Soltysiak Maximillian P M, Ory Audrey L H, Lee Andrew D, Christophersen Caroline E, Jalihal Amogh P, Springer Michael
Department of Systems Biology, Harvard Medical School, Boston, Massachusetts 02115, United States.
Broad Institute of Massachusetts Institute of Technology and Harvard University, Cambridge, Massachusetts 02142, United States.
ACS Synth Biol. 2025 Apr 18;14(4):1173-1190. doi: 10.1021/acssynbio.4c00806. Epub 2025 Mar 13.
Interest in species is increasing due to their unique metabolic capabilities. They can grow in both heterotrophic and fully autotrophic environments, including carbon dioxide, dinitrogen gas, and hydrogen as the sole carbon, nitrogen, and energy sources, respectively. Academic and industrial groups looking to leverage these metabolic properties are already using strains for the sustainable production of food and commodities. However, only a handful of genetic parts and protocols exist in scattered genetic backgrounds, and there is an unmet need for reliable genetic engineering tools to manipulate species. Here, we developed XanthoMoClo, a robust modular cloning genetic toolkit for and species and strains, providing extensive tools to transform them, manipulate their metabolism, and express genes of interest. The toolkit contains plasmid parts, such as replication origins, antibiotic selection markers, fluorescent proteins, constitutive and inducible promoters, a standardized framework to incorporate novel components into the toolkit, and a conjugation donor to transform and strains easily with no or minimal optimization. We validated these plasmid components in depth in three of the most commonly studied strains: Py2, GZ29, and GJ10, as well as in VTT E-85241. Finally, we demonstrate robust toolkit functionality across 21 different species of and , comprising 23 strains in total. The XanthoMoClo genetic toolkit is available to the research community (through AddGene) and will help accelerate the genetic engineering of to further their applications in sustainability and bioremediation efforts.
由于其独特的代谢能力,人们对[物种名称]的兴趣与日俱增。它们能够在异养和完全自养环境中生长,分别以二氧化碳、氮气和氢气作为唯一的碳源、氮源和能源。希望利用这些代谢特性的学术和工业团体已经在使用[菌株名称]菌株进行食品和商品的可持续生产。然而,在分散的遗传背景中仅存在少数遗传元件和方案,并且迫切需要可靠的基因工程工具来操纵[物种名称]。在此,我们开发了XanthoMoClo,这是一种用于[物种名称]和[菌株名称]的强大模块化克隆遗传工具包,提供了广泛的工具来转化它们、操纵其代谢并表达感兴趣的基因。该工具包包含质粒元件,如复制起点、抗生素选择标记、荧光蛋白、组成型和诱导型启动子、将新元件纳入工具包的标准化框架,以及一个接合供体,无需或只需最少优化即可轻松转化[物种名称]和[菌株名称]菌株。我们在三种最常研究的[菌株名称]菌株:[菌株名称1] Py2、[菌株名称2] GZ29和[菌株名称3] GJ10,以及[菌株名称4] VTT E - 85241中对这些质粒元件进行了深入验证。最后,我们在总共23株的21种不同的[物种名称]和[菌株名称]中展示了该工具包的强大功能。XanthoMoClo遗传工具包可供研究界使用(通过AddGene),并将有助于加速[物种名称]的基因工程,以进一步推动其在可持续性和生物修复工作中的应用。