Schedule Short Courses on the Mathematics of Biological Complexity Course #1: Introduction to the Mathematics of Biological Complexity June 11-14, 2000 Course Director: Louis J. Gross, University of Tennessee Lecturers: Stephen P. Ellner, North Carolina State University Denise Kirschner, University of Michigan Sunday June 11 8:30 Registration and Breakfast 9:30 L. Gross - Introduction and objectives 9:45 L. Gross - An overview of biological modeling: purposes, basic methods 10:30 S. Ellner - An introduction to probability for stochastic modeling in biology 11:15 Break 11:30 D. Kirschner - Introduction to ordinary differential equation models in biology I 12:30 Lunch 1:30 L. Gross - An introduction to discrete dynamical systems: difference equation models I 2:15 S. Ellner - Branching processes 3:00 Break 3:15 L. Gross - Introduction to computer tools - MATLAB and Maple 4:00 Concurrent lab sessions (half of group in each session): S. Ellner - The pure death process in discrete time D. Kirschner - Ordinary differential equation models I 4:45 Concurrent lab sessions (half of group in each session): S. Ellner - The pure death process in discrete time D. Kirschner - Ordinary differential equation models I 6:00 Dinner Monday June 12 8:00 Breakfast 8:30 L. Gross - Linear algebra and matrix models I 9:15 S. Ellner - Simple Random Walk & Gambler's Ruin 10:00 Break 10:15 D. Kirschner - Introduction to ordinary differential equation models in biology II 11:00 Concurrent lab sessions (half of group in each session): L. Gross - Linear algebra and structured population models S. Ellner - Markov chains in discrete and continuous time 11:45 Concurrent lab sessions (half of group in each session): L. Gross - Linear algebra and structured population models S. Ellner - Markov chains in discrete and continuous time 12:30 Lunch 1:30 D. Kirschner - Epidemiological models 2:15 S. Ellner - Markov chains in discrete time with examples from population genetics 3:00 Break 3:15 L. Gross - An introduction to discrete dynamical systems: difference equation models II 4:00 Concurrent lab sessions (half of group in each session): S. Ellner - Markov chains in discrete and continuous time D. Kirschner - Ordinary differential equation models II 4:45 Concurrent lab sessions (half of group in each session): S. Ellner - Markov chains in discrete and continuous time D. Kirschner - Ordinary differential equation models II 6:00 Dinner 7:00 Walk (or drive) to Laurel Theatre 7:30 Laurel Theatre (Basic steps of contra-dancing) 8:00 Contra-dance with Music by the Atomic City Rhythm Rascals and calling by Charley Harvey of Berea, KY Tuesday June 13 8:00 Breakfast 8:30 D. Kirschner - Partial differential equation models: transport and diffusion 9:15 S. Ellner - Birth and death processes 10:00 Break 10:15 L. Gross - Linear algebra and matrix models II 11:00 D. Kirschner - Partial differential equation models: Travelling waves 11:45 S. Ellner - General Markov chains in continuous time 12:30 Lunch 1:30 L. Gross - Models for spatial processes: patches and grids 2:15 D. Kirschner - Basic immmunological models 3:00 Break 3:15 S. Ellner - Diffusion processes 4:00 Concurrent lab sessions (half of group in each session): D. Kirschner - Epidemiology models L. Gross - Discrete spatial models 4:45 Concurrent lab sessions (half of group in each session): D. Kirschner - Epidemiology models L. Gross - Discrete spatial models 6:00 Dinner Wednesday June 14 8:00 Breakfast 8:30 D. Kirschner - Basic models of HIV 9:30 S. Ellner - Stochastic matrix models in conservation biology 10:30 Break 10:45 L. Gross - Multimodeling: linking models across scales 11:45 Wrap-up session 12:00 Lunch