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BoolForge: Controlled Generation and Analysis of Boolean Functions and Networks
Claus Kadelka1, Benjamin Coberly1,2
1Department of Mathematics, Iowa State University, Ames, IA, USA.
Bioinformatics (Oxford, England)
|July 31, 2026
Summary
BoolForge is a new Python toolbox that generates and analyzes Boolean networks with specific canalization properties. This tool aids in studying gene regulation and cellular processes by enabling controlled network construction and analysis.
Area of Science:
- Systems Biology
- Computational Biology
- Bioinformatics
Background:
- Boolean networks are crucial for modeling gene regulation and cellular decision-making.
- Biological Boolean networks often display canalization, a property stabilizing dynamics.
- Existing tools lack support for generating Boolean networks with specific canalization.
Purpose of the Study:
- Introduce BoolForge, a Python toolbox for generating and analyzing Boolean functions and networks.
- Focus on enabling the controlled generation of networks with specific canalization properties.
- Facilitate research on structure-dynamics relationships in biological networks.
Main Methods:
- BoolForge allows generation of Boolean functions with specified canalizing depth and structure.
- Users can construct Boolean networks with tunable topological and functional properties.
- The toolbox facilitates analysis of canalization measures, robustness, and attractor structure.
Main Results:
- BoolForge provides systematic generation of Boolean functions and networks with controlled canalization.
- Enables analysis of network properties like robustness and modularity.
- Supports ensemble-based investigations and benchmarking of theoretical predictions.
Conclusions:
- BoolForge enhances the study of Boolean networks by providing controlled generation and analysis capabilities.
- It aids in constructing biologically informed null models for systems biology research.
- The toolbox facilitates deeper understanding of structure-dynamics relationships in biological systems.
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