**Class time and location**: M-W-F from 11:00AM to 11:50AM in Cupples I, 215**Tentative office hours**: Mondays 2:00PM to 4:00PM and Thursdays 12:00PM-2:00PM

This is an introduction to stochastic calculus and stochastic differential equations, emphasizing the connections with partial differential equations and applications.

I plan to follow (roughly)

**An Introduction to Stochastic Differential Equations**by Lawrence C. Evans, American Mathematical Society, 2013.

This text presupposes knowledge of measure theory. My plan is to spend the early part of the course introducing (or reviewing, for those already familiar with) the essentials of probability theory based on a measure theoretic/Lebesgue integral foundation. There are many stochastic processes books that cover this material. For example, the first two chapters of the following text provides a helpful outline very much like what I intend to cover:

**Stochastic Modeling**by Nicolas Lanchier. Universitext, Springer, 2017. Library link here.

One problem with Evans text is the absence of excercises. For homework assignments, I may take problems from a variety of texts. The following may be a useful source of interesting problems:

**Stochastic Differential Equations: An Introduction with Applications**by Bernt Øksendal. Universitext, Springer 2014.

Measure and probability: Lebesgue integral for general measure spaces, probability spaces, conditional expectation

The main limit theorems in probability, martingales

Brownian motion: motivation, construction, the Markov property

Stochastic integrals and Itô calculus

Stochastic differential equations

Applications to PDEs, diffusions, the Feynman-Kac formula, stochastic Petri nets

Coursework will be limited to homework assignments. They will be roughly weekly. Final grades will be based entirely on homework grades and class attendance. Details will be given in class.