Advanced Stochastic Processes

Undergraduate | 2027

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Mode
Mode
Your studies will be on-campus, and may include some online delivery
On campus
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Area/Catalogue
MATH X418
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Course ID
209391
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Campus
Mawson Lakes, Adelaide City Campus East
Level of study
Level of study
Undergraduate
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Unit value
6
Course owner
Course owner
School of Mathematical Science
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Course level
4
Work Integrated Learning course
Work Integrated Learning course
No
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Inbound study abroad and exchange
Inbound study abroad and exchange
The fee you pay will depend on the number and type of courses you study.
No
University-wide elective icon
University-wide elective course
No
Single course enrollment
Single course enrolment
No

Course overview

The course will introduce learners to some advanced aspects of stochastic processes. Throughout the course, the concepts will be illustrated with applications in modelling and analysing problems of interest. The topics covered will include basic probabilistic concepts recast in a probability-measure theoretic setting, Martingales and the Martingale representation theorem, Brownian motion, Ito Stochastic Integral and Ito’s formula, Stochastic Differential Equations, Markov Processes, Applications to Mathematical Finance, Compound Poisson Processes and Jump-Diffusion Processes.

  • Basic Probability
  • Conditional Probability, Conditional Expectation and Martingales
  • Binomial Asset Pricing model
  • Brownian Motion
  • Ito’s Integral and Ito’s Formula
  • Stochastic Differential Equations and Black-Scholes Model
  • Markov Processes
  • Compound Poisson Processes
  • Jump-Diffusion Processes
  • Optimal Stopping

Course learning outcomes

  • Recast fundamental probability concepts in the probability-measure theoretic framework.
  • Identify Martingales in discrete and continuous time processes and apply their properties in modelling.
  • Describe Brownian motion and its properties, define Ito Integrals, and apply Ito’s formula to solve SDEs.
  • Identify Markov Processes and formulate and solve Kolmogorov’s Backward Equation and the Feynman-Kac Theorem for these processes.
  • Formulate Compound Poisson Processes and extend it to Jump-Diffusion Processes.
  • Apply one or more of CLO1-5 in modelling, particularly financial modelling

Prerequisite(s)

  • Must have completed 144 units towards the HMATH OR completed Grad Dip in Mathematical Sciences AND must have completed STATX303 Stochastic Processes

Corequisite(s)

N/A

Antirequisite(s)

  • Must not have completed MATHX200 Advanced Stochastic Processes