Date of Award
Winter 12-10-2021
Level of Access Assigned by Author
Open-Access Thesis
Degree Name
Master of Science (MS)
Department
Biochemistry and Molecular Biology
Advisor
Joshua B. Kelley
Second Committee Member
Andre Khalil
Third Committee Member
Peter Stechlinski
Additional Committee Members
Robert Gundersen
Abstract
Modeling biological systems furthers our understanding of dynamic relationships and helps us make predictions of the unknown properties of the system. The simple interplay between individual species in a dynamic environment over time can be modeled by equation-based modeling or agent- based modeling (ABM). Equation based modeling describes the change in species quantity using ordinary differential equations (ODE) and is dependent on the quantity of other species in the system as well as a predetermined rates of change. Unfortunately, this method of modeling does not model each individual agent in each species over time so individual dynamics are assumed to be uniform unless explicitly modeled. ABM tracks each individual agent in each species over time and interacts with others using probabilities. Because each agent is kept track of over time, ABM require a longer computation time than equation-based models. In this thesis, we model dynamic biological systems using equation- based and ABM to show how models enhance our understanding of dynamic systems. We show that agent-based modeling is the best method for modeling unknown spatial and temporal dynamic biological relationships.
Recommended Citation
Jarvis, Katherine, "Computationally Modeling Dynamic Biological Systems" (2021). Electronic Theses and Dissertations. 3511.
https://digitalcommons.library.umaine.edu/etd/3511