12h-clock control of central dogma information flow by XBP1s
Yinghong PaniD, Heather I. BallanceiD, Huan MengiD, Naomi Gonzalez, Clifford C. DacsoiD, Xi CheniD, Oren LevyiD, Cristian CoarfaiD, Bert W. O’MalleyiD, Bokai ZhuiD
Abstract
Our group recently discovered a cell-autonomous mammalian 12h-clock regulating physiological unfolded protein response. Xbp1s ablation impairs 12h-transcript oscillations in vitro, and we now show liver-specific deletion of XBP1s globally impaired murine 12h-transcriptome, but not the circadian rhythms in vivo. XBP1s-dependent 12h-transcriptome is enriched for transcription, mRNA processing, ribosome biogenesis, translation, and protein ER-Golgi processing/sorting in a temporal order consistent with the progressive molecular processing sequence described by the central dogma information flow (CEDIF). The 12h-rhythms of CEDIF are cell-autonomous and evolutionarily conserved in circatidal marine animals. Mechanistically, we found the motif stringency of promoter XBP1s binding sites, but not necessarily XBP1s expression, dictates its ability to drive 12h-rhythms of transcription and further identified GABP as putative novel transcriptional regulator of 12h-clock. We hypothesize the 12h-rhythms of CEDIF allows rush hours gene expression and processing, with the particular genes processed at each rush hour regulated by circadian and/or tissue specific pathways.
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