生物能学
氧化磷酸化
糖酵解
效应器
厌氧糖酵解
免疫
营养物
T细胞
代谢途径
生物
重编程
免疫系统
功能(生物学)
新陈代谢
细胞生物学
细胞
代谢工程
生物化学
离体
瓦博格效应
细胞生长
能源
营养感应
受体
磷酸戊糖途径
碳水化合物代谢
嵌合抗原受体
作者
Joseph Longo,McLane J. Watson,Kelsey S. Williams,Ryan D. Sheldon,Russell G. Jones
出处
期刊:Cell Metabolism
[Cell Press]
日期:2025-10-15
卷期号:37 (12): 2311-2322
被引量:10
标识
DOI:10.1016/j.cmet.2025.09.008
摘要
T cell activation and function are intricately linked to metabolic reprogramming. The classic view of T cell metabolic reprogramming centers on glucose as the dominant bioenergetic fuel, where T cell receptor (TCR) stimulation promotes a metabolic switch from relying primarily on oxidative phosphorylation (OXPHOS) for energy production to aerobic glycolysis (i.e., the Warburg effect). More recently, studies have revealed this classic model to be overly simplistic. Activated T cells run both glycolysis and OXPHOS programs concurrently, allocating diverse nutrient sources toward distinct biosynthetic and bioenergetic fates. Moreover, studies of T cell metabolism in vivo and ex vivo highlight that physiologic nutrient availability influences how glucose is allocated by T cells to fuel both optimal proliferation and effector function. Here, we summarize recent advancements that support a revised model of effector T cell metabolism, where strategic nutrient allocation fuels optimal T cell-mediated immunity. Glucose has traditionally been considered the primary fuel for T cells. Longo et al. present evidence for a revised, “nutrient allocation” model, in which effector T cells channel diverse nutrient sources into specific metabolic pathways to fuel T cell-mediated immunity.
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