Mpundu Prudence, Mbewe Allan Rabson, Muma John Bwalya, Mwasinga Wizaso, Mukumbuta Nawa, Munyeme Musso
Ministry of Health, Levy Mwanawasa Medical University, Lusaka 10101, Zambia.
Department of Disease Control, School of Veterinary Medicine, University of Zambia, Lusaka 10101, Zambia.
Vet World. 2021 Aug;14(8):2219-2229. doi: 10.14202/vetworld.2021.2219-2229. Epub 2021 Aug 26.
in ready-to-eat (RTE) foods remains consistently under-reported globally. Nevertheless, several independent studies conducted to investigate have elucidated the prevalence and antibiotic resistance profiles of in RTE-associated foods and their antibiotic resistance profiles. Given the rapid increase in consumption of RTE foods of both animal and plant origin, it is imperative to know the prevalence deductive data focusing on how much of is present in RTE foods, which is critical for food safety managers and retailers to assess the possible risk posed to end-users. In addition, valuable insight and another angle to the depth of the problem, we conducted a systematic review and meta-analysis to synthesize available data regarding the prevalence of in RTE foods and antibiotic resistance profiles.
We conducted a meta-analysis study of and antibiotic resistance to clinically relevant antibiotics to determine the extent of contamination in RTE foods and antibiotic resistance profiles. The primary search terms, also known as keywords used, were restricted to peer-reviewed and review articles, and databases, including Google Scholars, Science-Direct, and Scopus, were searched. The inclusion of articles meeting eligibility criteria published between 2010 and 2020 after title, abstract, and full article screening. Data analysis was performed at multiple stages using quantitative meta-analysis reviews.
pooled proportion/prevalence was highest in chicken products determined at (22%) followed by various but uncategorized RTE foods at 21%. Regarding antibiotic resistance, profiling's highest pooled prevalence resistance was observed in penicillin at 80% resistance, followed by cephalosporin at 47%.
Within its limitations, this study has attempted to provide insight into the pooled proportion/prevalence of in RTE foods and the antibiotic resistance profile at the global level. Determining the proportion/prevalence of in RTE foods across the globe and antibiotic resistance profile is essential for providing quality food and reducing public health problems due to unsuccessful treatment of foodborne illness. This study provides insight into the pooled prevalence of L. monocytogenes in RTE foods and the antibiotic resistance profile. The results of this study partly endeavored to help appropriate authorities strengthen their preventive measures on specific RTE foods that are most likely to be contaminated with and antibiotic resistance profiles.
即食(RTE)食品中[具体物质未明确]的情况在全球范围内一直未得到充分报道。然而,多项独立研究已阐明了RTE相关食品中[具体物质未明确]的流行情况及其抗生素耐药性特征。鉴于动植物源性RTE食品的消费量迅速增加,了解聚焦于RTE食品中[具体物质未明确]含量的推导数据至关重要,这对于食品安全管理人员和零售商评估对最终用户可能构成的风险至关重要。此外,为了从另一个角度深入了解该问题,我们进行了一项系统综述和荟萃分析,以综合有关RTE食品中[具体物质未明确]的流行情况和抗生素耐药性特征的现有数据。
我们对[具体物质未明确]以及对临床相关抗生素的耐药性进行了荟萃分析研究,以确定RTE食品中[具体物质未明确]的污染程度和抗生素耐药性特征。主要检索词,即所使用的关键词,仅限于同行评审和综述文章,并检索了包括谷歌学术、科学Direct和Scopus在内的数据库。在对标题、摘要和全文进行筛选后,纳入2010年至2020年间发表的符合入选标准的文章。使用定量荟萃分析综述在多个阶段进行数据分析。
鸡肉产品中的合并比例/流行率最高,为22%,其次是各类未分类的RTE食品,为21%。关于抗生素耐药性,在青霉素中的耐药性合并流行率最高,为80%,其次是头孢菌素,为47%。
在其局限性范围内,本研究试图深入了解全球范围内RTE食品中[具体物质未明确]的合并比例/流行情况以及抗生素耐药性特征。确定全球范围内RTE食品中[具体物质未明确]的比例/流行情况以及抗生素耐药性特征对于提供优质食品和减少因食源性疾病治疗失败导致的公共卫生问题至关重要。本研究深入了解了RTE食品中单核细胞增生李斯特菌的合并流行情况和抗生素耐药性特征。本研究结果部分致力于帮助相关当局加强对最有可能被[具体物质未明确]和抗生素耐药性特征污染的特定RTE食品的预防措施。