Estrogen receptor activation remodels TEAD1 gene expression to alleviate hepatic steatosis.
Christian SommerauerCarlos J Gallardo-DoddChristina SavvaLinnea HasesMadeleine BirgerssonRajitha IndukuriJoanne X ShenPablo CarravillaKeyi GengJonas Nørskov SøndergaardClàudia Ferrer-AumatellGrégoire MercierErdinc SezginMarion Korach-AndréCarl PeterssonHannes HagströmVolker Martin LauschkeAmena ArcherCecilia WilliamsClaudia KutterPublished in: Molecular systems biology (2024)
Sex-based differences in obesity-related hepatic malignancies suggest the protective roles of estrogen. Using a preclinical model, we dissected estrogen receptor (ER) isoform-driven molecular responses in high-fat diet (HFD)-induced liver diseases of male and female mice treated with or without an estrogen agonist by integrating liver multi-omics data. We found that selective ER activation recovers HFD-induced molecular and physiological liver phenotypes. HFD and systemic ER activation altered core liver pathways, beyond lipid metabolism, that are consistent between mice and primates. By including patient cohort data, we uncovered that ER-regulated enhancers govern central regulatory and metabolic genes with clinical significance in metabolic dysfunction-associated steatotic liver disease (MASLD) patients, including the transcription factor TEAD1. TEAD1 expression increased in MASLD patients, and its downregulation by short interfering RNA reduced intracellular lipid content. Subsequent TEAD small molecule inhibition improved steatosis in primary human hepatocyte spheroids by suppressing lipogenic pathways. Thus, TEAD1 emerged as a new therapeutic candidate whose inhibition ameliorates hepatic steatosis.
Keyphrases
- estrogen receptor
- high fat diet
- insulin resistance
- transcription factor
- gene expression
- high fat diet induced
- end stage renal disease
- small molecule
- ejection fraction
- adipose tissue
- newly diagnosed
- chronic kidney disease
- big data
- poor prognosis
- electronic health record
- weight loss
- peritoneal dialysis
- cell proliferation
- signaling pathway
- drug induced
- diabetic rats
- deep learning
- artificial intelligence
- single cell
- endoplasmic reticulum
- fatty acid
- genome wide
- weight gain
- bone marrow
- protein protein