frDSM

frDSM predicts deleterious synonymous mutations in the human genome by integrating feature representation learning and ensemble classifiers to distinguish deleterious from benign variants.


Key Features:

  • Logistic regression core: Uses logistic regression as the primary predictive model to classify deleterious versus benign synonymous mutations.
  • Feature representation learning: Integrates functional scores derived from existing computational methods, evolutionary conservation metrics, splicing-related features, and sequence-based descriptors.
  • Ensemble of XGBoost classifiers: Processes input descriptors with 76 XGBoost classifiers that generate predictive probability values which are concatenated into a 76-dimensional feature vector.
  • Feature selection: Applies feature selection to remove redundant and irrelevant features, retaining 31 optimal features for final prediction.

Scientific Applications:

  • Disease mechanism elucidation: Identifies deleterious synonymous mutations to support investigation of functional mechanisms underlying genetic diseases.
  • Genomic research: Provides predictive annotations of synonymous variants to inform studies of gene function and regulation in the human genome.

Methodology:

Integrates functional scores from existing computational methods, evolutionary conservation metrics, splicing-related features, and sequence-based descriptors via a feature representation learning approach; processes descriptors with 76 XGBoost classifiers to produce predictive probability values concatenated into a 76-dimensional vector; employs logistic regression as the core classifier; and performs feature selection to retain 31 optimal features.

Topics

Details

Cost:
Free of charge
Tool Type:
web application
Operating Systems:
Mac, Linux, Windows
Added:
7/29/2022
Last Updated:
11/24/2024

Operations

Publications

Wang H, Sun J, Liu M, Zheng C, Xia J, Cheng N. frDSM: An Ensemble Predictor With Effective Feature Representation for Deleterious Synonymous Mutation in Human Genome. IEEE/ACM Transactions on Computational Biology and Bioinformatics. 2023;20(1):371-377. doi:10.1109/tcbb.2022.3167468. PMID:35420988.

PMID: 35420988
Funding: - National Natural Science Foundation of China: 11835014, 62072003, U19A2064 - National Key Research and Development Program of China: 2020YFA0908700

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