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Systems Biology: Biomedical Modeling
Credits: 3    Course Number: G392


Course Director: Eric Sobie Larry Sirovich, Avi Ma'ayan, Ravi Iyengar    
E-Mail: lawrence.sirovich@mssm.edu, Eric.Sobie@mssm.edu, Ravi.Iyengar@mssm.edu, avi.maayan@mssm.edu

Course Description:

This course will be offered as a Core III for the PSB curriculum. The course will run from early April till the end of June and will be offered each year.

Days & Time: M-F
Lectures: 1-2 pm
Computer Lab 2-5 pm Room: IMI 12-34 and 12-52
Start Date: 04/07/09
Ends Date: 06/23/09

This course will take a case-based approach to teach current mathematical modeling techniques to graduate students. The approach will be to use numerical computations to develop models that can be used to analyze and predict behaviors that may be experimentally tested. The course should be useful for students planning to use experimental techniques as their primary approach and use computational modeling as a tool to enhance the experimental approaches. The course should also be valuable as an introductory overview for students planning to conduct their thesis research in modeling biomedical systems. The course will have four sections to cover different modeling approaches that are currently being used in biomedical research. These approaches include graph theory and network analysis, statistical models and principal component analysis, ordinary differential equation & partial differential equation-based models and stochastic & hybrid models.

MatLab will be the major modeling program used for the course. Other programs may be used as needed. For each section there will be introductory lectures followed by one or more cases that the students will model and analyze. The majority of class time will be spent in the computer laboratory with the students developing and analyzing models. There will be one teaching assistant per 3 students who will be available to help the students during the computer lab. Class size will be limited to 6 students.

At the end of each section, the student will be given a model to compute and analyze as an exam. These exams will be in the take home format. Students will be expected to compute the model individually without consulting other students. Final grade will be the average of the four exams. At the end of the course each student should be able to develop and compute simple models on their own and collaborate with experienced modelers to compute more complex models. Students should also be able to gather experimental data in a manner that will be useful in developing and constraining models.

Date Topic Format Reference Instructor
4/7/2009 Representation of biological systems as graphs Lecture/Lab   Ma'ayan
4/9/2009 Signaling and metabolic networks Lecture/Lab   Ma'ayan
4/14/2009 Identifying motifs and inferring regulation from motifs Lecture/Lab   Ma'ayan
4/16/2009 Discussion/problem solving session:  analysis of network models Lecture   Ma'ayan
4/21/2009 Computing with matlab I Lecture   Sobie
4/23/2009 Computing with matlab II Lecture   Sobie
4/28/2009 Analysis of genomic data: Part I Lecture/Lab tba Sirovich
4/30/2009 Analysis of genomic data: Part II Lecture/Lab tba Sirovich
5/5/2009 Introduction to dynamical systems: Part I Lecture   Sirovich
5/7/2009 Introduction to dynamical systems: Part II Lecture   Sirovich
5/12/2009 ODE model of the Cell Cycle Lecture/Lab Tyson, PNAS 1991 Sobie
5/14/2009 Development of Models:  Extracting constants from experimental literature, estimating errors Lecture   Neves
5/19/2009 ODE model of MAP-kinase bistable switch Lecture/Lab Bhalla, Ram, Iyengar, Science 2002 Sobie
5/21/2009 ODE model of action potential Lecture/Lab Hodgkin & Huxley, J. Physiol. 1952 Sobie
5/26/2009 PDE model of calcium spark Lecture/Lab Smith et al., Biophysical Journal, 1998 Sobie
5/28/2009  Modeling in Virtual Cell  Lecture/Lab   Neves
6/2/2009 PDE models of cAMP microdomains Lab Neves et al Cell 2008 Neves
6/4/2009 Discussion/problem solving session:  Analysis of ODE and PDE models     Sobie
6/9/2009 Stochastic phenomena in biology Lecture   Sirovich
6/11/2009 Neurotransmitter release, retinal photon arrivals Lecture/Lab Hecht, Shlaer, Pirenne, JGP 1942; delCastillo & Katz, J. Physiol. 1954 Sirovich
6/16/2009 Gene expression I Lecture/Lab   Hayot
6/18/2009 Gene expression II:  hybrid models Lecture/Lab   Hayot
6/23/2009 Discussion/problem solving session:  Analysis of stochastic models Lecture   Sirovich/Hayot