评估 ATP 生物发光法,用于快速确定牲畜拖车在商业清洗后的清洁度

IF 1.3 Q3 AGRICULTURE, DAIRY & ANIMAL SCIENCE
Flavia G Letsch, Michael W Welch, Matthew Meyer, Grant A Hedblom, Eric Parr, D. Classen, Molly Dillard, Dustin D Boler
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引用次数: 0

摘要

摘要 众所周知,猪流行性腹泻病毒 (PEDV)、猪繁殖与呼吸综合征 (PRRSV) 和大肠杆菌等病原体会通过受污染的车辆和设备传播。猪肉生产商已采取拖车清洗政策,对每辆拖车进行清洗、消毒和烘干,然后才能返回农场。牲畜拖车清洗后的清洁度由目测而非任何客观方法决定。许多行业都使用三磷酸腺苷 (ATP) 生物发光技术,通过检测有机来源的 ATP 来实时反馈表面清洁度。同样的技术可以为拖车清洗设施提供一种方法,客观地鉴定牲畜拖车是否适合在清洗后返回农场。我们使用了两种 ATP 发光器(3M Clean-Trace 和 Neogen AccuPoint)来估计 ATP 生物发光读数与采样表面需氧细菌平板计数 (APC) 之间的相关性,并确定牲畜拖车内可准确估计表面清洁度的位置。对牲畜拖车中的五个位置进行了评估。这些位置包括车头检修门 (NAD)、后门冲洗门、后侧检修门 (RSAD)、腹部冲洗门 (BFG) 和腹侧检修门 (BSAD)。两种发光度之间存在正对数关系(r = 0.59,P < 0.01)。一个单位每增加一个对数单位,另一个单位就会增加 0.42 个对数单位(P < 0.01)。ATP 可以来自细菌、酵母菌、霉菌和粪便。APC 与 ATP 发光器之间的关联性较差(r ≥ 0.10,P ≥ 0.02)。不过,相对光单位(RLUs)的增加会导致菌落形成单位的相应增加。用 APC 测得的表面污染面积最大的是 NAD。与 RSAD、BFG 和 BSAD 相比,NAD 的相对光单位也更大(P ≤ 0.01)。由于 APC 和荧光计 RLUs 提供了相似的结果,因此开发了统计过程控制图来确定 RLUs 的控制限。这为拖车清洗工人在确定牲畜拖车清洁度结果时提供了实时反馈。这些数据表明,ATP 生物发光法是监测牲畜拖车清洁效果的可靠方法。生物发光是一种监测工具,应与微生物方法结合使用,以监测清洁和消毒程序。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Evaluation of ATP bioluminescence for rapid determination of cleanliness of livestock trailers after a commercial wash
Abstract Pathogens such as porcine epidemic diarrhea virus (PEDV), porcine reproductive and respiratory syndrome (PRRSV), and E. coli are known to spread by contaminated vehicles and equipment. Pork producers have adopted trailer wash policies where each trailer is washed, disinfected, and dried before it can return to a farm. Cleanliness of livestock trailers after washing is determined by visual inspection rather than any objective method. Adenosine triphosphate (ATP) bioluminescence is used in many industries to provide real-time feedback on surface cleanliness through the detection of ATP from organic sources. That same technology may provide trailer wash facilities a way of objectively characterizing a livestock trailer’s suitability to return to a farm after washing. Two ATP luminometers (3M Clean-Trace and Neogen AccuPoint) were used to estimate the correlation between ATP bioluminescence readings and aerobic bacterial plate counts (APCs) from sampled surfaces and to determine locations within a livestock trailer that can accurately estimate surface cleanliness. Five locations in livestock trailers were evaluated. Those locations included the nose access door (NAD), back door flush gate, rear side access door (RSAD), belly flush gate (BFG), and belly side access door (BSAD). There was a positive log–log association between the two luminometers (r = 0.59, P < 0.01). Every log unit increase in one unit, resulted in a 0.42 log increase (P < 0.01) in the other unit. ATP can come from bacteria, yeasts, molds, and manure. There was a poor association (r ≥ 0.10, P ≥ 0.02) between APCs and the ATP luminometers. Still, an increase in relative light units (RLUs) resulted in a corresponding increase in colony-forming units. The greatest area of surface contamination measured by APC was the NAD. RLUs were also greater in the NAD compared to the RSAD, the BFG, and the BSAD (P ≤ 0.01). Because APCs and luminometer RLUs provided similar outcomes, statistical process control charts were developed to determine control limits for RLUs. This provides real-time feedback to trailer wash workers in determining cleanliness outcomes for livestock trailers. These data suggest that ATP bioluminescence can be a reliable method to monitor cleaning effectiveness in livestock trailers. Bioluminescence is a monitoring tool that should be used in conjunction with microbial methods to monitor procedures for cleaning and disinfection.
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来源期刊
Translational Animal Science
Translational Animal Science Veterinary-Veterinary (all)
CiteScore
2.80
自引率
15.40%
发文量
149
审稿时长
8 weeks
期刊介绍: Translational Animal Science (TAS) is the first open access-open review animal science journal, encompassing a broad scope of research topics in animal science. TAS focuses on translating basic science to innovation, and validation of these innovations by various segments of the allied animal industry. Readers of TAS will typically represent education, industry, and government, including research, teaching, administration, extension, management, quality assurance, product development, and technical services. Those interested in TAS typically include animal breeders, economists, embryologists, engineers, food scientists, geneticists, microbiologists, nutritionists, veterinarians, physiologists, processors, public health professionals, and others with an interest in animal production and applied aspects of animal sciences.
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