A proteome optimal allocation model for elucidating effects of temperature on bacterial growth

Although considerable research has been conducted on how bacteria respond to temperature, there are still few studies that use simple protein allocation models to characterize these responses. To bridge this gap, we utilize a protein allocation framework to delineate quantitative correlations among temperature, growth rate, and the fraction of functional protein sectors. By calibrating the model with experimental temperature-dependent growth curves of Escherichia coli, we predict how proteomic resources are reallocated across various temperatures. This approach enables us to elucidate, from a proteomic perspective, the temperature dependency of constitutive β-galactosidase expression and the variations in E. coli cell size. Our research deepens the understanding of bacterial physiological adaptation to temperature changes.

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Publication Details

Journal
npj Systems Biology and Applications
Published
2026-03-31
DOI
https://doi.org/10.1038/s41540-026-00693-4
Primary Topic
Bacterial Genetics and Biotechnology
Type
article
Field-Weighted Citation Impact
0.00

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article

A proteome optimal allocation model for elucidating effects of temperature on bacterial growth

D. Wang, Hualin Shi, Qing Zhang
npj Systems Biology and Applications
Bacterial Genetics and Biotechnology
article

A proteome optimal allocation model for elucidating effects of temperature on bacterial growth

D. Wang, Hualin Shi, Qing Zhang
article en

Abstract

Although considerable research has been conducted on how bacteria respond to temperature, there are still few studies that use simple protein allocation models to characterize these responses. To bridge this gap, we utilize a protein allocation framework to delineate quantitative correlations among temperature, growth rate, and the fraction of functional protein sectors. By calibrating the model with experimental temperature-dependent growth curves of Escherichia coli, we predict how proteomic resources are reallocated across various temperatures. This approach enables us to elucidate, from a proteomic perspective, the temperature dependency of constitutive β-galactosidase expression and the variations in E. coli cell size. Our research deepens the understanding of bacterial physiological adaptation to temperature changes.

npj Systems Biology and Applications
Chinese Academy of Sciences (CN), Beijing Institute of Genomics (CN), Institute of Theoretical Physics (CN), Shanghai Center For Bioinformation Technology (CN), University of Chinese Academy of Sciences (CN)
National Natural Science Foundation of China
Openalex Percentile: Top 22%
Bacterial Genetics and Biotechnology
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