Math 5726, Spring 2008; CRN# 16270

Topics in Mathematical Finance, Part 2

MWF 1:25 - 2:15, McBryde #204

Professor M. Day

E-mail: day@math.vt.edu


Math 5725 provides an introduction to some of the basic ideas from stochastic processes that are used in constructing mathematical models of financial markets, and the no-arbitrage principle upon which many of the derivative pricing formulas are based.  In Math 5726 (Spring 2008) we will change the focus from stochastic models to basic methods for numerical solutions of partial differential equations.  It is possible to take 5726 without having taken 5725, provided you are willing to just accept the significance of the PDEs we will consider.

In brief, a stochastic model leads to a partial differential equation (PDE) which describes the market price of an option or derivative.  In some cases (like the Black-Scholes formula for European puts and calls) a formula can be produced which gives the solution to this PDE and therefore the predicted market price.  But usually this is not possible, and one must resort to some sort of numerical method to compute values of the solution of the PDE.   Our goal is to provide a basic understanding of these methods as they are used for financial problems, including the pricing of American and path-dependent, such as "Asian" options.  Students will be expected to implement the methods we discuss as homework assignments using Matlab.  We will discuss details of using Matlab as needed.  There will be no exams.  Grades will be assigned based on homework scores.

Like 5725, this will not be a mathematically rigorous treatment of numerical methods (for that you should take Math 5474 and 5484).  Rather it is more of a practical introduction that is intended to be accessible to graduate students from other departments as well as interested mathematics students.

The lectures will be essentially self-contained, with a short set of printed notes provided.  There will not be a required textbook.  However if you want to look at something to see what the course will be about, I would suggest The Mathematics of Financial Derivatives: A Student Introduction, by P. Wilmott, S. Howison and J. Dewynne, (Cambridge Univ. Press, 1995). You can find a copy in the library.  The book discusses a fair amount of what we will cover. 

Please feel free to come by or send me a message if you have questions about the course.