Activation of the urotensin-II receptor by remdesivir induces cardiomyocyte dysfunction.
Akiko OgawaSeiya OhiraYuri KatoTatsuya IkutaShota YanagidaXinya MiYukina IshiiYasunari KandaMotohiro NishidaAsuka InoueFan-Yan WeiPublished in: Communications biology (2023)
Remdesivir is an antiviral drug used for COVID-19 treatment worldwide. Cardiovascular side effects have been associated with remdesivir; however, the underlying molecular mechanism remains unknown. Here, we performed a large-scale G-protein-coupled receptor screening in combination with structural modeling and found that remdesivir is a selective, partial agonist for urotensin-II receptor (UTS2R) through the Gα i/o -dependent AKT/ERK axis. Functionally, remdesivir treatment induced prolonged field potential and APD 90 in human induced pluripotent stem cell (iPS)-derived cardiomyocytes and impaired contractility in both neonatal and adult cardiomyocytes, all of which mirror the clinical pathology. Importantly, remdesivir-mediated cardiac malfunctions were effectively attenuated by antagonizing UTS2R signaling. Finally, we characterized the effect of 110 single-nucleotide variants in UTS2R gene reported in genome database and found four missense variants that show gain-of-function effects in the receptor sensitivity to remdesivir. Collectively, our study illuminates a previously unknown mechanism underlying remdesivir-related cardiovascular events and that genetic variations of UTS2R gene can be a potential risk factor for cardiovascular events during remdesivir treatment, which collectively paves the way for a therapeutic opportunity to prevent such events in the future.
Keyphrases
- cardiovascular events
- copy number
- high glucose
- coronary artery disease
- stem cells
- genome wide
- signaling pathway
- endothelial cells
- cardiovascular disease
- cell proliferation
- sars cov
- coronavirus disease
- diabetic rats
- oxidative stress
- climate change
- transcription factor
- young adults
- emergency department
- risk assessment
- combination therapy
- angiotensin ii
- mesenchymal stem cells
- intellectual disability
- type diabetes
- bone marrow
- current status
- atrial fibrillation