Dynamic regulatory on/off minimization for biological systems under internal temporal perturbations Sabrina Kleessen1 * and Zoran Nikoloski1,2 Background: Flux balance analysis (FBA) together with its extension, dynamic FBA, have proven instrumental for analyzing the robustness and dynamics of metabolic networks by employing only the stoichiometry of the included reactions coupled with adequately chosen objective function. In addition, under the assumption of minimization of metabolic adjustment, dynamic FBA has recently been employed to analyze the transition between metabolic states. Results: Here, we propose a suite of novel methods for analyzing the dynamics of (internally perturbed) metabolic networks and for quantifying their robustne...
Mathematical models for the growth, survival, inactivation and product formation of microbial organi...
Integrative analysis between dynamical modeling of metabolic networks and data obtained from high th...
BACKGROUND: Metabolic network models describing the biochemical reaction network and material fluxes...
Understanding cellular adaptation to environmental changes is one of the major challenges in systems...
Understanding cellular adaptation to environmental changes is one of the major challenges in systems...
Efst á síðunni er hægt að nálgast greinina í heild sinni með því að smella á hlekkinn ...
The increasing availability of metabolomics data necessitates novel methods for deeper data analysis...
Motivation The understanding of metabolic interactions has grown rapidly in recent years with metab...
Regulation of metabolic enzymes plays a crucial role in the maintenance of metabolic homeostasis, an...
Systems level modelling and simulations of biological processes are proving to be invaluable in obta...
Flux balance analysis (FBA) has emerged as an effective means to analyse biological networks in a qu...
AbstractWe present two modifications of the flux balance analysis (FBA) metabolic modeling framework...
One of the most relevant topics in the field of systems biology is the study of metabolic networks, ...
Understanding the dynamics of information feedback amongst components of complex biological systems ...
Thesis (Ph.D.)--Boston University PLEASE NOTE: Boston University Libraries did not receive an Autho...
Mathematical models for the growth, survival, inactivation and product formation of microbial organi...
Integrative analysis between dynamical modeling of metabolic networks and data obtained from high th...
BACKGROUND: Metabolic network models describing the biochemical reaction network and material fluxes...
Understanding cellular adaptation to environmental changes is one of the major challenges in systems...
Understanding cellular adaptation to environmental changes is one of the major challenges in systems...
Efst á síðunni er hægt að nálgast greinina í heild sinni með því að smella á hlekkinn ...
The increasing availability of metabolomics data necessitates novel methods for deeper data analysis...
Motivation The understanding of metabolic interactions has grown rapidly in recent years with metab...
Regulation of metabolic enzymes plays a crucial role in the maintenance of metabolic homeostasis, an...
Systems level modelling and simulations of biological processes are proving to be invaluable in obta...
Flux balance analysis (FBA) has emerged as an effective means to analyse biological networks in a qu...
AbstractWe present two modifications of the flux balance analysis (FBA) metabolic modeling framework...
One of the most relevant topics in the field of systems biology is the study of metabolic networks, ...
Understanding the dynamics of information feedback amongst components of complex biological systems ...
Thesis (Ph.D.)--Boston University PLEASE NOTE: Boston University Libraries did not receive an Autho...
Mathematical models for the growth, survival, inactivation and product formation of microbial organi...
Integrative analysis between dynamical modeling of metabolic networks and data obtained from high th...
BACKGROUND: Metabolic network models describing the biochemical reaction network and material fluxes...