Title :
Stability of Rate-Controlled Zero-Deficiency Networks
Author_Institution :
Inst. for Syst. Theor. & Autom. Control, Stuttgart Univ.
Abstract :
Zero deficiency networks describe a class of biochemical reaction networks which follow the law of mass-action kinetics, and are modeled by a system of differential equations with polynomial vector fields, and constant reaction rate parameters. In this paper, the parameters are regarded as time-variant inputs, and an input-to-state stability property is established for the system. The biochemical networks can thus be analyzed for robustness with respect to perturbations in their nominal parameters, or stability in the case of reaction rates controlled by an independent dynamical process
Keywords :
biochemistry; differential equations; physiological models; poles and zeros; reaction rate constants; stability; biochemical reaction networks; differential equations; input-to-state stability; mass-action kinetics; polynomial vector fields; rate-controlled zero-deficiency networks; reaction rate parameters; robustness; time-variant inputs; Biochemical analysis; Differential equations; Kinetic theory; Polynomials; Robust control; Robust stability; Stability analysis; Steady-state; Temperature; USA Councils;
Conference_Titel :
Decision and Control, 2006 45th IEEE Conference on
Conference_Location :
San Diego, CA
Print_ISBN :
1-4244-0171-2
DOI :
10.1109/CDC.2006.377577