外泌体与Wnt一起。

Kate Koles, Vivian Budnik
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引用次数: 41

摘要

外泌体是一种小的分泌微泡,参与多种细胞类型的细胞间通讯,运输影响受体细胞生理的蛋白质、脂质和核酸货物。除了外泌体的信号功能外,它们还作为一种处理废弃细胞物质的机制尤其令人兴奋的是外泌体通讯在神经系统中的参与,因为这对大脑发育和功能具有重要意义。外泌体的特性也开始吸引生物医学界,因为它们代表了在疾病期间靶向递送定制外泌体货物(如mirna)的潜在新途径。我们的发现暗示了外泌体在跨突触通讯中的作用,这一发现来自于对果蝇幼虫神经肌肉连接处(NMJ)信号分子Wnt1/Wingless (Wg)及其结合伙伴均匀中断(Evi)/Wntless (Wls)/Sprint (Srt)的偶然观察,这些信号分子由运动神经元与囊泡相关的囊泡释放,我们假设它们是外泌体在我们最近的一篇论文中,通过对果蝇NMJ和培养的昆虫细胞的体内分析,我们正式证明了Evi在被释放到细胞外空间的外泌体中,并确定了一些参与它们释放的参与者。此外,外泌体的蛋白质组学分析强调了外泌体的新潜在功能。
本文章由计算机程序翻译,如有差异,请以英文原文为准。

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Exosomes go with the Wnt.

Exosomes, small secreted microvesicles, are implicated in intercellular communication in diverse cell types, transporting protein, lipid and nucleic acid cargo that impact the physiology of recipient cells. Besides the signaling function of exosomes they also serve as a mechanism to dispose obsolete cellular material.1 Particularly exciting is the involvement of exosomal communication in the nervous system, as this has important implications for brain development and function. The properties of exosomes are also beginning to entice the biomedical community since they represent potentially novel avenues for the targeted delivery of customized exosome cargo, such as miRNAs, during disease. Our findings implicating exosomes in trans-synaptic communication emerged from the serendipitous observation that at the Drosophila larval neuromuscular junction (NMJ) the release of a signaling molecule, Wnt1/Wingless (Wg) and its binding partner Evenness Interrupted (Evi)/Wntless (Wls)/Sprint (Srt), were released by motorneurons in association with vesicles, which we postulated to be exosomes.2 In our most recent paper3 using in vivo analysis at the Drosophila NMJ as well as in cultured insect cells we formally demonstrate that Evi rides in exosomes that are released to the extracellular space and identify some of the players involved in their release. In addition, a proteomic analysis of exosomes highlights novel potential function of exosomes.

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