Numerical simulations of scaling exponents in moving organisms: A comparative study within and across species

This study investigates the metabolic rates of living organisms in motion through numerical simulations, employing a modified equation that accounts for the combined effects of kinetic energy and temperature via the Boltzmann factor. This approach provides a comprehensive analysis of metabolic processes. The metabolic scaling exponent was calculated for organisms both within the same species and across different species. For organisms of the same species, the scaling exponent was consistent with the expected value of 0.75, as predicted by the [Formula: see text] Law of Metabolism. In contrast, for organisms across different species, a scaling exponent of approximately 0.8 was observed. The results suggest that metabolic scaling may differ when comparing across species.

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Publication Details

Journal
International Journal of Modern Physics C
Published
2024-10-25
DOI
https://doi.org/10.1142/s0129183125500044
Primary Topic
Marine and coastal ecosystems
Type
article
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article

Numerical simulations of scaling exponents in moving organisms: A comparative study within and across species

Dorilson Silva Cambui, A.S. de Arruda
International Journal of Modern Physics C
Marine and coastal ecosystems
article

Numerical simulations of scaling exponents in moving organisms: A comparative study within and across species

Dorilson Silva Cambui, A.S. de Arruda
article en

Abstract

This study investigates the metabolic rates of living organisms in motion through numerical simulations, employing a modified equation that accounts for the combined effects of kinetic energy and temperature via the Boltzmann factor. This approach provides a comprehensive analysis of metabolic processes. The metabolic scaling exponent was calculated for organisms both within the same species and across different species. For organisms of the same species, the scaling exponent was consistent with the expected value of 0.75, as predicted by the [Formula: see text] Law of Metabolism. In contrast, for organisms across different species, a scaling exponent of approximately 0.8 was observed. The results suggest that metabolic scaling may differ when comparing across species.

International Journal of Modern Physics CVol. 36(09)
Universidade Federal de Mato Grosso (BR)
Openalex Percentile: Top 81%
Marine and coastal ecosystems
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