organisation |
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| All - Assessment Task 2:Final Exam | ||||||||||||||||
| Goal: | The final exam will build your skills to analyse statically indeterminate structures by first principles independently and with confidence within a set time limit and with limited access to additional resources. |
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| Product: | Examination - Centrally Scheduled | |||||||||||||||
| Authorship Statement: | ||||||||||||||||
| Format: | The final exam assesses the material covered in the course (workshops, tutorials and assignments) and the self-study material (e.g. prescribed reading). You will be required to analyse indeterminate structures. With your solutions you will demonstrate your understanding and ability to apply advanced methods of structural analysis. The exam will be partially open book. Full details of what may be taken into the exam venue will be explained in class during the semester and posted on Canvas. |
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| Criteria: |
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| Generic Skills: | Problem solving |
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A 12-unit course will have total of 150 learning hours which will include directed study hours (including online if required), self-directed learning and completion of assessable tasks. Student workload is calculated at 12.5 learning hours per one unit.
| Period and Topic | Activities |
Week 1 |
Analysis of statically determinate structures, and Limit States Design incl. loads, load combinations, and load combination arrangements; Computer modelling fundamentals. |
Week 2 |
Analysis of statically determinate structures, and Limit States Design incl. wind effects on buildings; Computer modelling – analysis of statically determinate beams. |
Week 3 |
Analysis of statically determinate structures, and Limit States Design incl. wind actions on structures; Computer modelling – analysis of statically determinate beams (deflection). |
Week 4 |
Analysis of statically determinate trusses and frames; Computer modelling – analysis of statically determinate compound beams; Computer modelling – analysis of statically indeterminate beams. |
Week 5 |
Indeterminacy, analysis of statically indeterminate structures; Computer modelling – analysis of statically determinate and indeterminate trusses. |
Week 6 |
Deflection by double integration method; Computer modelling – group project. |
Week 7 |
Principle of Work incl. Virtual Work (deformation); Computer modelling – group project. |
Week 8 |
Principle of Virtual work (Integration table); Computer modelling – group project. |
Week 9 |
Force method (beams); Computer modelling – group project. |
Week 10 |
Force method (frames & trusses); Computer modelling – group project. |
Week 11 |
Influence lines (beams); Computer modelling – group project. |
Week 12 |
Influence lines (trusses); Computer modelling – group project. |
Week 13 |
Revision |
Please note: Course information, including specific information of recommended readings, learning activities, resources, weekly readings, etc. are available on the course Canvas site– Please log in as soon as possible.
You need regular access to the resource(s) below. Many texts are available as ebooks through the Library at no additional cost.
| Required? | Author | Year | Title | Edition | Publisher |
| Recommended | Russell C. Hibbeler | 0 | Structural Analysis in SI Units | n/a | n/a |
| Recommended | AS/NZS | 0 | AS/NZS 1170.0 Structural design actions - General principles | n/a | n/a |
| Recommended | AS/NZS | 0 | AS/NZS 1170.1 Structural design actions - Permanent, imposed and other actions | n/a | n/a |
| Recommended | AS/NZS | 0 | AS/NZS 1170.2 Structural design actions - Wind actions | n/a | n/a |
Not applicable
Academic integrity is the ethical standard of university participation. It ensures that students graduate as a result of proving they are competent in their discipline. This is integral in maintaining the value of academic qualifications. Each industry has expectations and standards of the skills and knowledge within that discipline and these are reflected in assessment.
Academic integrity means that you do not engage in any activity that is considered to be academic fraud; including plagiarism, collusion or outsourcing any part of any assessment item to any other person. You are expected to be honest and ethical by completing all work yourself and indicating in your work which ideas and information were developed by you and which were taken from others. You cannot provide your assessment work to others. You are also expected to provide evidence of wide and critical reading, usually by using appropriate academic references.
In order to minimise incidents of academic fraud, this course may require that some of its assessment tasks, when submitted to Canvas, are electronically checked through Turnitin. This software allows for text comparisons to be made between your submitted assessment item and all other work to which Turnitin has access.
For more information on Academic Learning & Teaching categories including:
For more information, visit https://www.usc.edu.au/explore/policies-and-procedures#academic-learning-and-teaching
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