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3
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Cell Rep. 2021 Sep 14;36(11):109700. doi: 10.1016/j.celrep.2021.109700.
4
Genetic Toolkits to Design and Build Mammalian Synthetic Systems.用于设计和构建哺乳动物合成系统的遗传工具包。
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利用黑腹果蝇进行合成组装 DNA 克隆构建多基因转座体、反筛选或任何其他遗传策略的质粒。

Synthetic Assembly DNA Cloning to Build Plasmids for Multiplexed Transgenic Selection, Counterselection or Any Other Genetic Strategies Using Drosophila melanogaster.

机构信息

Verna and Marrs McLean Department of Biochemistry and Molecular Biology, Baylor College of Medicine, Houston, Texas.

Department of Pharmacology and Chemical Biology, Baylor College of Medicine, Houston, Texas.

出版信息

Curr Protoc. 2023 Feb;3(2):e653. doi: 10.1002/cpz1.653.

DOI:10.1002/cpz1.653
PMID:36757602
原文链接:https://pmc.ncbi.nlm.nih.gov/articles/PMC10281009/
Abstract

We recently described a drug-based selectable and counterselectable genetic platform for the animal model system Drosophila melanogaster, consisting of four resistance and two sensitivity markers that allow direct selection for, or counterselection against, a desired genotype. This platform eliminates the need to identify modified progeny by traditional laborious screening using the dominant eye and body color markers, white and yellow , respectively. The four resistance markers permit selection of animals using G418 sulfate, puromycin HCl, blasticidin S, or hygromycin B, while the two sensitivity markers allow counterselection of animals against ganciclovir or acyclovir and 5-fluorocytosine. The six markers can be used alone or in combination to perform co-selection, combination selection, and counterselection, as well as co-counterselection. To make this novel selection and counterselection genetics platform easily accessible to and rapidly implementable by the scientific community, we used a synthetic assembly DNA cloning platform, GoldenBraid 2.0 (GB2.0). GB2.0 relies on two Type IIs restriction enzymes that are alternatingly used during successive cloning steps to make increasingly complex genetic constructs. Here we describe, as an example, how to perform synthetic assembly DNA cloning using GB2.0 to build such complex plasmids via the assembly of both components of the binary LexA/LexA-Op overexpression system, a G418 sulfate-selectable LexA transactivator plasmid, and a blasticidin S-selectable LexA-Op responder plasmid. We demonstrate the functionality of these plasmids by including the expression pattern obtained after co-injection, followed by co-selection using G418 sulfate and blasticidin S, resulting in co-transgenesis of both plasmids. Protocols are provided on how to obtain, adapt, and clone DNA parts for synthetic assembly cloning after de novo DNA synthesis or PCR amplification of desired DNA parts and how to assemble those DNA parts into multipartite transcription units, followed by how to further assemble multiple transcription units into genetic constructs of increasing complexity to perform multiplexed transgenic selection and counterselection, or any other genetic strategies using Drosophila melanogaster. The protocols we present can be easily adapted to incorporate any of the six selectable and counterselectable markers, or any other, markers, to generate plasmids of unmatched complexity for various genetic applications. A protocol on how to generate transgenic animals using these synthetically assembled plasmids is described in an accompanying Current Protocols article (Venken, Matinyan, Gonzalez, & Dierick, 2023). © 2023 Wiley Periodicals LLC. Basic Protocol 1: Obtaining and cloning a de novo-synthesized DNA part for synthetic assembly DNA cloning Basic Protocol 2: Obtaining and cloning a DNA part amplified by PCR from existing DNA resources for synthetic assembly DNA cloning Alternate Protocol: Obtaining, adapting, and cloning a DNA part amplified by PCR from existing DNA resources for synthetic assembly DNA cloning Basic Protocol 3: Synthetic assembly DNA cloning of individual DNA parts into a multipartite transcription unit Basic Protocol 4: Synthetic assembly DNA cloning of multiple transcription units into genetic constructs of increasing complexity.

摘要

我们最近描述了一个基于药物的可选择和可反选择的遗传平台,用于动物模型系统果蝇,该平台由四个抗性和两个敏感性标记物组成,允许直接选择或反选择所需的基因型。这个平台消除了通过传统的费力筛选来识别修饰后代的需要,传统的筛选方法使用显性眼色和体色标记物,分别为白色和黄色。四个抗性标记物允许使用硫酸葡聚糖胺、嘌呤霉素 HCl、博来霉素 S 或 Hygromycin B 选择动物,而两个敏感性标记物允许针对更昔洛韦或阿昔洛韦和 5-氟胞嘧啶进行反选择。这六个标记物可以单独或组合使用,以进行共选择、组合选择和反选择,以及共反选择。为了使这个新的选择和反选择遗传学平台更容易为科学界所接受并迅速实施,我们使用了一种合成装配 DNA 克隆平台,称为 GoldenBraid 2.0 (GB2.0)。GB2.0 依赖于两种类型 II 限制酶,它们在连续的克隆步骤中交替使用,以构建越来越复杂的遗传构建体。在这里,我们将描述如何使用 GB2.0 进行合成装配 DNA 克隆,通过组装二元 LexA/LexA-Op 过表达系统的两个组件、一个硫酸葡聚糖胺可选择的 LexA 转录激活子质粒和一个博来霉素 S 可选择的 LexA-Op 应答子质粒,来构建这样的复杂质粒。我们通过包括共注射后获得的表达模式,以及随后使用硫酸葡聚糖胺和博来霉素 S 进行共选择,从而导致两个质粒的共转染,证明了这些质粒的功能。我们提供了如何获得、适应和克隆 DNA 部分用于合成装配克隆的方案,包括从头合成或 PCR 扩增所需 DNA 部分后,以及如何将这些 DNA 部分组装成多部分转录单元,然后如何进一步将多个转录单元组装成越来越复杂的遗传构建体,以进行多重转基因选择和反选择,或使用果蝇进行任何其他遗传策略。我们提出的方案可以很容易地适应于包含任何六个可选择和可反选择标记物,或任何其他标记物,以生成用于各种遗传应用的具有无与伦比复杂性的质粒。一篇关于如何使用这些合成组装的质粒生成转基因动物的方案在一篇配套的 Current Protocols 文章中进行了描述(Venken、Matinyan、Gonzalez 和 Dierick,2023)。2023 年威立出版社。基础方案 1:用于合成装配 DNA 克隆的从头合成 DNA 部分的获取和克隆基础方案 2:用于合成装配 DNA 克隆的从现有 DNA 资源扩增的 DNA 部分的获取和克隆备选方案:用于合成装配 DNA 克隆的从现有 DNA 资源扩增的 DNA 部分的获取、适应和克隆基础方案 3:将单个 DNA 部分合成装配到多部分转录单元中基础方案 4:将多个转录单元合成装配到越来越复杂的遗传构建体中。

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