EVmutation

EVmutation predicts the effects of genetic mutations by modeling residue interdependencies to quantify mutational impacts and capture epistatic interactions across sequences.


Key Features:

  • Unsupervised statistical methodology: Employs an unsupervised statistical approach to infer constraints from sequence data without supervised training.
  • Residue dependency analysis: Explicitly models interdependencies of residues or bases to capture epistatic interactions between sequence positions.
  • Validation against experimental data: Validated by comparison to high-throughput mutagenesis experiments and measurements of human disease mutations, showing improved performance over methods that ignore epistasis.
  • Pre-computed human predictions: Provides pre-computed mutation effect predictions for approximately 7,000 human proteins.
  • Scalability to large datasets: Designed to handle large sequence datasets derived from high-throughput experimental technologies.

Scientific Applications:

  • Quantitative mutation assessment: Quantifies effects of single and combinatorial mutations across genes from any organism.
  • Human protein variant interpretation: Supports interpretation of human disease-associated mutations using pre-computed predictions for ~7,000 proteins.
  • Epistasis and interaction studies: Enables investigation of epistatic interactions and residue interdependencies relevant to functional and structural analyses.
  • Translational research: Informs applied areas such as drug development and personalized medicine by predicting mutation impacts on phenotype.

Methodology:

Uses an unsupervised statistical modeling framework that captures residue dependencies between sequence positions to infer mutational effects and epistasis.

Topics

Details

Maturity:
Mature
Cost:
Free of charge
Tool Type:
command-line tool, web application
Programming Languages:
Python
Added:
6/11/2018
Last Updated:
11/25/2024

Operations

Publications

Hopf TA, Ingraham JB, Poelwijk FJ, Schärfe CPI, Springer M, Sander C, Marks DS. Mutation effects predicted from sequence co-variation. Nature Biotechnology. 2017;35(2):128-135. doi:10.1038/nbt.3769. PMID:28092658. PMCID:PMC5383098.

Documentation

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