Probabilistic polynomial dynamical systems for reverse engineering of gene regulatory networks
2011

Modeling Gene Regulatory Networks with Probabilistic Polynomial Systems

Sample size: 54 publication Evidence: moderate

Author Information

Author(s): Dimitrova Elena S, Mitra Indranil, Jarrah Abdul Salam

Primary Institution: Clemson University

Hypothesis

Can probabilistic polynomial dynamical systems effectively reverse engineer gene regulatory networks from experimental data?

Conclusion

The proposed method successfully identifies stochastic models that retain key features of original gene regulatory networks.

Supporting Evidence

  • The method was applied to the yeast cell cycle model and successfully identified key features.
  • The generated models compared favorably to results from other algorithms.
  • The algorithm can handle large regulatory networks, making it applicable to many biological systems.

Takeaway

This study shows how to use math to understand how genes work together, even when the data is messy.

Methodology

The study developed an algorithm for reverse engineering gene regulatory networks using probabilistic polynomial dynamical systems.

Limitations

The complexity of the Gröbner fan computation increases with the number of network nodes, making it challenging for large networks.

Digital Object Identifier (DOI)

10.1186/1687-4153-2011-1

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