https://github.com/almaaslab/bayesiangem
This repository contains code and data needed to replicate the analysis carried out in the manuscript Pettersen J and Almaas A. 2023.
Science Score: 13.0%
This score indicates how likely this project is to be science-related based on various indicators:
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○CITATION.cff file
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○codemeta.json file
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✓DOI references
Found 2 DOI reference(s) in README -
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○Scientific vocabulary similarity
Low similarity (14.6%) to scientific vocabulary
Repository
This repository contains code and data needed to replicate the analysis carried out in the manuscript Pettersen J and Almaas A. 2023.
Basic Info
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Metadata Files
README.md
Using Bayesian and evolutionary statistical learning to integrate temperature dependence in enzyme-constrained GEMs
Description of folders
code/contains all scripts and detailed descrition can be found incode/README.md.data/contains all input data needed, including experimental and estimated thermal parameters.models/contains a list of yeast genome scale models with different settings used in this study.
Dependences
austin 3.3.0
cobra 0.21.0
numpy 1.21.0
pandas 1.3.3
scikit-learn 1.0.0
scipy 1.7.1
reframed 1.2.1
dill 0.3.4
jupyter 1.0.0
matplotlib 3.5.2
Gurobi 9.1.2
pebble 5.0.0
The repository was tested with Python 3.8.12 and Ubuntu 20.04.4. The easiest way to install the dependencies is through the Conda package manager. Using Conda, the environment can be set up by running conda env create --file .condaconfig.yml.
Hardware
Since the Bayesian calculation method and evolutionary algorithm are computational expensive, all scripts except the visualization Jupyter notebook may be too heavy to run of a desktop computer. Some of those scripts have been designed for parallel computation through the use of SLURM. The visualization notebook takes several seconds or minutes on a normal PC.
Reproduce the figures
(1) Clone this repository.
(2) Install all required packages. This step takes at most several minutes.
(3) Download the pre-computed results from Figshare (doi.org/10.6084/m9.figshare.21436668). Download the results.tar.gz file to the current directory and uncompress with
tar -xzvf results.tar.gz
Then the figures in the manuscript can be reproduced by using Jupyter notebook, Note that the result repository does not contain the heavy intermediate files which are not directly required for creating the figures.
One can also recompute those results by following the introductions in code/README.md, but again this might be infeasible on a usual desktop computer.
Owner
- Name: AlmaasLab
- Login: AlmaasLab
- Kind: organization
- Email: eivind.almaas@ntnu.no
- Location: Trondheim, Norway
- Website: http://www.ntnu.edu/almaaslab
- Repositories: 4
- Profile: https://github.com/AlmaasLab
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