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Published on: September 21, 2017
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Asymptotic Synchronization Analysis in Drive-Response Markovian Jump Boolean Networks
IEEE Transactions on Computational Biology and Bioinformatics
|August 14, 2025
Summary
This study presents novel criteria for achieving asymptotic synchronization in Markovian jump Boolean networks (MJBNs). These methods utilize algebraic state space representations for enhanced network stability analysis.
Area of Science:
- Control Theory
- Network Science
- Stochastic Systems
Background:
- Boolean networks (BNs) are fundamental models in systems biology and discrete dynamical systems.
- Markovian jump Boolean networks (MJBNs) introduce stochasticity and regime switching, complicating analysis.
- Asymptotic synchronization is crucial for coordinated behavior in complex networks.
Purpose of the Study:
- To develop effective criteria for the asymptotic synchronization of drive-response MJBNs.
- To adapt synchronization techniques from deterministic BNs to the more complex MJBN framework.
- To establish a robust method for analyzing set stability in stochastic switching networks.
Main Methods:
- Employing an algebraic state space representation for MJBNs.
- Introducing an augmented variable to transform synchronization into an asymptotic set stability problem.
- Developing criteria based on stochastic processes, invariant subsets, and singular value analysis.
Main Results:
- Two novel criteria for identifying nonnegative solutions and assessing set stability in MJBNs were developed.
- The equivalence between the two proposed criteria was mathematically demonstrated.
- The criteria for MJBNs were shown to be more intricate than those for deterministic BNs.
Conclusions:
- The proposed criteria offer a rigorous framework for analyzing asymptotic synchronization in MJBNs.
- The methods provide a valuable tool for understanding and controlling complex stochastic networks.
- Numerical examples confirm the practical applicability and effectiveness of the developed theoretical concepts.
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