Enhancer-FRL

Enhancer-FRL implements a two-layer prediction framework to distinguish enhancers from non-enhancers and predict enhancer activity strength (strong or weak) for studies of gene regulation.


Key Features:

  • Two-Layer Prediction Model: Distinguishes enhancers versus non-enhancers in the first layer and classifies enhancer activity strength (strong or weak) in the second layer.
  • Feature Representation Learning Scheme: Encodes ten distinct features and integrates them with five machine learning algorithms to produce a 50-dimensional (50D) probabilistic vector.
  • Multiview Probabilistic Integration: Integrates multiview probabilistic features to construct the final prediction model, improving robustness relative to single-feature representations.
  • Performance Improvement: Demonstrates significant performance gains over existing state-of-the-art tools as evidenced by assessments on independent test datasets.

Scientific Applications:

  • Enhancer identification and activity prediction: Enables detection of genomic enhancers and prediction of their activity strength for downstream regulatory analyses.
  • Gene regulation studies: Supports investigation of regulatory elements and their roles in controlling gene expression.
  • Large-scale genomic data analysis: Facilitates precise enhancer characterization in genome-wide datasets.

Methodology:

Ten distinct features are encoded; five machine learning algorithms generate a 50D probabilistic vector from those features; multiview probabilistic features are integrated to form the final prediction model; a two-layer predictor separates enhancers from non-enhancers and classifies enhancer strength.

Topics

Details

License:
Not licensed
Cost:
Free of charge
Tool Type:
command-line tool, web application
Operating Systems:
Mac, Linux, Windows
Programming Languages:
Python
Added:
11/3/2022
Last Updated:
11/3/2022

Operations

Publications

Wang C, Zou Q, Ju Y, Shi H. Enhancer-FRL: Improved and Robust Identification of Enhancers and Their Activities Using Feature Representation Learning. IEEE/ACM Transactions on Computational Biology and Bioinformatics. 2023;20(2):967-975. doi:10.1109/tcbb.2022.3204365. PMID:36063523.

PMID: 36063523
Funding: - National Natural Science Foundation of China: 61922020, 62002051, 62072385 - Special Science Foundation of Quzhou: 2021D004

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