Nonlinear dynamics of the distributed biochemical systems functioning in the dissipative structure formation mode

Sidelnikov, D. I.; Gritsenko, O. V.; Simonova, A. P.; Rambidi, N. G.; Полежаев, А. А.; Chernavskii, D.S.

doi:10.1007/bf00203137

Cited by 5 publications

(1 citation statement)

References 12 publications

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“…The problem of the emergence of self-organized structures has been studied extensively over the past sixty years and in the dissipative structures theory other important elements must be considered such as the amplification of fluctuations, non-linear interactions, bifurcations, phase transitions, complexity theory, etc. [ 175 – 178 ].…”

Section: Dissipative Structures: Thermodynamic Aspects Of Self-orgmentioning

confidence: 99%

Quantitative Analysis of Cellular Metabolic Dissipative, Self-Organized Structures

Fuente

2010

IJMS

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One of the most important goals of the postgenomic era is understanding the metabolic dynamic processes and the functional structures generated by them. Extensive studies during the last three decades have shown that the dissipative self-organization of the functional enzymatic associations, the catalytic reactions produced during the metabolite channeling, the microcompartmentalization of these metabolic processes and the emergence of dissipative networks are the fundamental elements of the dynamical organization of cell metabolism. Here we present an overview of how mathematical models can be used to address the properties of dissipative metabolic structures at different organizational levels, both for individual enzymatic associations and for enzymatic networks. Recent analyses performed with dissipative metabolic networks have shown that unicellular organisms display a singular global enzymatic structure common to all living cellular organisms, which seems to be an intrinsic property of the functional metabolism as a whole. Mathematical models firmly based on experiments and their corresponding computational approaches are needed to fully grasp the molecular mechanisms of metabolic dynamical processes. They are necessary to enable the quantitative and qualitative analysis of the cellular catalytic reactions and also to help comprehend the conditions under which the structural dynamical phenomena and biological rhythms arise. Understanding the molecular mechanisms responsible for the metabolic dissipative structures is crucial for unraveling the dynamics of cellular life.

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Section: Dissipative Structures: Thermodynamic Aspects Of Self-orgmentioning

confidence: 99%

Quantitative Analysis of Cellular Metabolic Dissipative, Self-Organized Structures

Fuente

2010

IJMS

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Thermodynamic Theory for Simple and Complex Dissipative Structures

Rastogi

Mahulikar

2021

Found Phys

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Biomolecular computing: from the brain-machine disanalogy to the brain-machine analogy

Rambidi¹

1994

Biosystems

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Nonlinear dynamics of the distributed biochemical systems functioning in the dissipative structure formation mode

Cited by 5 publications

References 12 publications

Quantitative Analysis of Cellular Metabolic Dissipative, Self-Organized Structures

Quantitative Analysis of Cellular Metabolic Dissipative, Self-Organized Structures

Thermodynamic Theory for Simple and Complex Dissipative Structures

Biomolecular computing: from the brain-machine disanalogy to the brain-machine analogy

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