Syllabus/achievement requirements

The following is a tentative syllabus: 

  1. Review of Probability and Stochastic Processes.
  2. Infinitely Divisible Distributions.
  3. Lévy Processes.
  4. Martingales and Lévy Processes.
  5. Poisson Random Measures.
  6. The Lévy-It? Decomposition.
  7. Stochastic Integration with respect to Lévy Processes.
  8. Exponential Martingales and Change of Measure.
  9. The Black-Scholes Model.
  10. Exponential Lévy Models.
  11. Pricing in Exponential Lévy Models.
  12. Hedging in Exponential Lévy Models.

If time permits we will also cover the following topics:

13. Simulation of Lévy Processes.

14. Risk measures.

 

In this course, we will not follow a particular book. I will try to upload the notes of the topic covered each week one week in advance. Therefore, there is no need to buy a book to follow the lectures.

However, most of the material I will present (but not all) can be found in the following two references:

[A] David Applebaum. Lévy Processes and Stochastic Calculus. Second Edition. (2009) Cambridge University Press.

[CT] Rama Cont & Peter Tankov. Financial Modelling with Jump Processes. (2004) Chapman & Hall/CRC

The book [A] focuses its attention to present the more mathematical aspects of the course. In particular, the properties of Lévy processes and stochastic integration with respect to martingale valued measures.

The book [CT] also covers most of the mathematical aspects of the course but, in addition, it presents many financial applications.

If you want to buy a book and you are more interested in the financial applications of Lévy processes I recommend you to buy [CT].

There is a third reference that is very new and can also be relevant for the course:

[EK] Ernst Eberlein & Jan Kallsen. Mathematical Finance. (2019) Springer Verlag.

You can download this last reference from SpringerLink. 

Published Jan. 8, 2020 10:09 PM - Last modified Jan. 8, 2020 10:20 PM