Díaz-Martínez Cristina, Bolívar Araceli, Mercanoglu Taban Birce, Kanca Nazlı, Pérez-Rodríguez Fernando
Department of Food Science and Technology, UIC Zoonosis y Enfermedades Emergentes ENZOEM, ceiA3, Universidad de Córdoba, Córdoba, Spain.
Department of Dairy Technology, Faculty of Agriculture, Veterinary and Agriculture Campus, Ankara University, Ankara, Turkey.
Crit Rev Microbiol. 2024 Oct 15:1-24. doi: 10.1080/1040841X.2024.2412007.
, a resilient bacterium in diverse food conditions, such as refrigeration, reduced water activity and low pH, poses a significant threat to the food industry and public health. In recent years, it has been documented an increase in the antibiotic resistance of zoonotic pathogens, including . This review provides new insight into the molecular mechanisms involved in both intrinsic and acquired antibiotic resistance of with an emphasis on the effect of different environmental and food-related factors. It also explores the relationship of these resistance mechanisms with virulence factors. An analysis of literature data (2009-2021) was conducted to investigate statistically and graphically potential associations between specific antibiotic resistance patterns in the pathogen and food categories using an unbiased variance analysis. The results evidenced that food type had an influence on the antibiotic resistance profiles of , with meat and vegetables being the food categories exhibiting the most prevalent profiles. The frequent detection of resistance to ampicillin, penicillin, and tetracycline (non-intrinsic resistances) indicates that specific processing conditions along the food chain may induce them. Many questions remain about the impact of food chain factors (e.g. thermal treatments, cold chain, preservatives, etc.) and food type (low pH, reduced water activity, etc.) on the antibiotic resistance patterns of the pathogen, particularly concerning food-related sources, the resistance mechanisms involved (e.g. cross-protection, horizontal gene transfer, etc.), and the evolutionary processes of antibiotic-resistant microbial populations. Metagenomics, in addition to other -omics technologies (metabolomics and transcriptomics), allows a better understanding of the processes involved in the acquisition of resistance.
是一种在多种食品条件下具有韧性的细菌,如冷藏、低水分活度和低pH值环境,对食品工业和公众健康构成重大威胁。近年来,有文献记载包括在内的人畜共患病原体的抗生素耐药性有所增加。本综述深入探讨了涉及固有和获得性抗生素耐药性的分子机制,重点关注不同环境和食品相关因素的影响。它还探讨了这些耐药机制与毒力因子之间的关系。通过无偏方差分析对文献数据(2009 - 2021年)进行分析,以统计和图表方式研究病原体中特定抗生素耐药模式与食品类别之间的潜在关联。结果表明,食品类型对的抗生素耐药谱有影响,肉类和蔬菜是耐药谱最为普遍的食品类别。对氨苄青霉素、青霉素和四环素的耐药性(非固有耐药性)频繁检测表明,食物链中的特定加工条件可能会诱导产生这些耐药性。关于食物链因素(如热处理、冷链、防腐剂等)和食品类型(低pH值、低水分活度等)对病原体抗生素耐药模式的影响,仍有许多问题有待解答,特别是涉及食品相关来源、所涉及的耐药机制(如交叉保护、水平基因转移等)以及抗生素耐药微生物群体的进化过程。除其他组学技术(代谢组学和转录组学)外,宏基因组学有助于更好地理解获得耐药性所涉及的过程。