Lv Chao, Leng Jun, Qian Minjian, Sun Bingqing, Ye HuiPing, Li Min, Zhou Nan, Cheng Zile, Chen Yiwen, Guo Xiaokui, Shang Jun, Zhang Li, Zhu Yongzhang
School of Global Health, Chinese Center for Tropical Diseases Research, Shanghai Jiao Tong University School of Medicine, Shanghai, China.
National Institute of Parasitic Diseases, Chinese Center for Disease Control and Prevention (Chinese Center for Tropical Diseases Research), National Health Commission Key Laboratory of Parasite and Vector Biology, WHO Collaborating Centre for Tropical Diseases, National Center for International Research on Tropical Diseases, Shanghai, China.
One Health. 2024 Oct 5;19:100910. doi: 10.1016/j.onehlt.2024.100910. eCollection 2024 Dec.
Antimicrobial resistance (AMR) is a significant concern within the One Health framework due to its ability to spread across multiple interfaces. Phenotypic data remains the primary type for AMR surveillance, but exploring association across multiple interfaces poses certain challenges. In this study, AMR phenotypic data of clinical and food animal and from Chongming Island over the past five years were analyzed to determine key characteristics of AMR and explore its association at the human-animal interface. The clinical isolates showed significant resistance to penicillins (83.92 %), cephems (63.05 %), fluoroquinolones (62.21 %), and tetracyclines (57.77 %), while exhibited high resistance to penicillinase-labile penicillins (90.89 %), macrolides (51.51 %), penicillinase-stable penicillins (43.96 %), and lincosamides (43.55 %). Extended-spectrum β-lactamase (ESBL)-producing isolates accounted for 53.26 % (1398/2526), while methicillin-resistant (MRSA) prevalence was 43.81 % (435/993). Notably, there has been an increase in the proportion of isolates resistant to 8 to 12 antimicrobial classes, and in the proportion of isolates resistant to 5 to 9 classes. Certain multi-drug resistance (MDR) phenotypes were first identified in food animal isolates and later emerged in clinical settings. Meanwhile, several MDR phenotypes were shared between the two interfaces, with 44 identified in and 12 in . Further co-occurrence analysis in and identified several co-occurrence phenotypic pairs or clusters, potentially mediated by a single plasmid or multiple plasmids within a bacterium, indicating potential associations at the human-animal interface. To summarize, a heightened prevalence of MDR in clinical and has been observed, with some MDR profiles appearing in food animals before emerging in clinical settings. The co-occurrence of phenotypic pairs or clusters underscores the potential for AMR association and transmission between humans and food animals. Within the One Health framework, integrating genomic data into AMR monitoring is a crucial next step.
由于抗菌药物耐药性(AMR)能够在多个界面传播,因此它是“同一个健康”框架内的一个重大问题。表型数据仍然是AMR监测的主要类型,但探索多个界面之间的关联存在一定挑战。在本研究中,分析了过去五年崇明岛临床和食用动物的AMR表型数据,以确定AMR的关键特征,并探索其在人畜界面的关联。临床分离株对青霉素(83.92%)、头孢菌素(63.05%)、氟喹诺酮类(62.21%)和四环素(57.77%)表现出显著耐药性,而对不耐青霉素酶的青霉素(90.89%)、大环内酯类(51.51%)、耐青霉素酶的青霉素(43.96%)和林可酰胺类(43.55%)表现出高耐药性。产超广谱β-内酰胺酶(ESBL)的分离株占53.26%(1398/2526),而耐甲氧西林金黄色葡萄球菌(MRSA)的患病率为43.81%(435/993)。值得注意的是,对8至12类抗菌药物耐药的分离株比例以及对5至9类抗菌药物耐药的分离株比例有所增加。某些多重耐药(MDR)表型首先在食用动物分离株中被发现,随后出现在临床环境中。同时,两个界面之间共享了几种MDR表型,在[具体内容1]中鉴定出44种,在[具体内容2]中鉴定出12种。在[具体内容1]和[具体内容2]中进一步的共现分析确定了几个共现表型对或簇,可能由细菌内的单个质粒或多个质粒介导,表明在人畜界面存在潜在关联。总之,在临床[具体内容1]和[具体内容2]中观察到MDR患病率升高,一些MDR谱在出现在临床环境之前先出现在食用动物中。表型对或簇的共现强调了AMR在人和食用动物之间关联和传播的可能性。在“同一个健康”框架内,将基因组数据整合到AMR监测中是至关重要的下一步。