Yibar Artun, Saticioglu Izzet B, Ajmi Nihed, Duman Muhammed
Department of Food Hygiene and Technology, Faculty of Veterinary Medicine, Bursa Uludag University, Bursa 16059, Turkey.
Department of Aquatic Animal Disease, Faculty of Veterinary Medicine, Bursa Uludag University, Bursa 16059, Turkey.
Pathogens. 2024 Jun 24;13(7):532. doi: 10.3390/pathogens13070532.
Our study focused exclusively on analyzing () contamination in fresh raw mussels and ready-to-eat (RTE) stuffed mussels obtained from authorized and regulated facilities. However, it is critical to recognize that such contamination represents a significant public health threat in regions where unauthorized harvesting and sales practices are prevalent. This study aimed to comprehensively assess the prevalence, molecular characteristics, and antibacterial resistance profiles of in fresh raw mussels and RTE stuffed mussels. counts in fresh raw mussel samples ranged from 1 to 2.89 log CFU/g before cooking, with a significant reduction observed post-cooking. RTE stuffed mussel samples predominantly exhibited negligible presence (<1 log CFU/g). A phylogenetic analysis revealed a dominance of phylogroup A, with variations in the distribution observed across different sampling months. Antibacterial resistance was prevalent among the isolates, notably showing resistance to ampicillin, streptomycin, and cefotaxime. Extended-spectrum β-lactamase () production was rare, with only one positive isolate detected. A variety of antibacterial resistance genes, including and , were identified among the isolates. Notably, virulence factor genes associated with pathogenicity were absent. In light of these findings, it is imperative to maintain rigorous compliance with quality and safety standards at all stages of the mussel production process, encompassing harvesting, processing, cooking, and consumption. Continuous monitoring, implementation of rigorous hygiene protocols, and responsible antibacterial drug use are crucial measures in mitigating food safety risks and combating antibacterial resistance. Stakeholders, including seafood industry players, regulatory agencies, and healthcare professionals, are essential to ensure effective risk mitigation and safeguard public health in the context of seafood consumption.
我们的研究专门聚焦于分析从经授权和规范的设施获取的新鲜生贻贝以及即食(RTE)酿贻贝中的()污染情况。然而,必须认识到,在未经授权的捕捞和销售行为盛行的地区,这种污染对公众健康构成了重大威胁。本研究旨在全面评估新鲜生贻贝和RTE酿贻贝中()的流行情况、分子特征及抗菌耐药性谱。新鲜生贻贝样本在烹饪前的()计数范围为1至2.89 log CFU/g,烹饪后显著减少。RTE酿贻贝样本中()的存在大多可忽略不计(<1 log CFU/g)。系统发育分析显示A菌群占主导,不同采样月份的分布存在差异。抗菌耐药性在()分离株中普遍存在,尤其对氨苄青霉素、链霉素和头孢噻肟耐药。超广谱β-内酰胺酶()的产生很少见,仅检测到一株阳性分离株。在分离株中鉴定出多种抗菌耐药基因,包括()和()。值得注意的是,不存在与致病性相关的毒力因子基因。鉴于这些发现,在贻贝生产过程的各个阶段,包括捕捞、加工、烹饪和消费,必须严格遵守质量和安全标准。持续监测、实施严格的卫生规程以及合理使用抗菌药物是降低食品安全风险和对抗抗菌耐药性的关键措施。包括海产品行业参与者、监管机构和医疗专业人员在内的利益相关者对于确保有效降低风险以及在海产品消费背景下保障公众健康至关重要。