线粒体
细胞生物学
细胞器
功能(生物学)
生物
内皮干细胞
移植
线粒体融合
细胞功能
细胞
细胞内
内皮
间充质干细胞
生物信息学
干细胞
神经科学
电池类型
医学
机制(生物学)
化学
钙信号传导
细胞代谢
生物学中的钙
细胞疗法
氧化磷酸化
能量代谢
氧化应激
作者
Gwang-Bum Im,Juan M. Melero-Martin
出处
期刊:Circulation Research
[Lippincott Williams & Wilkins]
日期:2026-04-09
卷期号:138 (8): e326982-e326982
被引量:1
标识
DOI:10.1161/circresaha.125.326982
摘要
Mitochondria are increasingly recognized as central regulators of vascular health, shaping endothelial cell function through roles that extend far beyond energy production. In addition to coordinating redox balance, calcium dynamics, and biosynthetic support, recent studies have revealed that mitochondria participate in intercellular communication, with evidence of transfer events emerging in vascular contexts. Parallel efforts have advanced the deliberate delivery of exogenous mitochondria from preclinical proof-of-principle studies to first-in-human trials, demonstrating that freshly isolated organelles can be harvested and administered in real-time to critically ill patients with favorable early outcomes. The mechanisms underlying these benefits remain incompletely defined, and strategies for efficient and scalable delivery are still emerging. In this review, we prioritize recent evidence linking mitochondrial function to endothelial cell physiology, highlight the nascent but growing field of mitochondrial transfer in the vasculature, and examine how mitochondrial transplantation is evolving from experimental concept to clinical translation. Together, these advances point to new therapeutic avenues for preserving vascular integrity and treating disease.
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