SPOT-Seq-RNA

SPOT-Seq-RNA predicts protein-RNA complex structures and RNA-binding functions by combining template-based structure prediction (SPARKS X) with binding affinity assessment (DRNA) to identify RNA-binding proteins (RBPs) and RNA-binding residues.


Key Features:

  • Template-Based Prediction: Employs template-based modeling to predict RBPs, RNA-binding residues, and protein-RNA complex structures using existing structural templates.
  • SPARKS X: Uses template-based structure-prediction algorithms to identify potential RBPs and model protein structures.
  • DRNA: Performs binding-affinity prediction to assess interaction strength between proteins and RNA for accurate complex modeling.
  • Performance Metrics: Demonstrates 46% sensitivity and 84% precision on an independent test set of 215 RBPs and 5,766 non-RBPs.
  • Genome-Scale Efficiency: Designed for genome-scale predictions, enabling large-scale analyses such as whole-genome RBP identification.
  • Discovery of Novel RBPs: Has identified hundreds of novel RBPs beyond homology-based detection.

Scientific Applications:

  • Genome-Wide Studies: Facilitates large-scale identification of RBPs across entire genomes to study gene regulation mechanisms.
  • Functional Annotation: Enhances protein functional annotation by predicting RNA-binding capability and potential regulatory roles.
  • Structural Biology: Supports modeling of protein-RNA complexes to analyze molecular interactions and binding interfaces.

Methodology:

Combines template-based structure prediction using SPARKS X with binding-affinity prediction using DRNA to predict RBPs, RNA-binding residues, and protein-RNA complex structures.

Topics

Details

Tool Type:
web application
Operating Systems:
Linux, Windows, Mac
Added:
5/10/2018
Last Updated:
12/10/2018

Operations

Publications

Yang Y, Zhao H, Wang J, Zhou Y. SPOT-Seq-RNA: Predicting Protein–RNA Complex Structure and RNA-Binding Function by Fold Recognition and Binding Affinity Prediction. Methods in Molecular Biology. 2014. doi:10.1007/978-1-4939-0366-5_9. PMID:24573478. PMCID:PMC3937850.