#38 · Systems biology
Noise propagation and feedback topology shape stochastic gene expression persistence
The dominant thread across these preprints is how intrinsic noise in gene regulatory circuits is propagated, persisted, and statistically characterized. One item derives large deviation rate functions for post-transcriptional regulation models by mapping them onto promoter-based models via PPA, extending rare-event analysis beyond the promoter layer. A second applies a linear noise approximation to two-node transcription factor feedback motifs, showing that loop closure produces cyclic noise that sets how long fluctuations persist. The third reexamines Kaneko's evolutionary model of noise-driven robustness, reconstructing its simulation protocol and releasing reusable code; it concerns evolutionary outcomes rather than expression dynamics. What is new is the joint treatment of noise propagation, feedback topology, and rare-event statistics, though all three items are preprints.
Preprints
Post-transcriptional Regulation of Stochastic Gene Expression Conditioned on Large Deviations
Derives large deviation rate functions for post-transcriptional gene regulation models by mapping them onto promoter-based models via PPA.
Feedback-mediated circulation and persistence of stochastic fluctuations in gene regulatory circuits
Theoretical framework using linear noise approximation shows loop closure in two-node TF feedback motifs yields cyclic noise that sets fluctuation…
A Reexamination of Noise-Driven Robustness Evolution in Gene Regulatory Networks
Re-examines Kaneko's evolutionary gene regulatory network model of noise-driven robustness, reconstructing its simulation protocol and releasing reusable…
Topic history
| Date | Rank |
|---|---|
| #38 | |
| #30 | |
| #28 | |
| #30 | |
| #26 | |
| #38 | |
| #39 | |
| #36 | |
| #29 |