Boang Liu , Chiho Mashimo , Takayuki Nambu , Hugo Maruyama , Toshinori Okinaga
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引用次数: 0
摘要
目的齿槽菌属正在成为与口腔健康相关的重要细菌,其中齿槽菌是最普遍的种类之一。然而,目前还缺乏从基因层面研究这些特性的研究。本研究的目的是为牙关紧闭杆菌建立一个基因改造平台。方法从健康志愿者的唾液样本中分离出牙关紧闭杆菌。随后,通过菌落形态学、物种特异性聚合酶链式反应(PCR)和 16S 核糖体 RNA 基因测序鉴定出牙关紧闭杆菌菌株。然后用质粒 pJRD215 对鉴定出的菌株进行转化,选出效率最高的菌株。结果 发现了一株转化能力很强的菌株,命名为 R. dentocariosa LX16。对该菌株进行了转座子插入诱变,并筛选出了抗 5-氟乳清酸的转座子。使用任意引物 PCR、基因特异性 PCR 和 Sanger 测序对插入位点进行了确认。在基因水平上研究 R. dentocariosa 可以深入了解其在口腔微生物组中的作用。
Rothia spp. are emerging as significant bacteria associated with oral health, with Rothia dentocariosa being one of the most prevalent species. However, there is a lack of studies examining these properties at the genetic level. This study aimed to establish a genetic modification platform for R. dentocariosa.
Methods
Rothia spp. were isolated from saliva samples collected from healthy volunteers. Subsequently, R. dentocariosa strains were identified through colony morphology, species-specific polymerase chain reaction (PCR), and 16S ribosomal RNA gene sequencing. The identified strains were then transformed with plasmid pJRD215, and the most efficient strain was selected. Transposon insertion mutagenesis was performed to investigate the possibility of genetic modifications.
Results
A strain demonstrating high transforming ability, designated as R. dentocariosa LX16, was identified. This strain underwent transposon insertion mutagenesis and was screened for 5-fluoroorotic acid-resistant transposants. The insertion sites were confirmed using arbitrary primed PCR, gene-specific PCR, and Sanger sequencing.
Conclusion
This study marks the first successful genetic modification of R. dentocariosa. Investigating R. dentocariosa at the genetic level can provide insights into its role within the oral microbiome.