Course Identification

Stochastic analysis
20124141

Lecturers and Teaching Assistants

Mr. Eviatar Procaccia, Mr. Ron Rosenthal
N/A

Course Schedule and Location

2012
First Semester
Thursday, 14:00 - 16:00, Ziskind, Rm 261
03/11/2011

Field of Study, Course Type and Credit Points

Mathematics and Computer Science: Enrichment; 0.00 points
Life Sciences (Systems Biology Track): Elective; Computer Sciences & Mathematics; 0.00 points
Mathematics and Computer Science (Systems Biology / Bioinformatics): Elective; Computer Sciences & Mathematics; 0.00 points

Comments

Prerequisite: Basic course in probability theory and some knowledge in measure theory.
Additional hour: for students who lack some , and additional hour will be given on Thursdays 9:30-10:45.
Contact information: Eviatar Procaccia, 6323, eviatarp@gmail.com. Ron Rosenthal, ronrosen71@gmail.com.

Prerequisites

Basic course in probability theory and some knowledge in measure theory.
Additional hour: For students who lack some prerequisite knowledge or feel they need some
strengthening, and additional hour will be given on Thursdays 9:30-10:45.

Restrictions

No

Language of Instruction

English

Registration by

10/11/2011

Attendance and participation

Expected and Recommended

Grade Type

Numerical (out of 100)

Grade Breakdown (in %)

20%
20%
60%

Evaluation Type

Scheduled date 1

N/A
N/A
-
N/A

Estimated Weekly Independent Workload (in hours)

4

Syllabus

The goal of this course is the study of continuous time stochastic processes. Stochastic processes is one of the major fields in probability theory and has applications in all the branches of science.
This course will be very helpful for students who wish to take the course SLE in the second semester given by Gady Kozma and Ofer Zeitouni.
The course will have four main parts:
1. Stochastic processes: Definitions and examples. Martingales and Markov processes.
2. Brownian motion: The most basic continuous time stochastic process is Brownian motion.
We will start by building the process and proving basic properties including conformal invariance in two dimensions.
3. It?o calculus: We will construct stochastic integrals and in particular It?o?s integral. We will prove some of the basic properties of it. We will prove It?o?s formula, It?o?s isometry and the
Martingale representation theorem.
4. Applications: There are many applications for stochastic analysis and we will survey only a few of the following (Students requests are welcome) :
(a) Stochastic differential equations.
(b) Solutions of boundary problems: Dirichlet, Poisson, and Neumann problem.
(c) Homogeneous diffusion processes: Definitions, basic properties and Feynman-Kac formula.
(d) Optimal stopping problems.
(e) Brownian motion problems: Local times, winding number and more.
(f) Mathematical finance: Black-Scholes model and more.

Learning Outcomes

N/A

Reading List

1. Oksendal - Stochastic Differential Equations.
2. Karatzas Shreve - Brownian motion and Stochastic Calculus.
3. Peres and Morters - Brownian motion

Website

N/A