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英国居民花园土壤中三唑抗性的公民科学监测。

Citizen Science Surveillance of Triazole-Resistant in United Kingdom Residential Garden Soils.

机构信息

MRC Centre for Global Infectious Disease Analysis, Department of Infectious Disease Epidemiology, Imperial College Londongrid.7445.2, London, UK.

UK Centre for Ecology & Hydrology, Wallingford, UK.

出版信息

Appl Environ Microbiol. 2022 Feb 22;88(4):e0206121. doi: 10.1128/AEM.02061-21. Epub 2022 Jan 5.

Abstract

Compost is an ecological niche for Aspergillus fumigatus due to its role as a decomposer of organic matter and its ability to survive the high temperatures associated with the composting process. Subsequently, composting facilities are associated with high levels of A. fumigatus spores that are aerosolized from compost and cause respiratory illness in workers. In the UK, gardening is an activity enjoyed by individuals of all ages, and it is likely that they are being exposed to A. fumigatus spores when handling commercial compost or compost they have produced themselves. In the present study, 246 citizen scientists collected 509 soil samples from locations in their gardens in the UK, from which were cultured 5,174 A. fumigatus isolates. Of these isolates, 736 (14%) were resistant to tebuconazole: the third most-sprayed triazole fungicide in the UK, which confers cross-resistance to the medical triazoles used to treat A. fumigatus lung infections in humans. These isolates were found to contain the common resistance mechanisms in the A. fumigatus gene TR/L98H or TR/Y121F/T289A, as well as the less common resistance mechanisms TR, TR, TR/Y121F/T289A/S363P/I364V/G448S, and (TR)/Y121F/M172I/T289A/G448S. Regression analyses found that soil samples containing compost were significantly more likely to grow tebuconazole-susceptible and tebuconazole-resistant A. fumigatus strains than those that did not and that compost samples grew significantly higher numbers of A. fumigatus than other samples. The findings presented here highlight compost as a potential health hazard to individuals with predisposing factors to A. fumigatus lung infections and as a potential health hazard to immunocompetent individuals who could be exposed to sufficiently high numbers of spores to develop infection. Furthermore, we found that 14% of A. fumigatus isolates in garden soils were resistant to an agricultural triazole, which confers cross-resistance to medical triazoles used to treat A. fumigatus lung infections. This raises the question of whether compost bags should carry additional health warnings regarding inhalation of A. fumigatus spores, whether individuals should be advised to wear facemasks while handling compost, or whether commercial producers should be responsible for sterilizing compost before shipping. The findings support increasing public awareness of the hazard posed by compost and investigating measures that can be taken to reduce the exposure risk.

摘要

堆肥是烟曲霉的生态位,因为它是有机物质的分解者,并且能够在与堆肥过程相关的高温下存活。因此,堆肥设施中含有高浓度的烟曲霉孢子,这些孢子会从堆肥中气溶胶化,导致工人患上呼吸道疾病。在英国,园艺是各个年龄段的人都喜欢的活动,他们在处理商业堆肥或自己制作的堆肥时,很可能会接触到烟曲霉孢子。在本研究中,246 名公民科学家从英国花园的不同地点采集了 509 个土壤样本,从中培养出了 5174 株烟曲霉分离株。在这些分离株中,有 736 株(14%)对特比萘芬具有抗性:特比萘芬是英国第三大喷雾三唑类杀菌剂,它与用于治疗人类烟曲霉肺部感染的医学三唑类药物具有交叉抗性。这些分离株含有烟曲霉基因 TR/L98H 或 TR/Y121F/T289A 中的常见耐药机制,以及不太常见的耐药机制 TR、TR、TR/Y121F/T289A/S363P/I364V/G448S 和(TR)/Y121F/M172I/T289A/G448S。回归分析发现,含有堆肥的土壤样本比不含堆肥的土壤样本更有可能生长特比萘芬敏感和特比萘芬耐药的烟曲霉菌株,而堆肥样本生长的烟曲霉数量明显高于其他样本。本研究结果强调了堆肥作为一种潜在健康危害物,对有烟曲霉肺部感染易感因素的个体以及可能接触到足够高数量孢子以引发感染的免疫功能正常的个体构成威胁。此外,我们发现花园土壤中的 14%烟曲霉分离株对农用三唑类药物具有抗性,这使其对用于治疗烟曲霉肺部感染的医学三唑类药物具有交叉抗性。这就提出了一个问题,即堆肥袋是否应该增加关于吸入烟曲霉孢子的健康警告,是否应该建议个人在处理堆肥时佩戴口罩,或者商业生产者是否应该负责在运输前对堆肥进行消毒。这些发现支持提高公众对堆肥危害的认识,并研究可以采取哪些措施来降低暴露风险。

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