Title :
Stability analysis of a class of biological network models
Author :
Motee, N. ; Bamieh, B. ; Khammash, M.
Author_Institution :
Control & Dynamical Syst. Dept., California Inst. of Technol., Pasadena, CA, USA
fDate :
June 30 2010-July 2 2010
Abstract :
In this paper, we establish stability conditions for a special class of interconnected systems arisen in several biochemical applications. It is known that most of the biochemical processes can be represented using quasi-polynomial systems. We show that a special class of quasi-polynomial systems can be cast in the Lotka-Volterra canonical form. We study the asymptotic stability properties of a class of quasi-polynomial systems which are relevant to biological network models. First, we show that under some sufficient conditions the solutions of the quasi-polynomial systems (in the positive orthant) converge to the set of equilibrium points. These results are applied to parameterized models of three different biological systems: generalized mass action (GMA) model, an oscillating biochemical network, and a reduced order model with Hill function. We show that one can find the range of parameters for which a given parameterized model is stable.
Keywords :
asymptotic stability; biology; interconnected systems; polynomials; Hill function; Lotka-Volterra canonical form; asymptotic stability properties; biochemical applications; biological network models; equilibrium points; generalized mass action; interconnected systems; oscillating biochemical network; quasi-polynomial systems; reduced order model; stability analysis; Asymptotic stability; Biological control systems; Biological system modeling; Biological systems; Interconnected systems; Kinetic theory; Power system modeling; Robustness; Stability analysis; Sufficient conditions;
Conference_Titel :
American Control Conference (ACC), 2010
Conference_Location :
Baltimore, MD
Print_ISBN :
978-1-4244-7426-4
DOI :
10.1109/ACC.2010.5531239