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A recombineering pipeline to clone large and complex genes in Chlamydomonas

机译:一种重组管道,克隆衣原体中的大型和复杂基因

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The ability to clone genes has greatly advanced cell and molecular biology research, enabling researchers to generate fluorescent protein fusions for localization and confirm genetic causation by mutant complementation. Most gene cloning is polymerase chain reaction (PCR) or DNA synthesis-dependent, which can become costly and technically challenging as genes increase in size, particularly if they contain complex regions. This has been a long-standing challenge for the Chlamydomonas reinhardtii research community, as this alga has a high percentage of genes containing complex sequence structures. Here we overcame these challenges by developing a recombineering pipeline for the rapid parallel cloning of genes from a Chlamydomonas bacterial artificial chromosome collection. To generate fluorescent protein fusions for localization, we applied the pipeline at both batch and high-throughput scales to 203 genes related to the Chlamydomonas CO2 concentrating mechanism (CCM), with an overall cloning success rate of 77%. Cloning success was independent of gene size and complexity, with cloned genes as large as 23 kb. Localization of a subset of CCM targets confirmed previous mass spectrometry data, identified new pyrenoid components, and enabled complementation of mutants. We provide vectors and detailed protocols to facilitate easy adoption of this technology, which we envision will open up new possibilities in algal and plant research.
机译:研究人员通过荧光定位和克隆突变基因,为细胞遗传学研究提供了有力的支持。大多数基因克隆依赖于聚合酶链反应(PCR)或DNA合成,随着基因大小的增加,尤其是当它们包含复杂区域时,这可能会变得成本高昂,并且在技术上具有挑战性。这一直是莱茵衣藻研究界面临的一个长期挑战,因为这种藻类含有高比例的包含复杂序列结构的基因。在这里,我们通过开发重组工程管道,从衣藻细菌人工染色体收集中快速平行克隆基因,克服了这些挑战。为了产生用于定位的荧光蛋白融合,我们在批处理和高通量规模上对203个与衣藻CO2浓缩机制(CCM)相关的基因应用了该管道,总体克隆成功率为77%。克隆成功与基因大小和复杂性无关,克隆的基因大小可达23kb。CCM靶标子集的定位证实了之前的质谱数据,确定了新的蛋白组分,并实现了突变体的互补。我们提供了载体和详细的协议,以方便采用这项技术,我们设想这将为藻类和植物研究开辟新的可能性。

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