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The response of soil and phyllosphere microbial communities to repeated application of the fungicide iprodione: Accelerated biodegradation or toxicity?

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Auteur
Katsoula A., Vasileiadis S., Sapountzi M., Karpouzas D.G.
Date
2020
Language
en
DOI
10.1093/femsec/fiaa056
Sujet
biodegradation
community composition
community response
fungicide
fungus
microbial activity
microbial community
phyllosphere
soil microorganism
soil-vegetation interaction
toxicity
Archaea
Bacteria (microorganisms)
5 amino 4 imidazolecarboxamide
fungicide
hydantoin derivative
iprodione
microbiology
microflora
phylogeny
soil
Aminoimidazole Carboxamide
Fungicides, Industrial
Hydantoins
Microbiota
Phylogeny
Soil
Soil Microbiology
Oxford University Press
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Résumé
Pesticides interact with microorganisms in various ways with the outcome being negative or positive for the soil microbiota. Pesticides' effects on soil microorganisms have been studied extensively in soil but not in other pesticides-exposed microbial habitats like the phyllosphere. We tested the hypothesis that soil and phyllosphere support distinct microbial communities, but exhibit a similar response (accelerated biodegradation or toxicity) to repeated exposure to the fungicide iprodione. Pepper plants received four repeated foliage or soil applications of iprodione, which accelerated its degradation in soil (DT50-1st = 1.23 and DT50-4th = 0.48 days) and on plant leaves (DT50-1st > 365 and DT50-4th = 5.95 days). The composition of the epiphytic and soil bacterial and fungal communities, determined by amplicon sequencing, was significantly altered by iprodione. The archaeal epiphytic and soil communities responded differently; the former showed no response to iprodione. Three iprodione-degrading Paenarthrobacter strains were isolated from soil and phyllosphere. They hydrolyzed iprodione to 3,5-dichloraniline via the formation of 3,5-dichlorophenyl-carboxiamide and 3,5-dichlorophenylurea-acetate, a pathway shared by other soil-derived arthrobacters implying a phylogenetic specialization in iprodione biotransformation. Our results suggest that iprodione-repeated application could affect soil and epiphytic microbial communities with implications for the homeostasis of the plant-soil system and agricultural production. © 2020 FEMS 2020.
URI
http://hdl.handle.net/11615/74655
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  • Δημοσιεύσεις σε περιοδικά, συνέδρια, κεφάλαια βιβλίων κλπ. [19743]
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