ArticleNature communications2026
An ultraconserved pseudo 5' splice site fine-tunes development by regulating alternative splicing within TOR-related pathways.
Article in Nature communications, 2026. The graph could read no effect estimate from its abstract, so it casts no vote on the map. Not yet cited in PubMed.
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The abstract states no effect estimate the extractor could read, or names no intervention and outcome on the map, so this paper lights no cell and moves no belief. It is still indexed, cited and linked below.
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Abstract
Introns have expanded dramatically during evolution, and while their internal sequences have greatly diverged, the potential function of ultraconserved RNA motifs remains an important, unanswered question. Sharing the sequence with the utilized 5' splice sites (5'SSs), pseudo-5'SSs are widespread in introns but are never spliced. We searched homologous introns and identified eight ultraconserved pseudo-5'SSs (UCP-5'SSs). The most conserved one resides in the animal ENOX1/Enox genes that are involved in plasma membrane electron transport and cell enlargement. In vivo deletion of this 9-nt UCP-5'SS in Drosophila results in a significantly enlarged ovary and increased fecundity. We demonstrate that this UCP-5'SS is a silencer for alternative splicing (AS) regulation of an upstream ultraconserved essential exon through interaction with the U1 snRNP-core proteins. The AS changes are observed in all the tested Drosophila mutants from the dTOR and Insulin-like pathways. Remarkably, loss of this UCP-5'SS significantly mitigates the changes. Multiple-source human cells treated with the mTOR/Insulin pathway inhibitors also change the AS and specifically increase the translation of U1-70K, suggesting remarkable conservation of this mechanism. This study reveals an ultraconserved regulatory network in which a short intronic RNA element functions as a sensor of TOR-related pathways during ovarian development.
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