Algorithms for discriminating between biochemical reaction network models: Towards systematic experimental design

We develop a methodology for distinguishing between biochemical reaction network models for biological systems modeled by nonlinear ordinary differential equations. We show how to choose the 'best' initial condition direction (the dependent variables, the state) so as to maximize the discr...

Disgrifiad llawn

Manylion Llyfryddiaeth
Prif Awduron: Papachristodoulou, A, El-Samad, H, IEEE
Fformat: Conference item
Cyhoeddwyd: 2007
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author Papachristodoulou, A
El-Samad, H
IEEE
author_facet Papachristodoulou, A
El-Samad, H
IEEE
author_sort Papachristodoulou, A
collection OXFORD
description We develop a methodology for distinguishing between biochemical reaction network models for biological systems modeled by nonlinear ordinary differential equations. We show how to choose the 'best' initial condition direction (the dependent variables, the state) so as to maximize the discrepancy between the outputs of possible network models. This information could then be used to design new experiments with the hope that some of the networks would be invalidated from experimental data. The methodology is applied to discriminate between models of the network underlying chemoattractant-induced movement of Dictyostelium cells. © 2007 IEEE.
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spelling oxford-uuid:c868fdfc-96cc-41e6-ab59-1f8480c1a8412022-03-27T06:51:56ZAlgorithms for discriminating between biochemical reaction network models: Towards systematic experimental designConference itemhttp://purl.org/coar/resource_type/c_5794uuid:c868fdfc-96cc-41e6-ab59-1f8480c1a841Symplectic Elements at Oxford2007Papachristodoulou, AEl-Samad, HIEEEWe develop a methodology for distinguishing between biochemical reaction network models for biological systems modeled by nonlinear ordinary differential equations. We show how to choose the 'best' initial condition direction (the dependent variables, the state) so as to maximize the discrepancy between the outputs of possible network models. This information could then be used to design new experiments with the hope that some of the networks would be invalidated from experimental data. The methodology is applied to discriminate between models of the network underlying chemoattractant-induced movement of Dictyostelium cells. © 2007 IEEE.
spellingShingle Papachristodoulou, A
El-Samad, H
IEEE
Algorithms for discriminating between biochemical reaction network models: Towards systematic experimental design
title Algorithms for discriminating between biochemical reaction network models: Towards systematic experimental design
title_full Algorithms for discriminating between biochemical reaction network models: Towards systematic experimental design
title_fullStr Algorithms for discriminating between biochemical reaction network models: Towards systematic experimental design
title_full_unstemmed Algorithms for discriminating between biochemical reaction network models: Towards systematic experimental design
title_short Algorithms for discriminating between biochemical reaction network models: Towards systematic experimental design
title_sort algorithms for discriminating between biochemical reaction network models towards systematic experimental design
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AT elsamadh algorithmsfordiscriminatingbetweenbiochemicalreactionnetworkmodelstowardssystematicexperimentaldesign
AT ieee algorithmsfordiscriminatingbetweenbiochemicalreactionnetworkmodelstowardssystematicexperimentaldesign