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CRIS: A Centralized Resource for High-Quality RNA Structure and Interaction Data in the AI Era
Biorxiv : the Preprint Server for Biology
|July 14, 2025
Summary
The Crosslinking-based RNA Interactomes and Structurome (CRIS) database unifies RNA structure and interaction data. It enhances reproducibility and accessibility for AI-driven RNA research and drug development.
Area of Science:
- Bioinformatics
- Computational Biology
- Molecular Biology
Background:
- RNA structure and function are crucial for biological processes.
- Existing RNA databases face challenges in data consistency, reproducibility, and accessibility.
- Advancements in experimental and computational methods highlight the need for standardized data integration.
Purpose of the Study:
- To introduce the Crosslinking-based RNA Interactomes and Structurome (CRIS) database as a unified platform.
- To address limitations in data reproducibility, quality control, and accessibility in RNA databases.
- To facilitate AI-driven applications and comparative analyses in RNA biology.
Main Methods:
- Harmonization of crosslinking-based sequencing data (e.g., PARIS, SHARC).
- Implementation of standardized workflows and built-in quality metrics.
- Development of user-friendly tools and visualization guides for data accessibility.
Main Results:
- CRIS provides a unified, rigorously curated repository of RNA structure and interaction data.
- The platform ensures reproducibility and transparency through structured workflows and quality metrics.
- CRIS enables robust comparative analyses and machine learning applications for RNA research.
Conclusions:
- CRIS establishes a new standard for RNA data management and accessibility.
- The database accelerates RNA biology research and drug development by bridging complex data with accessible tools.
- CRIS is designed to support the growing needs of AI-driven research in RNA science.
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