葡萄糖稳态
β细胞
BETA(编程语言)
内分泌学
胰岛素
内科学
生物
分泌物
碳水化合物代谢
平衡
胰岛
糖尿病
2型糖尿病
细胞生物学
小岛
胰岛素抵抗
医学
计算机科学
程序设计语言
作者
Alfonso Rubio‐Navarro,Nicolás Gómez-Banoy,Lisa Stoll,Friederike Dündar,Alex M. Mawla,Lunkun Ma,Èric Cortada,Paul Zumbo,Ang Li,Moritz Reiterer,Nathalia Montoya-Oviedo,Edwin A. Homan,Norihiro Imai,Ankit Gilani,Chengyang Liu,Ali Naji,Boris Yang,Angie Chi Nok Chong,David E. Cohen,Shuibing Chen
标识
DOI:10.1038/s41556-023-01103-1
摘要
The pancreatic islets are composed of discrete hormone-producing cells that orchestrate systemic glucose homeostasis. Here we identify subsets of beta cells using a single-cell transcriptomic approach. One subset of beta cells marked by high CD63 expression is enriched for the expression of mitochondrial metabolism genes and exhibits higher mitochondrial respiration compared with CD63lo beta cells. Human and murine pseudo-islets derived from CD63hi beta cells demonstrate enhanced glucose-stimulated insulin secretion compared with pseudo-islets from CD63lo beta cells. We show that CD63hi beta cells are diminished in mouse models of and in humans with type 2 diabetes. Finally, transplantation of pseudo-islets generated from CD63hi but not CD63lo beta cells into diabetic mice restores glucose homeostasis. These findings suggest that loss of a specific subset of beta cells may lead to diabetes. Strategies to reconstitute or maintain CD63hi beta cells may represent a potential anti-diabetic therapy. Rubio-Navarro et al. identify a subset of pancreatic beta cells marked by high CD63 levels with enhanced glucose-stimulated insulin secretion. CD63-high beta cells are diminished in mouse models of and in humans with type 2 diabetes.
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