内克隆和外克隆:用于无痕转录单元和模块化金门接受质粒组装的质粒工具箱

Stijn T. de Vries, Tania S. Koebel, Ahmet Sanal, Daniel Schindler
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摘要

金门克隆已成为最重要的 DNA 组装策略之一。构建标准化和可重复使用的部分文库、将其组装成转录单元以及随后组装多基因构建体,都具有高度的可靠性和可持续性。研究人员可以快速构建其组装的衍生物或整个途径,重要的是,金门组装的标准化与实验室自动化兼容。大多数 "黄金门 "策略都依赖于常用的 IIS 型酶产生的四个核苷酸悬垂。但是,将悬垂减少到三个核苷酸,就可以使用密码子作为融合位点,并减少潜在的疤痕序列。这在研究生物功能时尤为重要,因为额外的核苷酸可能会改变转录 RNA 的结构或稳定性。为了解决这个问题,我们使用 SapI(一种能产生三个核苷酸悬垂的 IIS 型酶)进行转录单元组装,从而在编码序列中实现基于密码子的融合。我们创建了一个相应的质粒工具箱,用于基本部件的生成和转录单元的组装,我们称之为 In-Cloning。In-Cloning 与 Sylvestre Marillonnet 小组开发的模块化克隆标准兼容,可用于多基因构建体的标准化组装。但是,多基因构建质粒可能与所选模式生物不兼容。因此,我们开发了一种名为 Out-Cloning 的工作流程,用于快速生成金门接受质粒。Out-Cloning 使用标准化的质粒部件,这些部件通过灵活的链接器组装成金门接受质粒。这样就能系统地构建出所需的接受质粒,将组装好的 DNA 转移到感兴趣的生物体中。
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In- & Out-Cloning: Plasmid toolboxes for scarless transcription unit and modular Golden Gate acceptor plasmid assembly
Golden Gate cloning has become one of the most important DNA assembly strategies. The construction of standardized and reusable part libraries, their assembly into transcription units, and the subsequent assembly of multigene constructs is highly reliable and sustainable. Researchers can quickly construct derivatives of their assemblies or entire pathways, and importantly, the standardization of Golden Gate assemblies is compatible with laboratory automation. Most Golden Gate strategies rely on four nucleotide overhangs generated by commonly used Type IIS enzymes. However, reduction to three nucleotide overhangs allows the use of codons as fusion sites and reduces potential scar sequences. This is particularly important when studying biological functions, as additional nucleotides may alter the structure or stability of the transcribed RNA. To address this issue we use SapI, a Type IIS enzyme generating three nucleotide overhangs, for transcription unit assembly, allowing for codon-based fusion in coding sequences. We created a corresponding plasmid toolbox for basic part generation and transcription unit assembly, a workflow we term In-Cloning. In-Cloning is downstream compatible with the Modular Cloning standard developed by Sylvestre Marillonnet's group for standardized assembly of multigene constructs. However, the multigene construct plasmids may not be compatible for use with the model organism of choice. Therefore, we have developed a workflow called Out-Cloning to rapidly generate Golden Gate acceptor plasmids. Out-Cloning uses standardized plasmid parts that are assembled into Golden Gate acceptor plasmids using flexible linkers. This allows the systematic construction of acceptor plasmids needed to transfer assembled DNA into the organism of interest.
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