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携带碳青霉烯酶的 410 型序列:对 多药耐药性的范式转变。

sequence type 410 with carbapenemases: a paradigm shift within toward multidrug resistance.

机构信息

Cummings School of Medicine, Calcary, Alberta, Canada.

University of Calgary, Alberta Precision Laboratories, Calgary, Alberta, Canada.

出版信息

Antimicrob Agents Chemother. 2024 Feb 7;68(2):e0133923. doi: 10.1128/aac.01339-23. Epub 2024 Jan 9.

Abstract

sequence type ST410 is an emerging carbapenemase-producing multidrug-resistant (MDR) high-risk One-Health clone with the potential to significantly increase carbapenem resistance among . ST410 belongs to two clades (ST410-A and ST410-B) and three subclades (ST410-B1, ST410-B2, and ST410-B3). After a switch between clades ST410-A and ST410-B1, ST410-B2 and ST410-B3 subclades showed a stepwise progression toward developing MDR. (i) ST410-B2 initially acquired fluoroquinolone resistance (via homologous recombination) in the 1980s. (ii) ST410-B2 then obtained CMY-2, CTX-M-15, and OXA-181 genes on different plasmid platforms during the 1990s. (iii) This was followed by the chromosomal integration of , YRIN insertion, and ompC/ompF mutations during the 2000s to create the ST410-B3 subclade. (iv) An IncF plasmid "replacement" scenario happened when ST410-B2 transformed into ST410-B3: F36:31:A4:B1 plasmids were replaced by F1:A1:B49 plasmids (both containing ) followed by incorporation during the 2010s. User-friendly cost-effective methods for the rapid identification of ST410 isolates and clades are needed because limited data are available about the frequencies and global distribution of ST410 clades. Basic mechanistic, evolutionary, surveillance, and clinical studies are urgently required to investigate the success of ST410 (including the ability to acquire successive MDR determinants). Such information will aid with management and prevention strategies to curb the spread of carbapenem-resistant . The medical community can ill afford to ignore the spread of a global clone with the potential to end the carbapenem era.

摘要

ST410 型是一种新兴的碳青霉烯酶产生的多药耐药(MDR)高风险的“One-Health”克隆,有可能显著增加 中的碳青霉烯类耐药性。ST410 属于两个分支(ST410-A 和 ST410-B)和三个亚分支(ST410-B1、ST410-B2 和 ST410-B3)。在 clade ST410-A 和 ST410-B1 之间发生基因转换后,ST410-B2 和 ST410-B3 亚分支逐渐发展为 MDR。(i)ST410-B2 最初在 20 世纪 80 年代通过同源重组获得氟喹诺酮类耐药性。(ii)ST410-B2 随后在 20 世纪 90 年代从不同的质粒平台获得了 CMY-2、CTX-M-15 和 OXA-181 基因。(iii)随后在 21 世纪 00 年代,通过染色体整合 、YRIN 插入和 ompC/ompF 突变,创建了 ST410-B3 亚分支。(iv)当 ST410-B2 转化为 ST410-B3 时,发生了 IncF 质粒“替换”情景:F36:31:A4:B1 质粒被 F1:A1:B49 质粒(均包含 )替换,随后在 21 世纪 10 年代整合。由于 ST410 分支的频率和全球分布数据有限,因此需要快速鉴定 ST410 分离株和分支的用户友好且具有成本效益的方法。迫切需要进行基本的机制、进化、监测和临床研究,以调查 ST410 的成功(包括获得连续 MDR 决定因素的能力)。这些信息将有助于管理和预防策略,以遏制耐碳青霉烯类 的传播。医学界不能忽视一种具有潜在能力终结碳青霉烯类时代的全球 克隆的传播。

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