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用于微生物鉴定和表征的焦磷酸测序法。

Pyrosequencing for microbial identification and characterization.

作者信息

Cummings Patrick J, Ahmed Ray, Durocher Jeffrey A, Jessen Adam, Vardi Tamar, Obom Kristina M

机构信息

Center for Biotechnology Education, Krieger School of Arts and Sciences, Johns Hopkins University, USA.

出版信息

J Vis Exp. 2013 Aug 22(78):e50405. doi: 10.3791/50405.

Abstract

Pyrosequencing is a versatile technique that facilitates microbial genome sequencing that can be used to identify bacterial species, discriminate bacterial strains and detect genetic mutations that confer resistance to anti-microbial agents. The advantages of pyrosequencing for microbiology applications include rapid and reliable high-throughput screening and accurate identification of microbes and microbial genome mutations. Pyrosequencing involves sequencing of DNA by synthesizing the complementary strand a single base at a time, while determining the specific nucleotide being incorporated during the synthesis reaction. The reaction occurs on immobilized single stranded template DNA where the four deoxyribonucleotides (dNTP) are added sequentially and the unincorporated dNTPs are enzymatically degraded before addition of the next dNTP to the synthesis reaction. Detection of the specific base incorporated into the template is monitored by generation of chemiluminescent signals. The order of dNTPs that produce the chemiluminescent signals determines the DNA sequence of the template. The real-time sequencing capability of pyrosequencing technology enables rapid microbial identification in a single assay. In addition, the pyrosequencing instrument, can analyze the full genetic diversity of anti-microbial drug resistance, including typing of SNPs, point mutations, insertions, and deletions, as well as quantification of multiple gene copies that may occur in some anti-microbial resistance patterns.

摘要

焦磷酸测序是一种通用技术,有助于微生物基因组测序,可用于鉴定细菌种类、区分细菌菌株以及检测赋予抗微生物药物抗性的基因突变。焦磷酸测序在微生物学应用中的优势包括快速可靠的高通量筛选以及对微生物和微生物基因组突变的准确鉴定。焦磷酸测序通过一次合成一个碱基的互补链来对DNA进行测序,同时确定合成反应过程中掺入的特定核苷酸。反应在固定的单链模板DNA上发生,四种脱氧核糖核苷酸(dNTP)依次添加,未掺入的dNTP在添加到下一个合成反应的dNTP之前被酶促降解。通过产生化学发光信号监测掺入模板中的特定碱基的检测。产生化学发光信号的dNTP顺序决定了模板的DNA序列。焦磷酸测序技术的实时测序能力使得能够在一次检测中快速鉴定微生物。此外,焦磷酸测序仪可以分析抗微生物药物抗性的全基因多样性,包括单核苷酸多态性(SNP)分型、点突变、插入和缺失,以及某些抗微生物抗性模式中可能出现的多个基因拷贝的定量。

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