Ordinary Differential Equations in Cancer Biology
Margaret P. Chapman, Claire J. Tomlin
Abstract
Open-access reader
Margaret P. Chapman, Claire J. Tomlin
Abstract
Open-access reader
Abstract Ordinary differential equations (ODEs) provide a classical framework to model the dynamics of biological systems, given temporal experimental data. Qualitative analysis of the ODE model can lead to further biological insight and deeper understanding compared to traditional experiments alone. Simulation of the model under various perturbations can generate novel hypotheses and motivate the design of new experiments. This short paper will provide an overview of the ODE modeling framework, and present examples of how ODEs can be used to address problems in cancer biology.
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Abstract Ordinary differential equations (ODEs) provide a classical framework to model the dynamics of biological systems, given temporal experimental data. Qualitative analysis of the ODE model can lead to further biological insight and deeper understanding compared to traditional experiments alone. Simulation of the model under various perturbations can generate novel hypotheses and motivate the design of new experiments. This short paper will provide an overview of the ODE modeling framework, and present examples of how ODEs can be used to address problems in cancer biology.
Key concepts: Ode, Ordinary differential equation, Differential equation, Computer science, Applied mathematics, Differential (mechanical device), Systems biology, Mathematics