Effect of leaf type and pesticide exposure on abundance of bacterial taxa in mosquito larval habitats

Lentic freshwater systems including those inhabited by aquatic stages of mosquitoes derive most of their carbon inputs from terrestrial organic matter mainly leaf litter. The leaf litter is colonized by microbial communities that provide the resource base for mosquito larvae. While the microbial bio...

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Veröffentlicht in:PloS one 2013-08, Vol.8 (8), p.e71812
Hauptverfasser: Muturi, Ephantus J, Orindi, Benedict O, Kim, Chang-Hyun
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Orindi, Benedict O
Kim, Chang-Hyun
description Lentic freshwater systems including those inhabited by aquatic stages of mosquitoes derive most of their carbon inputs from terrestrial organic matter mainly leaf litter. The leaf litter is colonized by microbial communities that provide the resource base for mosquito larvae. While the microbial biomass associated with different leaf species in container aquatic habitats is well documented, the taxonomic composition of these microbes and their response to common environmental stressors is poorly understood. We used indoor aquatic microcosms to determine the abundances of major taxonomic groups of bacteria in leaf litters from seven plant species and their responses to low concentrations of four pesticides with different modes of action on the target organisms; permethrin, malathion, atrazine and glyphosate. We tested the hypotheses that leaf species support different quantities of major taxonomic groups of bacteria and that exposure to pesticides at environmentally relevant concentrations alters bacterial abundance and community structure in mosquito larval habitats. We found support for both hypotheses suggesting that leaf litter identity and chemical contamination may alter the quality and quantity of mosquito food base (microbial communities) in larval habitats. The effect of pesticides on microbial communities varied significantly among leaf types, suggesting that the impact of pesticides on natural microbial communities may be highly complex and difficult to predict. Collectively, these findings demonstrate the potential for detritus composition within mosquito larval habitats and exposure to pesticides to influence the quality of mosquito larval habitats.
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The leaf litter is colonized by microbial communities that provide the resource base for mosquito larvae. While the microbial biomass associated with different leaf species in container aquatic habitats is well documented, the taxonomic composition of these microbes and their response to common environmental stressors is poorly understood. We used indoor aquatic microcosms to determine the abundances of major taxonomic groups of bacteria in leaf litters from seven plant species and their responses to low concentrations of four pesticides with different modes of action on the target organisms; permethrin, malathion, atrazine and glyphosate. We tested the hypotheses that leaf species support different quantities of major taxonomic groups of bacteria and that exposure to pesticides at environmentally relevant concentrations alters bacterial abundance and community structure in mosquito larval habitats. We found support for both hypotheses suggesting that leaf litter identity and chemical contamination may alter the quality and quantity of mosquito food base (microbial communities) in larval habitats. The effect of pesticides on microbial communities varied significantly among leaf types, suggesting that the impact of pesticides on natural microbial communities may be highly complex and difficult to predict. 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We found support for both hypotheses suggesting that leaf litter identity and chemical contamination may alter the quality and quantity of mosquito food base (microbial communities) in larval habitats. The effect of pesticides on microbial communities varied significantly among leaf types, suggesting that the impact of pesticides on natural microbial communities may be highly complex and difficult to predict. Collectively, these findings demonstrate the potential for detritus composition within mosquito larval habitats and exposure to pesticides to influence the quality of mosquito larval habitats.</abstract><cop>United States</cop><pub>Public Library of Science</pub><pmid>23940789</pmid><doi>10.1371/journal.pone.0071812</doi><tpages>e71812</tpages><oa>free_for_read</oa></addata></record>
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subjects Abundance
Agriculture
Agrochemicals
Animals
Aquatic habitats
Aquatic insects
Atrazine
Bacteria
Bacteria - classification
Bacteria - drug effects
Bacterial Load
Biology
Chemical contamination
Chemical pollution
Community structure
Containers
Culicidae
Culicidae - drug effects
Culicidae - growth & development
Culicidae - microbiology
Deoxyribonucleic acid
Detritus
DNA
Ecosystem
Ecosystems
Environmental Exposure
Environmental stress
Exposure
Flowers & plants
Food contamination
Glyphosate
Habitats
Herbicides
Hypotheses
Indoor environments
Insecticides
Larva - drug effects
Larva - microbiology
Larvae
Leaf litter
Leaves
Low concentrations
Malathion
Microbial activity
Microbiota - drug effects
Microcosms
Microorganisms
Mosquitoes
Organic matter
Permethrin
Pesticides
Pesticides - toxicity
Plant Leaves - classification
Plant Leaves - drug effects
Species
Taxa
Taxonomy
Terrestrial environments
Tropical diseases
title Effect of leaf type and pesticide exposure on abundance of bacterial taxa in mosquito larval habitats
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