Bantam regulates the axonal geometry of Drosophila larval brain by modulating actin regulator enabled.

Q4 Neuroscience
Animesh Banerjee, Jagat Kumar Roy
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引用次数: 2

Abstract

During development, axonogenesis, an integral part of neurogenesis, is based on well-concerted events comprising generation, rearrangement, migration, elongation, and adhesion of neurons. Actin, specifically the crosstalk between the guardians of actin polymerization, like enabled, chickadee, capping protein plays an essential role in crafting several events of axonogenesis. Recent evidences reflect multifaceted role of microRNA during axonogenesis. Here, we investigated the role of bantam miRNA, a well-established miRNA in Drosophila, in regulating the actin organization during brain development. Our immunofluorescence studies showed altered arrangement of neurons and actin filaments whereas both qPCR and western blot revealed elevated expression of enabled, one of the actin modulators in bantam mutant background. Collectively, our results clearly demonstrate that bantam plays an instrumental role in shaping the axon architecture regulating the actin geometry through its modulator enabled.

Bantam通过调节肌动蛋白调节因子的激活来调节果蝇幼虫脑轴突的几何形状。
在发育过程中,轴突发生是神经发生的一个组成部分,是基于神经元的产生、重排、迁移、延伸和粘附等协调一致的事件。肌动蛋白,特别是肌动蛋白聚合的守护者之间的相互作用,如使能的,山雀,帽蛋白在制造轴突发生的几个事件中起着至关重要的作用。最近的证据反映了microRNA在轴突发生过程中的多方面作用。在这里,我们研究了bantam miRNA的作用,bantam miRNA是果蝇中公认的miRNA,在大脑发育过程中调节肌动蛋白组织。我们的免疫荧光研究显示神经元和肌动蛋白丝的排列发生了改变,而qPCR和western blot显示,在bantam突变背景下,一种肌动蛋白调节剂enabled的表达升高。总的来说,我们的研究结果清楚地表明,班塔姆在塑造轴突结构方面发挥了重要作用,通过其调制器激活调节肌动蛋白的几何形状。
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来源期刊
Invertebrate Neuroscience
Invertebrate Neuroscience NEUROSCIENCES-
自引率
0.00%
发文量
0
审稿时长
>12 weeks
期刊介绍: Invertebrate Neurosciences publishes peer-reviewed original articles, reviews and technical reports describing recent advances in the field of invertebrate neuroscience. The journal reports on research that exploits the simplicity and experimental tractability of the invertebrate preparations to underpin fundamental advances in neuroscience. Articles published in Invertebrate Neurosciences serve to highlight properties of signalling in the invertebrate nervous system that may be exploited in the field of antiparisitics, molluscicides and insecticides. Aspects of particular interest include: Functional analysis of the invertebrate nervous system; Molecular neuropharmacology and toxicology; Neurogenetics and genomics; Functional anatomy; Neurodevelopment; Neuronal networks; Molecular and cellular mechanisms of behavior and behavioural plasticity.
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