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Laterally Orienting C. elegans Using Geometry at Microscale for High-Throughput Visual Screens in Neurodegeneration and Neuronal Development Studies

机译:横向定位线虫使用微型几何在神经退行性变和神经元发展研究中的高通量视觉屏幕。

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摘要

C. elegans is an excellent model system for studying neuroscience using genetics because of its relatively simple nervous system, sequenced genome, and the availability of a large number of transgenic and mutant strains. Recently, microfluidic devices have been used for high-throughput genetic screens, replacing traditional methods of manually handling C. elegans. However, the orientation of nematodes within microfluidic devices is random and often not conducive to inspection, hindering visual analysis and overall throughput. In addition, while previous studies have utilized methods to bias head and tail orientation, none of the existing techniques allow for orientation along the dorso-ventral body axis. Here, we present the design of a simple and robust method for passively orienting worms into lateral body positions in microfluidic devices to facilitate inspection of morphological features with specific dorso-ventral alignments. Using this technique, we can position animals into lateral orientations with up to 84% efficiency, compared to 21% using existing methods. We isolated six mutants with neuronal development or neurodegenerative defects, showing that our technology can be used for on-chip analysis and high-throughput visual screens.
机译:秀丽隐杆线虫是一个使用遗传学研究神经科学的优秀模型系统,因为它相对简单的神经系统,测序的基因组以及大量转基因和突变菌株的可用性。最近,微流体设备已用于高通量遗传筛选,取代了手动处理秀丽隐杆线虫的传统方法。然而,线虫在微流体装置内的取向是随机的,并且通常不利于检查,从而阻碍了视觉分析和整体通量。另外,尽管先前的研究已经利用方法来偏斜头和尾的方向,但是现有的技术都没有允许沿着背-腹体轴的方向。在这里,我们介绍了一种简单而健壮的方法设计,该方法用于将蠕虫被动地定向到微流控设备的侧向体位中,以利于检查特定的背-腹比对的形态特征。使用这种技术,我们可以将动物横向定位的效率高达84%,而使用现有方法则为21%。我们分离了六个具有神经元发育或神经退行性缺陷的突变体,表明我们的技术可用于芯片分析和高通量可视屏幕。

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