MATH 304 - MATHEMATICAL MODELING: DETERMINISTIC MODELS


This course is part of a NSF funded interdisciplinary initiative to increase the mathematical training of undergraduates in the biological sciences as well as the knowledge of biomathematics
of mathematics majors, by exposing both to biological applications of mathematics and to modeling.   In addition to strengthening the undergraduate mathematics curriculum for biology majors, the program will establish a year long research experience in mathematical biology for small groups (teams) of undergraduates.   See UBM program announcement.

Students who take this course will be given priority in the selection of students to participate in the undergraduate research projects in mathematical biology during the summer of 2008.

COURSE DESCRIPTION:
                  

The course will cover basic techniques of deterministic modeling.  Models drawn from mathematical biology will be used as "case studies" to motivate and illustrate the mathematical methods as well as to introduce classical areas of mathematical biology such as population dynamics, biological kinetics and pattern formation.   We will start by studying discrete time models described by difference equations and then focus on continuous time models given by ordinary differential equations (ODEs).   The course will emphasize techniques from ODEs, primarily the analysis of qualitative behavior of systems of equations.  Lastly, we will study models with two independent variables described by partial differential equations, in particular, reaction-diffusion equations.  The first half of the course will focus on models from population biology, which provide examples of models that are amenable to analysis with the techniques covered in class.  Later in the semester, models from cell biology and development will be discussed. Faculty whose research is related to topics discussed in class will be invited to give guest lectures.  The class will include a computer laboratory that will teach the basics of programming in Matlab and provide the computational tools necessary for simulating, analyzing and fitting models.

               

TEXTBOOKS:

Required:  Britton, N. F (2003) Essential Mathematical Biology. Springer
Optional:  Higham, D.J. and Higham, N.J.  (2005) MATLAB Guide, Second Edition. SIAM


FINAL EXAM:  Thursday,  December 13, 2007,  9:45- 11:45 am
                        -  open book and notes

Office hours:  Wednesday, 12/12,  12:30 -2:00 pm in 412 Keller


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LAB HANDOUTS:

HOMEWORK:

LAB ASSIGNMENTS:

HOMEWORK  SOLUTIONS:
Midterm Exam Solutions

Project



(Note: most handouts will require the Adobe AcroRead plugin in your browser, available free at www.adobe.com)