Noise robustness and metabolic load determine the principles of central dogma regulation

The processes of gene expression are inherently stochastic, even for essential genes required for growth. How does the cell maximize fitness in light of noise? To answer this question, we build a mathematical model to explore the trade-off between metabolic load and growth robustness. The model provides insights for principles of central dogma regulation: Optimal protein expression levels for many genes are in vast overabundance. Essential genes are transcribed above a lower limit of one message per cell cycle. Gene expression is achieved by load balancing between transcription and translation. We present evidence that each of these regulatory principles is observed. These results reveal that robustness and metabolic load determine the global regulatory principles that govern gene expression processes, and these principles have broad implications for cellular function.

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Publication Details

Journal
Science Advances
Published
2024-08-23
DOI
https://doi.org/10.1126/sciadv.ado3095
Citations
10
Primary Topic
Gene Regulatory Network Analysis
Type
article
Field-Weighted Citation Impact
2.34
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article

Noise robustness and metabolic load determine the principles of central dogma regulation

Dean Huang, Paul A. Wiggins, Teresa W. Lo, H. James Choi
10 citations
Science Advances
Gene Regulatory Network Analysis
2.34
article

Noise robustness and metabolic load determine the principles of central dogma regulation

Dean Huang, Paul A. Wiggins, Teresa W. Lo, H. James Choi
article en
10 citations

Abstract

The processes of gene expression are inherently stochastic, even for essential genes required for growth. How does the cell maximize fitness in light of noise? To answer this question, we build a mathematical model to explore the trade-off between metabolic load and growth robustness. The model provides insights for principles of central dogma regulation: Optimal protein expression levels for many genes are in vast overabundance. Essential genes are transcribed above a lower limit of one message per cell cycle. Gene expression is achieved by load balancing between transcription and translation. We present evidence that each of these regulatory principles is observed. These results reveal that robustness and metabolic load determine the global regulatory principles that govern gene expression processes, and these principles have broad implications for cellular function.

Science AdvancesVol. 10(34)
University of Washington (US)
Partnerships for the goals
Openalex Percentile: Top 11%
Gene Regulatory Network Analysis
2.34
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