体外电穿孔和切片培养用于小鼠胚胎脊髓基因功能分析

IF 2.6 Q2 Medicine
Shuanqing Li , Yunxiao Li , Han Li , Ciqing Yang , Juntang Lin
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引用次数: 2

摘要

脊髓是中枢神经系统(CNS)的重要组成部分。目前,外源基因在胚胎小鼠脊髓中的表达需要在子宫脊髓电穿孔,但这种技术的成功率很低。在这项研究中,我们通过结合胚胎小鼠脊髓体外电穿孔和器官脊髓切片培养两种方法,证明了外源基因在脊髓一侧的表达。取胚胎期12天的小鼠,将绿色荧光蛋白(pCAGGS-GFP)质粒注射到离体脊髓腔内,然后电穿孔。用振动切片机将脊髓切成300 μm的薄片。培养48 h后,脊髓一侧明显可见gfp阳性神经元,表明外源基因转染成功。轴突投射方向从脊髓内侧到脊髓外侧基本一致。与活体神经元相比,单个神经元在培养切片中具有更完整的神经突,有利于研究单个神经元的结构和行为变化。基于以上结果,我们成功建立了一种方便高效的外源基因在小鼠脊髓中的表达方法。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Use of in vitro electroporation and slice culture for gene function analysis in the mouse embryonic spinal cord

The spinal cord is an important part of the central nervous system (CNS). At present, the expression of the exogenous gene in the spinal cord of the embryonic mouse needs in utero spinal cord electroporation, but the success rate of this technique is very low. In this study, we have demonstrated the expression of an exogenous gene on one side of the spinal cord by combining two methods—in vitro electroporation of embryonic mouse spinal cord and organ spinal cord slices culture. We took 12-day embryonic mice, injected the green fluorescent protein (pCAGGS-GFP) plasmid into the spinal cord cavity in vitro, and then electroporated. The spinal cord was cut into 300-μm slices using a vibratory microtome. After cultured for 48 h, GFP-positive neurons were clearly observed on one side of the spinal cord, indicating that the exogenous gene was successfully transferred. The axon projection direction is basically unanimous from the inside to the lateral edge of the spinal cord. Compared to neurons in vivo, a single neuron in the culturing section has more complete neurites and is conducive to studying changes in the structure and behavior of individual neurons. Based on the above results, we have successfully established a convenient and efficient method for expressing the exogenous gene in the spinal cord of the mouse.

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来源期刊
Mechanisms of Development
Mechanisms of Development 生物-发育生物学
CiteScore
3.60
自引率
0.00%
发文量
0
审稿时长
12.4 weeks
期刊介绍: Mechanisms of Development is an international journal covering the areas of cell biology and developmental biology. In addition to publishing work at the interphase of these two disciplines, we also publish work that is purely cell biology as well as classical developmental biology. Mechanisms of Development will consider papers in any area of cell biology or developmental biology, in any model system like animals and plants, using a variety of approaches, such as cellular, biomechanical, molecular, quantitative, computational and theoretical biology. Areas of particular interest include: Cell and tissue morphogenesis Cell adhesion and migration Cell shape and polarity Biomechanics Theoretical modelling of cell and developmental biology Quantitative biology Stem cell biology Cell differentiation Cell proliferation and cell death Evo-Devo Membrane traffic Metabolic regulation Organ and organoid development Regeneration Mechanisms of Development does not publish descriptive studies of gene expression patterns and molecular screens; for submission of such studies see Gene Expression Patterns.
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