Stochastic Modeling and Statistical Inference of Intrinsic Noise in Gene Regulation System via Chemical Master Equation
Chao Du, Wing Hong Wong

TL;DR
This paper reviews the use of chemical master equations to model and infer intrinsic noise in gene regulation, highlighting methods for constructing, approximating, simulating, and analyzing these stochastic models at the single-cell level.
Contribution
It provides a comprehensive overview of CME-based modeling and inference techniques for intrinsic noise in gene regulation, including recent advances and challenges.
Findings
CME effectively captures stochastic gene regulation dynamics.
Various approximation and simulation methods are discussed.
Statistical inference techniques for parameter estimation are summarized.
Abstract
Intrinsic noise, the stochastic cell-to-cell fluctuations in mRNAs and proteins, has been observed and proved to play important roles in cellular systems. Due to the recent development in single-cell-level measurement technology, the studies on intrinsic noise are becoming increasingly popular among scholars. The chemical master equation (CME) has been used to model the evolutions of complex chemical and biological systems since 1940, and are often served as the standard tool for modeling intrinsic noise in gene regulation system. A CME-based model can capture the discrete, stochastic, and dynamical nature of gene regulation system, and may offer casual and physical explanation of the observed data at single-cell level. Nonetheless, the complexity of CME also pose serious challenge for researchers in proposing practical modeling and inference frameworks. In this article, we will review…
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Taxonomy
TopicsGene Regulatory Network Analysis · Single-cell and spatial transcriptomics · Bacterial Genetics and Biotechnology
