Swinburne University of Technology - Melbourne Australia
Future Students - Courses
Duration
Contact Hours
Campus
Prerequisite
Corequisite
1 Semester
60 hours
Hawthorn
HMS211 or HMS214 or HMS215
Nil
Credit Points: 12.5 Credit Points
An elective unit of study in the following programs: Bachelor of Engineering (Electrical and Electronic Engineering) Bachelor of Engineering (Electrical and Electronic Engineering)/ Bachelor of Commerce Bachelor of Engineering (Electronics and Computer Systems) Bachelor of Engineering (Electronics and Computer Systems)/ Bachelor of Commerce Bachelor of Engineering (Telecommunication and Network Engineering) Bachelor of Engineering (Telecommunication and Network Engineering)/ Bachelor of Science (Computer Science and Software Engineering) Bachelor of Engineering (Robotics and Mechatronics) Bachelor of Engineering (Robotics and Mechatronics)/ Bachelor of Commerce Bachelor of Engineering (Robotics and Mechatronics)/ Bachelor of Science (Computer Science and Software Engineering) Bachelor of Engineering (Mechanical Engineering) Bachelor of Engineering (Mechanical Engineering)/ Bachelor of Commerce Bachelor of Engineering (Civil Engineering) Bachelor of Engineering (Civil Engineering)/ Bachelor of Commerce Bachelor of Engineering (Biomedical Engineering) Bachelor of Engineering (Electronics and Computer Systems)/ Bachelor of Science (Computer Science and Software Engineering) Bachelor of Engineering (Electronics and Computer Systems)/ Bachelor of Science (Biomedical Sciences) Bachelor of Science (Biomedical Sciences)/Bachelor of Engineering (Electronics and Computer Systems)
The unit will: Convey the fundamental probability concepts necessary for an understanding of stochastic process.Introduce stochastic processes and some important related concepts.Illustrate the usefulness of stochastic modelling by considering various different types of stochastic processes and how they can be applied in a range of scientific, engineering and other contexts.Examine how probablility distributons can be used to model system reliability and lifetimes. Upon completion of this unit of study students will be able to: Understand the concepts of conditional and joint probabliity distribution, conditional expectation, covariance and correlation, use and interpret them.Understand the definitions of stochastic process and some related concepts and apply them in particular cases.Recognise situations where particular types of stochastic processes airse, and apply a sound working knowledge of the theory of each process to solves practical problems.Use simple survival analysis and life testing methods to model failure rates and investigation failure time distributions.
Lectures (36 hours) Tutorials (12 hours) Computer Laboratories (12 hours)
Assignments (worth 0 - 10 %), Test (worth 30-40%), Examination (worth 60-70%)
Students will be provided with feedback on their progress in attaining the following generic skills: Ability to apply knowledge of basic science and engineering fundamentals.Ability to communicate effectively, not only with engineers but also with the community at large.Ability to undertake problem identification, formulation and solution.
Conditional and joint distributions: Conditional probability distributions,Conditional expectation,Joint probability distributions,Covariance and correlation Stochastic Processes: Definition and examples,Stationarity,Ergodicity Some Types of Stochastic Processes and Applications: Markov processes (discrete and continous parameter),MartingalesPoisson processes,Queueing systems,Random walk,Application from engineering,Science and other fields. Survival Analysis and Life Testing: SeriesParallel and complex systemsTime to failureHazard rate,Commonly arising distributions,Life testing, examples.
Richards, D., HMS413 Stochastic Modelling and Survival Analysis, Swinburne University of Technology, 2011.
Borovkov, K., Elements of Stochastic Modelling, World Scientific, 2003. Hayter, A.J., Probability and Statistic for Engineers and Scientists, 2nd edition, Duxbury, 2002. Helms, L.L., Introduction to Probability Theory With Contemporary Applications, Freeman, 1997. Levine, D.M., Ramsey, P.P. and Smidt, R.K., Applied Statistic for Engineers and Scientists, Prectice-Hall, 2001. Papoulis, A. and Pillai, S.U., Probability, Randam Variables adn Stochastic Processes, 4th edition, McGraw-Hill, 2001.