Improved Model Checking Techniques for State Space Analysis of Gene Regulatory Networks
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- TL;DR
- Improving our understanding of cellular behavior requires modeling and analyzing the complex regulatory mechanisms that control gene expression.
- Problem
- Not specified in the abstract.
- Method
- Not specified in the abstract.
- Results
- The chapter demonstrates the approach by applying an improved symbolic model checker to two well-studied gene regulatory models: the cell cycle network in yeast (S. cerevisiae) and the dorsal-ventral boundary formation network in D. melanogaster.
- Contributions
- Not specified in the abstract.
- Limitations
- Not specified in the abstract.
- Takeaways
- The analysis provides insights that help improve biological models and formulate hypotheses that are biologically relevant and experimentally testable.
- Applications
- High-level, qualitative models of gene regulatory networks can be used to analyze and characterize the behavior of complex biological systems.
- Topics
- Model Checking; State Space Analysis; Gene Regulatory Networks
- For industry
- Not specified in the abstract.
- Why it matters
- Not specified in the abstract.
Abstract
A better understanding of the behavior of a cell, as a system, depends on our ability to model and understand the complex regulatory mechanisms that control gene expression. High level, qualitative models of gene regulatory networks can be used to analyze and characterize the behavior of complex systems, and to provide important insights on the behavior of these systems. In this chapter, we describe a number of additional functionalities that, when supported by a symbolic model checker, make it possible to answer important questions about the nature of the state spaces of gene regulatory networks, such as the nature and size of attractors, and the characteristics of the basins of attraction. We illustrate the type of analysis that can be performed by applying an improved model checker to two well studied gene regulatory models, the network that controls the cell cycle in the yeast S. cerevisiae, and the network that regulates formation of the dorsal-ventral boundary in D. melanogaster. The results show that the insights provided by the analysis can be used to understand and improve the models, and to formulate hypotheses that are biologically relevant and that can be confirmed experimentally.Request access from your librarian to read this chapter's full text.