神经科学
串扰
小胶质细胞
中枢神经系统
胚胎干细胞
生物
免疫系统
疾病
电池类型
神经炎症
神经系统
星形胶质细胞
大脑发育
生物神经网络
医学
神经传递
神经胶质
病态的
表型
心理学
神经发育
评论文章
运动前神经元活动
多发性硬化
少突胶质细胞
细胞
神经免疫学
作者
Alberto Javier Ramos,Alejandro Villarreal
标识
DOI:10.3389/fnetp.2026.1895622
摘要
During central nervous system (CNS) development, astrocytes and microglia arise from distinct embryonic origins; however, during early development, both cell types coordinately participate in brain circuit formation and neuronal network establishment. Later, in the healthy adult CNS, astrocytes are known to play essential roles in maintaining homeostasis. Although the microglia primarily function as the resident immune cells of the CNS, it is now well established that these cells, together with the astrocytes, participate actively in synaptic regulation, neuronal circuitry functioning, and cognition. In response to acute injury or chronic disease, both cell types undergo profound phenotypic changes and engage in a dynamic bidirectional crosstalk that critically shapes neuroinflammatory responses and influences CNS damage progression. This review synthesizes current knowledge and provides updated insights into the mechanisms by which astrocytes and microglia communicate during embryonic development of the CNS, participate in network physiology in the adult CNS, and engage in cellular responses to disease, highlighting how their interactions contribute to pathology and enabling identification of potential avenues for therapeutic interventions. Specifically, we focused on reviewing articles that directly address astrocyte-microglia communication. As an interesting outcome of our literature survey, we identified a significant bias toward studies investigating astrocyte-microglia crosstalk in pathological contexts compared to development and healthy adulthood. This observation reveals underexplored research avenues and emphasizes the need for studies addressing the roles of astrocyte-microglia interactions during physiological development and adult homeostasis. Finally, we briefly review novel approaches to overcome the difficulties of addressing astrocyte-microglia crosstalk.
科研通智能强力驱动
Strongly Powered by AbleSci AI