A phenotypic screen identified KEAP1-kelch domain blockade as a mechanism to restore cardiac function in the setting of chronic severe hemodynamic stress
John J. Upson, Christine G. Schnackenberg, Brian G. LawhorniD, Quanhai Chen, Daniel T. Sweet, Thimmaiah P. ChendrimadaiD, Carl A. BrooksiD, Mark E. Burgert, Christopher T Louer, Anna Zacco, Ian MoenchiD, Jonathan B. Basilla, Joseph G. Boyer, Christine Y. Ivashchenko, Sharada Manns, Roberta E. Bernard, G. C. Teg Pipes, Stephen EisennageliD, Weike BaoiD, Elizabeth Davenport, Joanne Kuziw, John A. Krawiec, Kristeen Hauk, Sarah Agrapides, Mary V. Rambo, , John R. ToomeyiD
Abstract
A bespoke gene expression (GE) based small molecule screen in human induced pluripotent stem cell derived cardiomyocytes (iPSC-CM) was conducted with the aim of identifying drug targets and pathways with the potential to reverse heart failure (HF) pathologic GE and the resultant decompensated HF phenotype. The screen utilized a composite human-murine HF gene expression signature, a target annotated compound set, and a HF gene expression reversal scoring algorithm to identify small molecules and their associated targets as potential modulators of HF pathologic GE. Following hit triage, a lead optimization program, and compound characterization in preclinical rodent models of HF and human iPSC-CM contractility assays, KEAP1 kelch domain blockers were identified as potent efficacious agents in the restoration of contractile function in the setting of oxidant stress and pressure overload induced cardiac dysfunction.
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