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Physics of cellular energy metabolism

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Physics of cellular energy metabolism. / Barnes, S.J.K.; Stefanovska, A.
In: Contemporary Physics, Vol. 62, No. 3, 30.09.2022, p. 125-143.

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Barnes SJK, Stefanovska A. Physics of cellular energy metabolism. Contemporary Physics. 2022 Sept 30;62(3):125-143. Epub 2022 May 26. doi: 10.1080/00107514.2022.2073046

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Barnes, S.J.K. ; Stefanovska, A. / Physics of cellular energy metabolism. In: Contemporary Physics. 2022 ; Vol. 62, No. 3. pp. 125-143.

Bibtex

@article{876573e4462e4af695983a4d510ba8d3,
title = "Physics of cellular energy metabolism",
abstract = "Contributions to the field of cellular energy metabolism have been dominated by biochemistry. Over the past decade, however, several physics-based approaches have been introduced. Oscillations are an intrinsic aspect of all living systems, from fluctuating substrate levels within cells to changes in electrical potential across membranes. Utilising physics-based approaches to analyse these time-dependent signals reveals pockets of predictable stability. By embracing the nonlinear, time-varying and open nature of cellular dynamics, new network-based approaches to modelling cells are emerging, capable of effectively replicating measured time-series data. These new approaches promise to bring greater comprehension of how various illnesses affect the cells, and indeed, to novel treatments or diagnostic methods.  ",
keywords = "metabolism, networks, non-autonomous, nonlinear, Synchronisation",
author = "S.J.K. Barnes and A. Stefanovska",
year = "2022",
month = sep,
day = "30",
doi = "10.1080/00107514.2022.2073046",
language = "English",
volume = "62",
pages = "125--143",
journal = "Contemporary Physics",
issn = "0010-7514",
publisher = "Taylor & Francis",
number = "3",

}

RIS

TY - JOUR

T1 - Physics of cellular energy metabolism

AU - Barnes, S.J.K.

AU - Stefanovska, A.

PY - 2022/9/30

Y1 - 2022/9/30

N2 - Contributions to the field of cellular energy metabolism have been dominated by biochemistry. Over the past decade, however, several physics-based approaches have been introduced. Oscillations are an intrinsic aspect of all living systems, from fluctuating substrate levels within cells to changes in electrical potential across membranes. Utilising physics-based approaches to analyse these time-dependent signals reveals pockets of predictable stability. By embracing the nonlinear, time-varying and open nature of cellular dynamics, new network-based approaches to modelling cells are emerging, capable of effectively replicating measured time-series data. These new approaches promise to bring greater comprehension of how various illnesses affect the cells, and indeed, to novel treatments or diagnostic methods.  

AB - Contributions to the field of cellular energy metabolism have been dominated by biochemistry. Over the past decade, however, several physics-based approaches have been introduced. Oscillations are an intrinsic aspect of all living systems, from fluctuating substrate levels within cells to changes in electrical potential across membranes. Utilising physics-based approaches to analyse these time-dependent signals reveals pockets of predictable stability. By embracing the nonlinear, time-varying and open nature of cellular dynamics, new network-based approaches to modelling cells are emerging, capable of effectively replicating measured time-series data. These new approaches promise to bring greater comprehension of how various illnesses affect the cells, and indeed, to novel treatments or diagnostic methods.  

KW - metabolism

KW - networks

KW - non-autonomous

KW - nonlinear

KW - Synchronisation

U2 - 10.1080/00107514.2022.2073046

DO - 10.1080/00107514.2022.2073046

M3 - Journal article

VL - 62

SP - 125

EP - 143

JO - Contemporary Physics

JF - Contemporary Physics

SN - 0010-7514

IS - 3

ER -