# Context:
Evolutionary trajectory that recovers a crippled phenotype towards a fully functional phenotype, by deleting (in a reproducible manner) other components of the network.
# Research questions:
Would be possible to predict this evolutionary trajectory, from existing knowledge?
- Approach:
- Using machine learning algorithms on existing publicly available datasets on budding yeast (fitness datasets, genetic /physical interactions, GO-terms) to decipher hidden patterns and relationships in the data that may explain this evolutionary trajectory, combined with biophysical modelling
- State of the art: There is already some work on models to predict evolution based on biophysical knowledge, look here
- Approach:
What happens to the yeast interaction network in every step of the evolutionary trajectory ?
- Approach :
- Measure the essential genes and non essential genes beneficial for fitness for every step of the trajectory.
- Translate the set of essential genes to the potential corresponding gene interaction network (computational approach)
- Approach :
What are the molecular mechanisms that lead to the adaptive changes for this trajectory?
- Approach :
- Computational approaches (network analysis ) feed with experimental data about essentiality/GO terms to decipher potential molecular mechanisms behind this trajectory , that can be used for further testing.
- Approach :
What can we learn from this trajectory that can we extend to others examples? (potential applications)