Integrative profiling of condensation-prone RNAs during early development
Tajda Klobučar, Jona Novljan, Ira A. Iosub, Boštjan Kokot, Iztok Urbančič, D. Marc Jones, Anob M. Chakrabarti, Nicholas M. Luscombe, Jernej Ule, Miha Modic

TL;DR
The paper identifies a new class of RNAs called smOOPs that are prone to forming condensates during early development and are closely linked to RNA-binding proteins and disordered proteins.
Contribution
The study introduces smOOPs, a novel class of condensation-prone RNAs, and reveals their unique sequence and protein features in phase separation.
Findings
smOOPs form denser RNA subnetworks and are heavily bound by RNA-binding proteins.
smOOPs have lower sequence complexity and increased intramolecular folding.
smOOPs encode proteins with intrinsically disordered regions linked to phase separation.
Abstract
Complex RNA-protein networks play a pivotal role in the formation of many types of biomolecular condensates. How RNA features contribute to condensate formation, however, remains incompletely understood. Here, we integrate tailored transcriptomics assays to identify a distinct class of developmental condensation-prone RNAs termed “smOOPs” (semi-extractable, orthogonal-organic-phase-separation-enriched RNAs). These transcripts localize to larger intracellular foci, form denser RNA subnetworks than expected, and are heavily bound by RNA-binding proteins (RBPs). Using an explainable deep learning framework, we reveal that smOOPs harbor characteristic sequence composition, with lower sequence complexity, increased intramolecular folding, and specific RBP-binding patterns. Intriguingly, these RNAs encode proteins bearing extensive intrinsically disordered regions and are highly predicted to…
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Taxonomy
TopicsRNA Research and Splicing · RNA modifications and cancer · RNA and protein synthesis mechanisms
