在 5.1 厘米(2 英寸)或更低的深度冷却无盖食品,病原体滋生的风险很小。

IF 2.1 4区 农林科学 Q3 BIOTECHNOLOGY & APPLIED MICROBIOLOGY
Nicklaus Koreen , W. Clifton Baldwin , Donald W. Schaffner
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引用次数: 0

摘要

美国食品和药物管理局制定了零售店冷却熟食的指导原则。有关餐馆食源性疾病风险因素的数据表明,冷却工作往往不符合这些指导原则。我们试图找出在经营者控制范围内对熟食冷却率有重大影响的因素。明尼苏达州明尼阿波利斯市卫生检查员接受了冷却数据收集标准化操作程序的培训。数据记录仪设置为适当的时间间隔,并校准为 ± 0.5 °C (∼ 1 °F),用于收集数据。分析使用 R 统计计算语言 4.2.2 版进行。使用已有的病原体模型预测产气荚膜梭菌或蜡样芽孢杆菌的对数 CFU 增长。检查员在 2018 年 10 月至 2019 年 10 月期间记录了 224 份食谱的数据。食物深度对冷却速度有非常显著的影响(p = 8.90E-08)。使用冰浴或冰棒也有显著影响(p < 0.005)。容器材料(金属或塑料)与食物深度之间有明显的相关性,因为深度较大的食物通常是用塑料容器冷却的。深度超过 5.1 厘米(2 英寸)、冷却速度超过 0.23 log(℃)/h 的食品通常全部或部分在鼓风冷却器或冷冻箱中冷却,使用冰浴或冰棒(或两者兼用)冷却,或由蛋白质块(如鸡翅)组成,由于食品中存在空气间隙,因此冷却速度更快。食物深度小于或等于 ∼ 5.1 厘米(2 英寸)的浅容器中的食物,冷却速度慢于 0.23 log(°C)/h,其冷却温度高于 5 °C (41°F),或部分或全部被覆盖。从预测模型来看,这些食物也几乎没有病原体生长的迹象。我们的分析表明,在食物深度小于或等于 ∼5.1 厘米(2 英寸)的浅容器中冷却食物,几乎不会造成病原体大量滋生。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Cooling Uncovered Foods at a Depth of ∼5.1 cm (2 in.) or Less Poses Little Risk of Pathogen Growth

The U.S. Food and Drug Administration has guidelines for cooling cooked foods in retail operations. Data on foodborne illness risk factors in restaurants indicate that cooling is often out of compliance with these guidelines. We sought to identify factors under the control of the operator that had a significant effect on the cooling rates of cooked foods. Minneapolis Minnesota Health Inspectors were trained in standardized operating procedures for cooling data collection. Data loggers set to appropriate time intervals and calibrated to ±0.5 °C (∼1°F) were used in data collection. Analysis was performed using the R statistical computing language version 4.2.2. Preexisting pathogen models were used to predict Log CFU increases of Clostridium perfringens or Bacillus cereus. Data from 224 recipes were recorded by inspectors between October 2018 and October 2019. Food depth had a highly significant effect (p = 8.90E−08) on cooling rate. The use of an ice bath or ice wand was also significant (p < 0.005). There was a significant correlation between container material (metal or plastic) and food depth because foods with a greater depth are often being cooled in plastic containers. Foods at a depth greater than 5.1 cm (2 in.) that cooled faster than 0.23 log(°C)/h were often wholly or partially cooled in blast chillers or freezers, cooled using an ice bath or ice wand (or both), or were composed of protein pieces (e.g., chicken wings) that facilitated more rapid cooling due to air gaps in the food. Foods in shallow containers at a food depth of less than or equal to ∼5.1 cm (2 in.) that cooled more slowly than 0.23 log(°C)/h were being cooled at temperatures greater than 5 °C (41°F) or were partially or wholly covered. These foods also showed little evidence of pathogen growth from predictive models. Our analysis shows that cooling foods in shallow containers at a food depth of less than or equal to ∼5.1 cm (2 in.) poses little risk of significant pathogen growth.

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来源期刊
Journal of food protection
Journal of food protection 工程技术-生物工程与应用微生物
CiteScore
4.20
自引率
5.00%
发文量
296
审稿时长
2.5 months
期刊介绍: The Journal of Food Protection® (JFP) is an international, monthly scientific journal in the English language published by the International Association for Food Protection (IAFP). JFP publishes research and review articles on all aspects of food protection and safety. Major emphases of JFP are placed on studies dealing with: Tracking, detecting (including traditional, molecular, and real-time), inactivating, and controlling food-related hazards, including microorganisms (including antibiotic resistance), microbial (mycotoxins, seafood toxins) and non-microbial toxins (heavy metals, pesticides, veterinary drug residues, migrants from food packaging, and processing contaminants), allergens and pests (insects, rodents) in human food, pet food and animal feed throughout the food chain; Microbiological food quality and traditional/novel methods to assay microbiological food quality; Prevention of food-related hazards and food spoilage through food preservatives and thermal/non-thermal processes, including process validation; Food fermentations and food-related probiotics; Safe food handling practices during pre-harvest, harvest, post-harvest, distribution and consumption, including food safety education for retailers, foodservice, and consumers; Risk assessments for food-related hazards; Economic impact of food-related hazards, foodborne illness, food loss, food spoilage, and adulterated foods; Food fraud, food authentication, food defense, and foodborne disease outbreak investigations.
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