BRIDGE is an end-to-end platform that enables genome-wide dynamic profiling of RNA-protein interactions, connecting sequence-structure motifs with the functional impact of genetic variants across diverse cellular contexts.
Accurately predict RNA-protein interactions across multiple cell lines without retraining, capturing context-specific binding patterns.
Assess how genetic variants alter RNA-protein interactions and prioritize functional noncoding mutations.
Identify enriched sequence-structure motifs underlying RBP binding with attention-guided interpretation.
BRIDGE is a unified computational framework that seamlessly integrates RNA sequence, structure, and genetic variation data to model dynamic RNA-protein interactions across diverse cellular environments.
By bridging the gap between sequence-structure motifs and variant effects, BRIDGE enables researchers to understand how genetic changes influence post-transcriptional regulation and contribute to disease mechanisms.
The platform combines advanced deep learning architectures with intuitive visualization tools, making complex genomic analyses accessible to biologists without requiring programming expertise.
Minimize wet-lab experiments with accurate in silico predictions of RBP binding sites.
Uncover how noncoding variants contribute to diseases like ALS through RBP dysregulation.
Understand context-dependent regulatory mechanisms across different cell lines and conditions.
User-friendly web interface requires no coding skills for advanced genomic analyses.