转录因子
生物
代谢途径
细胞生物学
营养物
抄写(语言学)
代谢网络
营养感应
心理弹性
弹性(材料科学)
T细胞
可塑性
免疫
新陈代谢
线粒体
获得性免疫系统
转录组
氨基酸
基因
必需营养素
免疫系统
细胞
转录调控
生物化学
信号转导
代谢工程
翻译(生物学)
作者
Michael Scaglione,Montana Knight,Krittin Trihemasava,Kelly Rome,Anne‐Sophie Archambault,Juhee Oh,Erin Tanaka,Elise Hall,Tran Ngoc Van Le,Caleb L. Lines,Brian Goldspiel,Hossein Fazelinia,Clémence Queriault,Lucien Turner,Tanay Parnaik,Jimmy Xu,Morgan Brown,Oishi Bardhan,Jessie Axsom,F. Chris Bennett
出处
期刊:Immunity
[Cell Press]
日期:2026-04-30
卷期号:59 (5): 1344-1362.e8
被引量:1
标识
DOI:10.1016/j.immuni.2026.04.004
摘要
T cells adapt to nutrient stresses over time, reconfiguring gene-regulatory and metabolic networks to license functional recovery. Under acute stress, T cells reoriented translational programming, which limited nutrient demand and prioritized stress-sensitive metabolic and transcriptional responses. Within these responses, the transcription factors activating transcription factor 4 (ATF4) and CCAAT/enhancer-binding protein gamma (CEBPG) jointly established an adaptive metabolic program, promoting amino acid synthesis and uptake while maintaining mitochondrial metabolism. Despite diminished energetic capacity under environmental stress, this program sustained central carbon metabolism. This subsequently mitigated cellular dysfunction and potentiated anti-tumor immunity. Altogether, we demonstrate that biosynthetic plasticity via translational and metabolic reprioritization confers T cell resilience in unfavorable environments, offering potential strategies to enhance immunotherapies.
科研通智能强力驱动
Strongly Powered by AbleSci AI