Journal of Bioinformatics and Computational Biology · 2006 · 19 citations · 15 references
EngineeringBiochemistryBioengineeringBiological Systems ModelingMetabolic EngineeringMetabolismComputational ModelingEnzyme KineticsKinetic ModelingMetabolic Pathway AnalysisMichaelis-menten KineticsReaction Network AnalysisBiochemical Reaction NetworksCompetitive InhibitionEnzyme Kinetic ModelsKinetic Modeling Of Metabolic NetworksKinetic Parameter EstimationMetabolic Network AnalysisMetabolic Network SimulationReaction Types
We have implemented an efficient, user-friendly biochemical reaction simulator called Web-based BEST-KIT (Biochemical Engineering System analyzing Tool-KIT) for analyzing large-scale nonlinear networks such as metabolic pathways. Users can easily design and analyze an arbitrary reaction scheme through the Internet and an efficient graphical user interface without considering the mathematical equations. The reaction scheme can include several reaction types, which are represented by both the mass action law (mass balance) and approximated velocity functions of enzyme kinetics at steady state, such as Michaelis-Menten, Hill cooperative, Competitive inhibition. However, since all modules in Web-based BEST-KIT have been developed in Java applet style, users cannot optionally make use of original mathematical equations in addition to the prepared equations. In the present study, we have developed a new version of BEST-KIT (for Microsoft Windows called WinBEST-KIT) to allow users to define original mathematical equations and to customize these equations very easily as user-defined reaction symbols. The following powerful system-analytical methods are prepared for system analysis: time-course calculation, parameter scanning, estimation of the values of unknown kinetic parameters based on experimentally observed time-course data of reactants, dynamic response of reactants against virtual external perturbations, and real-time simulation (Virtual Dry Lab).
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Numerical Initial Value Problems in Ordinary Differential Equations
James Watt · The Computer Journal · 1972 · 3.6K citations
Oscillatory behavior in enzymatic control processes
Brian Goodwin · Advances in Enzyme Regulation · 1965 · 991 citations