Interplay of transcriptional signaling by progesterone, cyclic AMP, and inflammation in myometrial cells: implications for the control of human parturition. (18th June 2019)

• Record Type: Journal Article
• Authors: Stanfield, Zachary; Amini, Peyvand; Wang, Junye; Yi, Lijuan; Tan, Huiqing; Chance, Mark R; Koyutürk, Mehmet; Mesiano, Sam
• Is Part Of: Molecular human reproduction. Volume 25:Number 7(2019)
• Page Start: 408
• Page End: 422
• Publication Date: 2019-06-18
• Subjects: myometrium -- progesterone -- cyclic AMP -- inflammation -- gene expression -- cell line -- parturition; Human reproduction -- Molecular aspects -- Periodicals; Electronic journals; 612.6
• DOI: 10.1093/molehr/gaz028
• Languages: English
• ISSNs: 1360-9947

Abstract

Abstract: Parturition involves cellular signaling changes driven by the complex interplay between progesterone (P4), inflammation, and the cyclic adenosine monophosphate (cAMP) pathway. To characterize this interplay, we performed comprehensive transcriptomic studies utilizing eight treatment combinations on myometrial cell lines and tissue samples from pregnant women. We performed genome-wide RNA-sequencing on the hTERT-HM${}^{A/B}$ cell line treated with all combinations of P4, forskolin (FSK) (induces cAMP), and interleukin-1$\beta$ (IL-1$\beta$ ). We then performed gene set enrichment and regulatory network analyses to identify pathways commonly, differentially, or synergistically regulated by these treatments. Finally, we used tissue similarity index (TSI) to characterize the correspondence between cell lines and tissue phenotypes. We observed that in addition to their individual anti-inflammatory effects, P4 and cAMP synergistically blocked specific inflammatory pathways/regulators including STAT3/6, CEBPA/B, and OCT1/7, but not NF$\kappa$ B. TSI analysis indicated that FSK + P4- and IL-1$\beta$ -treated cells exhibit transcriptional signatures highly similar to non-laboring and laboring term myometrium, respectively. Our results identify potential therapeutic targets to prevent preterm birth and show that the hTERT-HM${}^{A/B}$ cell line provides an accurate transcriptional model for term myometrial tissue.