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Different transfer pathways of an organochlorine pesticide across marine tropical food webs assessed with stable isotope analysis

Chlordecone is a persistent organochlorine pesticide used in the banana fields of the French West Indies from 1972 to 1993. Three marine habitats (mangroves, seagrass beds and coral reefs) of two study sites located downstream contaminated rivers were chosen to evaluate the level of contamination of...

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Published in:PloS one 2018-02, Vol.13 (2), p.e0191335-e0191335
Main Authors: Dromard, Charlotte R, Bouchon-Navaro, Yolande, Cordonnier, Sébastien, Guéné, Mathilde, Harmelin-Vivien, Mireille, Bouchon, Claude
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description Chlordecone is a persistent organochlorine pesticide used in the banana fields of the French West Indies from 1972 to 1993. Three marine habitats (mangroves, seagrass beds and coral reefs) of two study sites located downstream contaminated rivers were chosen to evaluate the level of contamination of marine food webs. On each habitat, the food chain collected included suspended organic matter, primary producers (macroalgae, algal turf, seagrass), zooplankton, symbiotic organisms (corals, sea anemones), primary consumers (herbivores, suspension feeders, biofilm feeders), omnivores and detritivores (lobsters, fish), secondary consumers (carnivores 1: invertebrate feeders, planktivores) and tertiary consumers (carnivores 2: invertebrate and fish feeders, piscivores). Log-linear regressions of the concentrations of chlordecone versus nitrogen isotopic ratios (δ15N) were used to assess the bioaccumulation of chlordecone along trophic food webs. At each site, bioconcentration and bioamplification take part on the transfer of chlordecone in marine organisms. In mangroves (i.e. close to the source of pollution), lower trophic magnification factors (TMF) indicated that bioconcentration prevailed over bioamplification phenomenon. The opposite phenomenon appeared on coral reefs in which bioconcentration processes were less important and bioamplification pathway became dominant. Far from the source of pollution, molecules of chlordecone seemed to be transfered to organisms mostly via trophic interactions rather than water contact.
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Three marine habitats (mangroves, seagrass beds and coral reefs) of two study sites located downstream contaminated rivers were chosen to evaluate the level of contamination of marine food webs. On each habitat, the food chain collected included suspended organic matter, primary producers (macroalgae, algal turf, seagrass), zooplankton, symbiotic organisms (corals, sea anemones), primary consumers (herbivores, suspension feeders, biofilm feeders), omnivores and detritivores (lobsters, fish), secondary consumers (carnivores 1: invertebrate feeders, planktivores) and tertiary consumers (carnivores 2: invertebrate and fish feeders, piscivores). Log-linear regressions of the concentrations of chlordecone versus nitrogen isotopic ratios (δ15N) were used to assess the bioaccumulation of chlordecone along trophic food webs. At each site, bioconcentration and bioamplification take part on the transfer of chlordecone in marine organisms. 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subjects Algae
Analysis
Aquatic habitats
Bioaccumulation
Biodiversity and Ecology
Biofilms
Biological magnification
Biology and Life Sciences
Carnivores
Chlordecone
Consumers
Contamination
Coral reefs
Corals
Cyclodiene pesticides
Detritivores
Earth Sciences
Ecology and Environmental Sciences
Engineering and Technology
Environmental aspects
Environmental Sciences
Feeders
Fish
Food chains
Food contamination
Food contamination & poisoning
Food webs
Herbivores
Invertebrates
Lobsters
Mangroves
Marine ecosystems
Marine organisms
Marine pollution
Molecular chains
Omnivores
Organic compounds
Organic matter
Organisms
Organochlorine pesticides
PCB
Pesticides
Physical Sciences
Pollution
Pollution sources
Polybrominated diphenyl ethers
Polychlorinated biphenyls
Properties
Regression analysis
Rivers
Seaweeds
Shellfish
Stable isotopes
Suspended organic matter
Suspension feeders
Trophic relationships
Turf
Water pollution
Zooplankton
title Different transfer pathways of an organochlorine pesticide across marine tropical food webs assessed with stable isotope analysis
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