类有机物
生物
甲戊酸途径
细胞生物学
再生医学
药物发现
细胞生长
体内
蛋白质组学
细胞周期
药品
细胞
药理学
计算生物学
干细胞
生物信息学
生物化学
生物合成
酶
生物技术
基因
作者
Richard J. Mills,Benjamin L. Parker,Gregory A. Quaife-Ryan,Holly K. Voges,Elise J. Needham,Aurélie Bornot,Mei Ding,Henrik Andersson,Magnus Polla,David A. Elliott,Lauren Drowley,Maryam Clausen,Alleyn T. Plowright,Ian P. Barrett,Qingdong Wang,David E. James,Enzo R. Porrello,James E. Hudson
出处
期刊:Cell Stem Cell
[Elsevier BV]
日期:2019-06-01
卷期号:24 (6): 895-907.e6
被引量:202
标识
DOI:10.1016/j.stem.2019.03.009
摘要
We have previously developed a high-throughput bioengineered human cardiac organoid (hCO) platform, which provides functional contractile tissue with biological properties similar to native heart tissue, including mature, cell-cycle-arrested cardiomyocytes. In this study, we perform functional screening of 105 small molecules with pro-regenerative potential. Our findings reveal surprising discordance between our hCO system and traditional 2D assays. In addition, functional analyses uncovered detrimental effects of many hit compounds. Two pro-proliferative small molecules without detrimental impacts on cardiac function were identified. High-throughput proteomics in hCO revealed synergistic activation of the mevalonate pathway and a cell-cycle network by the pro-proliferative compounds. Cell-cycle reentry in hCO and in vivo required the mevalonate pathway as inhibition of the mevalonate pathway with a statin attenuated pro-proliferative effects. This study highlights the utility of human cardiac organoids for pro-regenerative drug development, including identification of underlying biological mechanisms and minimization of adverse side effects.
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