We briefly review various chemical model reduction strategies with application in reacting flow computations. We focus on systematic methods that enable automated model reduction. We highlight the specific advantages of computational singular perturbation (CSP) analysis. We outline a novel implementation of CSP, with adaptive tabulation of the basis vectors, that enables fast identification of the reduced chemical model at any point in the chemical phase space, and efficient integration of the chemical system. We describe this implementation in the context of a particular model problem that exhibits stiffness typical of chemical kinetic systems. © 2005 IOP Publishing Ltd
Computational modelling is an indispensable tool to study the dynamics of biological systems. A stoc...
Computer simulations using accurate chemical kinetic models are increasingly being used to support t...
An algorithm is developed to generate simplified (skeletal) kinetic mechanisms from a given detailed...
We present a new tabulation strategy for the numerical integration of chemical reacting flow process...
The model reduction methodology of computational singular perturba-tion (CSP) is enhanced for chemic...
We discuss a recently developed chemical model reduction strategy based on the use of Computational ...
We present a tabulation strategy for the numerical integration of chemical reacting flow processes o...
This paper presents a novel tabulation strategy for the adaptive numerical integration of chemical k...
We demonstrate the feasibility of a new strategy for the construction of an adaptive chemistry model...
We discuss recent developments in the application of high-order adaptive mesh refinement constructio...
An algorithm was developed to generate simplified (skeletal) mechanisms, from a given detailed one, ...
Simulation of detailed multicomponent reactive flow processes becomes quite expensive and, despite t...
The paper has two goals: (1) It presents basic ideas, notions, and methods for reduction of reaction...
Computational Singular Perturbation (CSP) allows the identification and removal of fast time scales ...
Computational Singular Perturbation (CSP) allows the identification and removal of fast time scales ...
Computational modelling is an indispensable tool to study the dynamics of biological systems. A stoc...
Computer simulations using accurate chemical kinetic models are increasingly being used to support t...
An algorithm is developed to generate simplified (skeletal) kinetic mechanisms from a given detailed...
We present a new tabulation strategy for the numerical integration of chemical reacting flow process...
The model reduction methodology of computational singular perturba-tion (CSP) is enhanced for chemic...
We discuss a recently developed chemical model reduction strategy based on the use of Computational ...
We present a tabulation strategy for the numerical integration of chemical reacting flow processes o...
This paper presents a novel tabulation strategy for the adaptive numerical integration of chemical k...
We demonstrate the feasibility of a new strategy for the construction of an adaptive chemistry model...
We discuss recent developments in the application of high-order adaptive mesh refinement constructio...
An algorithm was developed to generate simplified (skeletal) mechanisms, from a given detailed one, ...
Simulation of detailed multicomponent reactive flow processes becomes quite expensive and, despite t...
The paper has two goals: (1) It presents basic ideas, notions, and methods for reduction of reaction...
Computational Singular Perturbation (CSP) allows the identification and removal of fast time scales ...
Computational Singular Perturbation (CSP) allows the identification and removal of fast time scales ...
Computational modelling is an indispensable tool to study the dynamics of biological systems. A stoc...
Computer simulations using accurate chemical kinetic models are increasingly being used to support t...
An algorithm is developed to generate simplified (skeletal) kinetic mechanisms from a given detailed...