The ups and downs of biological oscillators: A comparison of time-delayed negative feedback mechanisms
Abstract
Many biochemical oscillators are driven by the periodic rise and fall of protein concentrations or activities. A negative feedback loop underlies such oscillations. The feedback can act on different parts of the biochemical network. Here, we mathematically compare time-delay models where the feedback affects production and degradation. We show a mathematical connection between the linear stability of the two models, and derive how both mechanisms impose different constraints on the production and degradation rates that allow oscillations. We show how oscillations are affected by the inclusion of a distributed delay, of double regulation (acting on production and degradation), and of enzymatic degradation.
02 /Specification & Classification
Click any tag to browse matching papers- Citations
- 8
- FWCI
- 0.71
- Field percentile
- top 37%
- Approach
Reproducibility ledger
Nobody has reported trying to reproduce this paper yet. Did you replicate an experiment or run the code? Your report saves the next lab a week.
Sign in to file a reproducibility report.
Related papers
- Optimizing Oscillators for Specific Tasks Predicts Preferred Biochemical Implementations
Chaitra Agrahar, Michael J. Rust·bioRxiv·Apr 25, 2022
- Theory of genetic oscillations with external noisy regulation
J. Negrete, I. M. Lengyel, … F. Julicher·bioRxiv·Aug 7, 2020
- Stochastic delays suppress noise in a genetic circuit with negative feedback
Madeline E. Smith, Abhyudai Singh·bioRxiv·Sep 30, 2019
- Mixed-Feedback Architectures for Precise Event Timing Through Stochastic Accumulation of Biomolecules
Sayeh Rezaee, César Nieto, Abhyudai Singh·bioRxiv·May 22, 2023
- Noisy delay denoises biochemical oscillators
Yun Min Song, Sean Campbell, … William Ott·Physical Review LettersPeer-reviewed·Feb 15, 2024
- Nonlinear delay differential equations and their application to modeling biological network motifs
David S. Glass, Xiaofan Jin, Ingmar Hans Riedel-Kruse·Nature CommunicationsPeer-reviewed·Mar 19, 2021