AMATH 572: Introduction to Applied Stochastic Analysis

SLN 10232, MW 3:30-4:50, Loew Hall 115
(Prerequisites: )

Instructor:

Professor Hong Qian
Guggenheim 415E
tel: 543-2584
fax: 685-1440
hqian@u.washington.edu
office hours: M,W 12:00-1PM

Homework Grades 2010 Web Page

Course description Textbook Syllabus Objectives Schedule

Course Description

Introduction to the theory of probability and stochasitc processes based on differential equations with applications to science and engineering. Poisson processes and continuous-time Markov processes, Brownian motions and diffusion. Prerequisite: AMATH/STAT 506, AMATH 402, or equivalent knowledge of probability and ordinary differential equations. Offered: Sp.

Textbook

Gardiner, Crispin Stochastic Methods: A Handbook for the Natural and Social Sciences (4th Ed., Springer Series in Synergetics, 2009) Available at the University Bookstore.

Syllabus

Learning Objectives and Instructor Expectations

Stochastic analysis is a new way of reasoning which has wide application in all fields of science and engineering. Different from the traditional deterministic approach, stochastic analyses try to obtain useful information from seemingly random data, and stochastic models try to develop insights into the nature of randomness. The stochastic mathematics is particularly relevant to statistical physics, (just as calculus to mechanics and linear algebra to quantum mechanics), biology and life science, nanotechnology, signal processing and communications, and many branches of science and engineering, as well as economics and finance. The course will be taught from an application standpoint with examples from many different fields.

Reading Materials

0. A historical account by E.W. Montroll

1. Dynamics based on distributions: A new perspective

2. Review on probability and random variables

3. Markov processes

4. Brownian motion - an alternative introduction

5. Stochastic differential equations

6. Poisson process and master equations

7. Relative entropy and entropy production

8. Applications in Polymer Physics

9. Gaussian Processes and Spectral Analysis

Schedule and Homework

Homework and Exams Homework Due Date Homework Problem Sets Homework Solutions
First day of classes Monday, March 26
Homework#1 due Monday, 4/9 Homework #1
Homework#2 due Monday, April 23 Homework #2
Monday, Apr 16 No class
Wednesday, Apr 18 No class
Homework#3 due Monday, April 30 Homework #3
Homework#4 due Wednesday, May 9 Homework #4
Homework#5 due Monday, May 21 Homework #5
Homework#6 due Wednesday, May 23 Homework #6
Memorial Day Monday, May 28 No class
Term Paper Due Friday, June 1

Grading

Tutorials


<qian@amath.washington.edu> Mon Mar 8 15:19:14 PST 2010