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Biological Aerosols: A Review of Airborne Contamination and its Measurement in Dairy Processing Plants.生物气溶胶:乳制品加工厂中空气传播污染及其测量的综述
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Atmospheric chemistry of bioaerosols: heterogeneous and multiphase reactions with atmospheric oxidants and other trace gases.生物气溶胶的大气化学:与大气氧化剂及其他痕量气体的非均相和多相反应。
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Characterization of aerosols containing Legionella generated upon nebulization.雾化产生的含军团菌气溶胶的特性
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Recovery Estimation of Dried Foodborne Pathogens Is Directly Related to Rehydration Kinetics.干态食源性病原体的复苏估计与复水动力学直接相关。
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Maillard Chemistry in Clouds and Aqueous Aerosol As a Source of Atmospheric Humic-Like Substances.云及水相气溶胶中的美拉德化学:大气腐殖质类物质的一个来源。
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The response of foodborne pathogens to osmotic and desiccation stresses in the food chain.食源性病原体对食物链中渗透压和干燥胁迫的响应。
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空气生物学:实验考量、观察结果及未来工具

Aerobiology: Experimental Considerations, Observations, and Future Tools.

作者信息

Haddrell Allen E, Thomas Richard J

机构信息

School of Chemistry, University of Bristol, Bristol, United Kingdom.

Defence Science and Technology Laboratory, Porton Down, Salisbury, Wiltshire, United Kingdom

出版信息

Appl Environ Microbiol. 2017 Aug 17;83(17). doi: 10.1128/AEM.00809-17. Print 2017 Sep 1.

DOI:10.1128/AEM.00809-17
PMID:28667111
原文链接:https://pmc.ncbi.nlm.nih.gov/articles/PMC5561278/
Abstract

Understanding airborne survival and decay of microorganisms is important for a range of public health and biodefense applications, including epidemiological and risk analysis modeling. Techniques for experimental aerosol generation, retention in the aerosol phase, and sampling require careful consideration and understanding so that they are representative of the conditions the bioaerosol would experience in the environment. This review explores the current understanding of atmospheric transport in relation to advances and limitations of aerosol generation, maintenance in the aerosol phase, and sampling techniques. Potential tools for the future are examined at the interface between atmospheric chemistry, aerosol physics, and molecular microbiology where the heterogeneity and variability of aerosols can be explored at the single-droplet and single-microorganism levels within a bioaerosol. The review highlights the importance of method comparison and validation in bioaerosol research and the benefits that the application of novel techniques could bring to increasing the understanding of aerobiological phenomena in diverse research fields, particularly during the progression of atmospheric transport, where complex interdependent physicochemical and biological processes occur within bioaerosol particles.

摘要

了解微生物在空气中的存活和衰减对于一系列公共卫生和生物防御应用至关重要,包括流行病学和风险分析建模。用于实验性气溶胶生成、在气溶胶相中保持以及采样的技术需要仔细考虑和理解,以便它们能够代表生物气溶胶在环境中所经历的条件。本综述探讨了当前对大气传输的理解,以及气溶胶生成、在气溶胶相中维持和采样技术的进展与局限性。在大气化学、气溶胶物理学和分子微生物学的交叉领域研究了未来可能的工具,在这个交叉领域中,可以在生物气溶胶内的单滴和单微生物水平上探索气溶胶的异质性和变异性。该综述强调了生物气溶胶研究中方法比较和验证的重要性,以及应用新技术可能为增进对不同研究领域中空气生物学现象的理解所带来的益处,特别是在大气传输过程中,生物气溶胶颗粒内会发生复杂的相互依存的物理化学和生物学过程。