免疫系统
免疫
表观遗传学
癌症研究
抑制器
生物
细胞生长
DNA甲基化
T细胞
化学
乙酰化
细胞
抗原呈递
癌症免疫疗法
细胞生物学
甲基化
抗原
免疫疗法
获得性免疫系统
DNA
电池类型
表型
干扰素
PI3K/AKT/mTOR通路
树突状细胞
免疫检查点
作用机理
限制
癌细胞
组蛋白
先天免疫系统
免疫学
机制(生物学)
癌症
作者
Thomas Pfefer,Anna Hanga Bessenyei,Luke A O’Neill
标识
DOI:10.1016/j.imlet.2026.107153
摘要
The field of immunometabolism has expanded substantially in recent years, with specific metabolic change becoming a key feature that defines the phenotype of immune cells. In cancer however, metabolic change has been investigated for much longer, and the exploration of oncometabolites as immunometabolites is increasingly being explored. 2-hydroxyglutarate was one of the first oncometabolites to be implicated in tumourigenesis but it also has immunomodulatory effects, with the D enantiomer suppressing anti-tumour immunity via various processes including inhibition of CD8+T cells. Fumarate also acts as an oncometabolite, affecting DNA methylation and DNA repair, but again also having immunomodulatory effects via inhibition of T and B cells, whilst also promoting Type I interferon production in macrophages. Succinate can act as an oncometabolite but also in immunomodulation. It has been shown to have pro-tumour effects, acting via HIF-1α and epigenetic modification and regulating tumour-associated macrophages (TAMs). Succinate can also promote T cell exhaustion whilst expanding cancer-associated fibroblasts. Finally, itaconate has been shown to have pro-tumour effects, by either supporting tumour cell survival or by suppressing anti-tumour immunity. TAMs and myeloid-derived suppressor cells are a source of itaconate, which can inhibit CD8+T cell responses and suppress tumour antigen presentation by dendritic cells. Emerging evidence indicates that the targeting of these metabolites holds promise for limiting tumour growth but in addition boosting anti-tumour immunity.
科研通智能强力驱动
Strongly Powered by AbleSci AI