DisoLipPred
DisoLipPred predicts disordered lipid-binding residues (DLBRs) from protein sequences to identify intrinsically disordered regions that mediate protein–lipid interactions.
Key Features:
- Deep Bidirectional Recurrent Network: Employs a deep bidirectional recurrent neural network to capture sequential dependencies in protein sequences.
- Transfer Learning: Applies transfer learning using pre-trained models on related tasks to improve predictive accuracy with limited DLBR-specific training data.
- Bypass Module: Includes a bypass module that excludes residues likely to be structured to focus predictions on disordered regions.
- Expanded Inputs: Integrates expanded input features including physicochemical properties relevant to protein–lipid interactions.
- Performance and Complementarity: Validated on independent datasets and the yeast proteome, showing high accuracy, outperforming indirect DLBR-identifying tools, and complementing transmembrane-region predictors.
Scientific Applications:
- IDP annotation: Annotating disordered lipid-binding residues in intrinsically disordered proteins (IDPs) to study their roles in cellular functions.
- Mechanistic studies: Aiding elucidation of protein–lipid interaction mechanisms implicated in biological processes and pathologies.
- Complementary structural analysis: Complementing transmembrane-region predictors to provide a more holistic view of protein structure–function relationships.
Methodology:
Uses a deep bidirectional recurrent neural network with transfer learning, a bypass module to exclude structured residues, and expanded physicochemical input features.
Topics
Details
- Tool Type:
- web application
- Operating Systems:
- Mac, Linux, Windows
- Added:
- 2/23/2022
- Last Updated:
- 2/23/2022
Operations
Publications
Katuwawala A, Zhao B, Kurgan L. DisoLipPred: accurate prediction of disordered lipid-binding residues in protein sequences with deep recurrent networks and transfer learning. Bioinformatics. 2021;38(1):115-124. doi:10.1093/bioinformatics/btab640. PMID:34487138.