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φ-evo: A program to evolve phenotypic models of biological networks.
Adrien Henry1, Mathieu Hemery1, Paul François1
1Physics Department, McGill University, Montreal, Québec, Canada.
Plos Computational Biology
|June 12, 2018
Summary
We developed φ-evo, a program to computationally evolve molecular networks based on their functions. This tool aids in predicting network structures and functions, advancing our understanding of biological systems.
Area of Science:
- Computational Biology
- Systems Biology
- Evolutionary Biology
Background:
- Molecular networks govern cellular processes but are complex to understand.
- Reverse engineering network architecture from function aids in prediction and experimental design.
Purpose of the Study:
- To introduce φ-evo, an open-source program for in silico evolution of phenotypic networks.
- To provide a user-friendly platform for studying network evolution and predicting biological functions.
Main Methods:
- Utilizing C, Python 3, and a Jupyter interface for program development and analysis.
- Implementing evolutionary algorithms for biochemical adaptation, immune recognition, and embryonic patterning.
- Incorporating Pareto evolution for multi-objective optimization.
Main Results:
- φ-evo successfully recovered the lac operon's asymmetrical regulation from symmetrical constraints.
- Demonstrated emergence of effective fitness from multi-objective evolution using Hox-like patterning.
- Showcased the program's capability in phenotypic prediction and numerical study of evolution.
Conclusions:
- φ-evo offers an efficient and accessible approach for predicting molecular network phenotypes.
- The program facilitates numerical studies of evolutionary processes and network dynamics.
- Provides a powerful tool for generating new biological predictions and guiding experimental research.
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