类有机物
心室
诱导多能干细胞
人的心脏
移植
电生理学
心功能曲线
心脏移植
神经科学
生物医学工程
中庭(建筑)
心脏病学
心力衰竭
解剖
生物
医学
细胞生物学
内科学
胚胎干细胞
心房颤动
生物化学
基因
作者
Seulgi Lee,Yeji Kim,Mi‐Young Son,Minseok Oh,Jin Kim,Bokyeong Ryu,Kyu-Ree Kang,Jieun Baek,Gujin Chung,Dong Ho Woo,C‐Yoon Kim,Hyung‐Min Chung
出处
期刊:Biomaterials
[Elsevier BV]
日期:2022-10-11
卷期号:290: 121860-121860
被引量:43
标识
DOI:10.1016/j.biomaterials.2022.121860
摘要
Currently, due to the increasing demand for 3D culture, various organoids that mimic organs are being actively studied. Despite active reports, information on heart organoids (HOs), which are the first functional organs, is still insufficient. Parameters for reproducing hearts are: chamber formation, organization with cardiac cells, vascularization, and simulation of electrophysiological signals. In particular, since the heart reflects complex factors, it is necessary to develop HOs that can be simulated in depth. In this study, we have created self-organized HOs using human iPSCs, and validated mimicry of cardiac structures such as chamber and epicardium/myocardium and atrium/ventricle-similar areas. Furthermore, mechanical/electrophysiological features were verified through multiple analyzes after inhibition of ion channels. More importantly, the HOs function, due to the cardiovascular characteristics of HOs, was maintained through vascularization after in vivo transplantation. In conclusion, this study has the advantage of being able to easily and closely recapitulate morphological/functional aspects of the heart.
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