SeRenDIP

SeRenDIP predicts protein-protein interaction (PPI) interface positions from protein sequences to enable interpretation of sequence data lacking structural or experimental annotation.


Key Features:

  • Sequence-based Random Forest Methodology: SeRenDIP applies a sequence-based random forest model to predict residue-level PPI interface propensity with improved performance for both homomeric and heteromeric interactions.
  • Sequence Conservation Profiling via PSI-BLAST re-mastering: SeRenDIP re-masters alignments of homologous sequences identified by PSI-BLAST to derive conservation profiles.
  • Increased Computational Speed: The re-mastering approach yields more than a 10-fold increase in computational speed while maintaining comparable prediction accuracy.
  • Residue-level Probability Scores: SeRenDIP outputs per-residue scores indicating the likelihood of participation in an interaction interface.
  • Broad Interaction-Type Applicability: As a sequence-based method, SeRenDIP can be applied across diverse protein interaction types without requiring structural input.

Scientific Applications:

  • Structural Biology: Assisting identification of potential interaction interfaces for subsequent structural studies.
  • Drug Discovery: Aiding target validation and the design of molecules that modulate protein-protein interactions.
  • Systems Biology: Mapping protein-protein interactions to enhance understanding of complex biological networks.

Methodology:

SeRenDIP derives sequence conservation profiles by re-mastering PSI-BLAST alignments of homologous sequences and applies a sequence-based random forest model to predict PPI interface positions.

Topics

Details

License:
GPL-3.0
Maturity:
Mature
Cost:
Free of charge
Tool Type:
web application
Operating Systems:
Linux, Windows, Mac
Programming Languages:
R
Added:
8/9/2019
Last Updated:
6/16/2020

Operations

Publications

Hou Q, De Geest PFG, Griffioen CJ, Abeln S, Heringa J, Feenstra KA. SeRenDIP: SEquential REmasteriNg to DerIve profiles for fast and accurate predictions of PPI interface positions. Bioinformatics. 2019;35(22):4794-4796. doi:10.1093/bioinformatics/btz428. PMID:31116381.

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