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• W3155291364 abstract "Enteric viruses (EVs) are the largest contributors to foodborne illnesses and outbreaks globally. Their ability to persist in the environment, coupled with the challenges experienced in environmental monitoring, creates a critical aperture through which agricultural crops may become contaminated. This study involved a 17-month investigation of select human EVs and viral indicators in nontraditional irrigation water sources (surface and reclaimed waters) in the Mid-Atlantic region of the United States. Real-time quantitative PCR was used for detection of Aichi virus, hepatitis A virus, and norovirus genotypes I and II (GI and GII, respectively). Pepper mild mottle virus (PMMoV), a common viral indicator of human fecal contamination, was also evaluated, along with atmospheric (air and water temperature, cloud cover, and precipitation 24 h, 7 days, and 14 days prior to sample collection) and physicochemical (dissolved oxygen, pH, salinity, and turbidity) data, to determine whether there were any associations between EVs and measured parameters. EVs were detected more frequently in reclaimed waters (32% [n = 22]) than in surface waters (4% [n = 49]), similar to PMMoV detection frequency in surface (33% [n = 42]) and reclaimed (67% [n = 21]) waters. Our data show a significant correlation between EV and PMMoV (R2 = 0.628, P < 0.05) detection levels in reclaimed water samples but not in surface water samples (R2 = 0.476, P = 0.78). Water salinity significantly affected the detection of both EVs and PMMoV (P < 0.05), as demonstrated by logistic regression analyses. These results provide relevant insights into the extent and degree of association between human (pathogenic) EVs and water quality data in Mid-Atlantic surface and reclaimed waters, as potential sources for agricultural irrigation. IMPORTANCE Microbiological analysis of agricultural waters is fundamental to ensure microbial food safety. The highly variable nature of nontraditional sources of irrigation water makes them particularly difficult to test for the presence of viruses. Multiple characteristics influence viral persistence in a water source, as well as affecting the recovery and detection methods that are employed. Testing for a suite of viruses in water samples is often too costly and labor-intensive, making identification of suitable indicators for viral pathogen contamination necessary. The results from this study address two critical data gaps, namely, EV prevalence in surface and reclaimed waters of the Mid-Atlantic region of the United States and subsequent evaluation of physicochemical and atmospheric parameters used to inform the potential for the use of indicators of viral contamination." @default.
• W3155291364 created "2021-04-26" @default.
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• W3155291364 date "2021-06-11" @default.
• W3155291364 modified "2023-09-23" @default.
• W3155291364 title "Enteric Viruses and Pepper Mild Mottle Virus Show Significant Correlation in Select Mid-Atlantic Agricultural Waters" @default.
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• W3155291364 cites W1591115912 @default.
• W3155291364 cites W1667411978 @default.
• W3155291364 cites W1912290849 @default.
• W3155291364 cites W1968401971 @default.
• W3155291364 cites W1979735896 @default.
• W3155291364 cites W1994632990 @default.
• W3155291364 cites W2000466047 @default.
• W3155291364 cites W2002082798 @default.
• W3155291364 cites W2005491290 @default.
• W3155291364 cites W2008895753 @default.
• W3155291364 cites W2009380290 @default.
• W3155291364 cites W2019447028 @default.
• W3155291364 cites W2022091521 @default.
• W3155291364 cites W2033633428 @default.
• W3155291364 cites W2038217404 @default.
• W3155291364 cites W2038487683 @default.
• W3155291364 cites W2046702733 @default.
• W3155291364 cites W2048237985 @default.
• W3155291364 cites W2055821639 @default.
• W3155291364 cites W2064317991 @default.
• W3155291364 cites W2067113479 @default.
• W3155291364 cites W2068799950 @default.
• W3155291364 cites W2072239957 @default.
• W3155291364 cites W2077662249 @default.
• W3155291364 cites W2099952022 @default.
• W3155291364 cites W2100518740 @default.
• W3155291364 cites W2121774424 @default.
• W3155291364 cites W2124589549 @default.
• W3155291364 cites W2128591134 @default.
• W3155291364 cites W2140459787 @default.
• W3155291364 cites W2148815383 @default.
• W3155291364 cites W2149526186 @default.
• W3155291364 cites W2151575975 @default.
• W3155291364 cites W2157226406 @default.
• W3155291364 cites W2157892425 @default.
• W3155291364 cites W2161924689 @default.
• W3155291364 cites W2163875422 @default.
• W3155291364 cites W2164509158 @default.
• W3155291364 cites W2165219103 @default.
• W3155291364 cites W2168785369 @default.
• W3155291364 cites W2172028517 @default.
• W3155291364 cites W2186140012 @default.
• W3155291364 cites W2203431037 @default.
• W3155291364 cites W2216734852 @default.
• W3155291364 cites W2474639112 @default.
• W3155291364 cites W2502632873 @default.
• W3155291364 cites W2568738222 @default.
• W3155291364 cites W2582543953 @default.
• W3155291364 cites W2749635630 @default.
• W3155291364 cites W2760965019 @default.
• W3155291364 cites W2766535018 @default.
• W3155291364 cites W2801943051 @default.
• W3155291364 cites W2890937965 @default.
• W3155291364 cites W2908506753 @default.
• W3155291364 cites W2913803326 @default.
• W3155291364 cites W2950493703 @default.
• W3155291364 cites W2953682045 @default.
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• W3155291364 doi "https://doi.org/10.1128/aem.00211-21" @default.
• W3155291364 hasPubMedCentralId "https://www.ncbi.nlm.nih.gov/pmc/articles/8316098" @default.
• W3155291364 hasPubMedId "https://pubmed.ncbi.nlm.nih.gov/33893119" @default.
• W3155291364 hasPublicationYear "2021" @default.
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