Course Coordinator:Tongfei Tian (ttian@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 usc.edu.au for up to date information on the
teaching sessions and campuses where this course is usually offered.
Computer aided engineering (CAE) is now a common step in the design of engineering structures. This course builds on the knowledge and skills gained in Mechanics of Materials and Dynamics 1. You will gain an understanding of the operation and limitations of CAE systems. You will have the opportunity to develop the skills required to design such structures and systems. Material presented includes a brief discussion on the architecture of CAE systems, numerical methods and finite element methods. Considerable emphasis is placed on the appropriate use of the finite element method in the design process.
Activity | Hours | Beginning Week | Frequency |
Blended learning | |||
Learning materials – Asynchronous Learning Material: Students are required to watch a pre-recorded learning material in Canvas | 1hr | Week 1 | 13 times |
Tutorial/Workshop 1 – On Campus Tutorials: Students are asked to solve the tutorial questions based on the theories and methods in the learning materials | 2hrs | Week 1 | 13 times |
Laboratory 1 – On Campus Lab: Students will practice the finite element analysis software in the PC labs | 2hrs | Week 2 | 12 times |
• Matrix algebra
• Finite element method
• Discretisation and other approximations
• Stiffness and displacement methods
• Bars beams, truss and linear statics analysis
• Plane stress and plane strain
• Frame and grids
• Thermal stress
300 Level (Graduate)
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 * Engineers Australia Stage 1 Professional Engineer Competency Standards | |
1 | Explain the concepts and principles used in the formulation and application of the finite element method. |
Knowledgeable Creative and critical thinker |
1.1, 1.2 |
2 | Formulate, implement, and document solutions to solve simple engineering problems using the finite element method. |
Empowered Engaged |
2.1, 2.2 |
3 | Identify and use appropriate software packages to assist in the solution of a range of common engineering problems. |
Creative and critical thinker Engaged |
2.1, 2.2 |
4 | Evaluate the performance of an existing design using computer aided engineering software to evaluate the validity of the model and solution in relation to the original problem specification . |
Empowered Engaged |
1.6, 2.3 |
5 | Communicate concepts in computational mechanics in writing. | Knowledgeable |
3.2, 3.4 |
CODE | COMPETENCY |
Engineers Australia Stage 1 Professional Engineer Competency Standards | |
1.1 | Knowledge and Skill Base: Comprehensive, theory based understanding of the underpinning natural and physical sciences and the engineering fundamentals applicable to the engineering discipline. |
1.2 | Knowledge and Skill Base: Conceptual understanding of the mathematics, numerical analysis, statistics, and computer and information sciences which underpin 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. |
2.1 | Engineering Application Ability: Application of established engineering methods to complex engineering problem solving. |
2.2 | Engineering Application Ability: Fluent application of engineering techniques, tools and resources. |
2.3 | Engineering Application Ability: Application of systematic engineering synthesis and design processes. |
3.2 | Professional and Personal Attributes: Effective oral and written communication in professional and lay domains. |
3.4 | Professional and Personal Attributes: Professional use and management of information. |
Refer to the UniSC Glossary of terms for definitions of “pre-requisites, co-requisites and anti-requisites”.
ENG227 or MEC227 or MCH200 and (ENG205 or MEC205 or MEC2401) and (ENG221 or MEC221) and enrolled in Program SC405 or SC411
Not applicable
MEC3302 or ENG303
Not applicable
Standard Grading (GRD)
High Distinction (HD), Distinction (DN), Credit (CR), Pass (PS), Fail (FL). |
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 | Quiz/zes | Individual | 30% | 1000 words |
Refer to Format | Online Test (Quiz) |
All | 2 | Report | Individual | 30% | 1500 words |
Week 10 | Online Submission |
All | 3 | Report | Individual | 40% | 2500 words |
Exam Period | Online Submission |
All - Assessment Task 1:Tutorial Exercises | |
Goal: | The goal of this task is to demonstrate your understanding of discretisation and finite elements and use this knowledge to solve structural problems. |
Product: | Quiz/zes |
Format: | Submit: Week 4, week 8, week 12 This task is to ensure that you understand the theoretical basis for discretisation and finite element methods. Prepare the written solutions to cover problems from concepts covered in Computational Mechanics. |
Criteria: |
|
All - Assessment Task 2:FEA Problems with simple systems | |
Goal: | The goal is to apply engineering theory to evaluate simple systems and propose and justify solutions to structural problems. |
Product: | Report |
Format: | You will be given a set of problems representing a system of static structure. You will analyse the system using the finite element method and a CAE tool. This includes the accurate use of discretisation and an analysis of stress and strain. The analysis will assist you to formulate possible solutions for improvement to the structure |
Criteria: |
|
All - Assessment Task 3:Mini Project | |
Goal: | The goal is to evaluate the performance of an existing design using computer-aided engineering software to evaluate the validity of the model and solution in relation to the original problem specification |
Product: | Report |
Format: | You will provide a written report detailing: Solid computer model application of stress and thermal stress design specification |
Criteria: |
|
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 |
1 |
Revising mechanics of materials concepts |
2 |
Review of Matrix notation |
3 |
Finite element methods |
4 |
Stiffness and displacement |
5 |
Stiffness and displacement |
6 |
Adapting problems for computer solution |
7 |
Truss analysis using stiffness method |
8 |
Beam analysis using stiffness method |
9 |
Frame and Grid equations |
10 |
Plane stress and plane strain stiffness equations |
11 |
FEM of plane stress and plane strain |
12 |
Thermal stress and FEM |
13 |
Review |
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.
Please note that you need to have regular access to the resource(s) listed below. Resources may be required or recommended.
Required? | Author | Year | Title | Edition | Publisher |
Required | Daryl L. Logan | 2016 | A First Course in the Finite Element Method, SI Edition | 6th Ed | Cengage Learning |
N/A
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