Agricultural pesticide in sediment cores from the Lac de Saint-André, France


Autoria(s): Sabatier, Pierre; Poulenard, Jérôme; Fanget, Bernard; Reyss, Jean-Louis; Develle, Anne-Lise; Wilhelm, Bruno; Ployon, Estelle; Pignol, Cécile; Naffrechoux, Emmanuel; Dorioz, Jean-Marcel; Montuelle, Bernard; Arnaud, Fabien
Cobertura

LATITUDE: 45.494980 * LONGITUDE: 5.985720 * DATE/TIME START: 2012-12-05T00:00:00 * DATE/TIME END: 2012-12-05T00:00:00

Data(s)

25/09/2014

Resumo

Agricultural pesticide use has increased worldwide during the last several decades, but the long-term fate, storage, and transfer dynamics of pesticides in a changing environment are poorly understood. Many pesticides have been progressively banned, but in numerous cases, these molecules are stable and may persist in soils, sediments, and ice. Many studies have addressed the question of their possible remobilization as a result of global change. In this article, we present a retro-observation approach based on lake sediment records to monitor micropollutants and to evaluate the long-term succession and diffuse transfer of herbicides, fungicides, and insecticide treatments in a vineyard catchment in France. The sediment allows for a reliable reconstruction of past pesticide use through time, validated by the historical introduction, use, and banning of these organic and inorganic pesticides in local vineyards. Our results also revealed how changes in these practices affect storage conditions and, consequently, the pesticides' transfer dynamics. For example, the use of postemergence herbicides (glyphosate), which induce an increase in soil erosion, led to a release of a banned remnant pesticide (dichlorodiphenyltrichloroethane, DDT), which had been previously stored in vineyard soil, back into the environment. Management strategies of ecotoxicological risk would be well served by recognition of the diversity of compounds stored in various environmental sinks, such as agriculture soil, and their capability to become sources when environmental conditions change.

Formato

application/zip, 6 datasets

Identificador

https://doi.pangaea.de/10.1594/PANGAEA.836160

doi:10.1594/PANGAEA.836160

Idioma(s)

en

Publicador

PANGAEA

Direitos

CC-BY: Creative Commons Attribution 3.0 Unported

Access constraints: unrestricted

Fonte

Supplement to: Sabatier, Pierre; Poulenard, Jérôme; Fanget, Bernard; Reyss, Jean-Louis; Develle, Anne-Lise; Wilhelm, Bruno; Ployon, Estelle; Pignol, Cécile; Naffrechoux, Emmanuel; Dorioz, Jean-Marcel; Montuelle, Bernard; Arnaud, Fabien (2014): Long-term relationships among pesticide applications, mobility, and soil erosion in a vineyard watershed. Proceedings of the National Academy of Sciences, 111(44), 15647-15652, doi:10.1073/pnas.1411512111

Palavras-Chave #0.06 µm; 0.07 µm; 0.08 µm; 0.09 µm; 0.11 µm; 0.13 µm; 0.15 µm; 0.17 µm; 0.20 µm; 0.23 µm; 0.27 µm; 0.31 µm; 0.36 µm; 0.42 µm; 0.49 µm; 0.58 µm; 0.67 µm; 0.78 µm; 0.91 µm; 1.06 µm; 1.24 µm; 1.44 µm; 1.68 µm; 1.95 µm; 10.48 µm; 103.58 µm; 12.21 µm; 120.67 µm; 137Cs; 137Cs std dev; 14.22 µm; 140.58 µm; 16.57 µm; 163.77 µm; 19.31 µm; 190.80 µm; 2.28 µm; 2.65 µm; 210Pb; 210Pb std dev; 22.49 µm; 222.28 µm; 226Ra; 226Ra std dev; 241Am; 241Am std dev; 258.95 µm; 26.20 µm; 2-amino-4-chloro-6-ethylamino-1,3,5-triazine; 3.09 µm; 3.60 µm; 30.53 µm; 301.68 µm; 35.56 µm; 351.46 µm; 4.19 µm; 4.88 µm; 409.45 µm; 41.43 µm; 477.01 µm; 48.27 µm; 5.69 µm; 555.71 µm; 56.23 µm; 6.63 µm; 647.41 µm; 65.51 µm; 7.72 µm; 754.23 µm; 76.32 µm; 878.67 µm; 88.91 µm; 9.00 µm; Ag count; Age, maximum/old; Age, minimum/young; Age max; Age min; Age model; Al count; alpha-amino-3-hydroxy-5-methyl-4-isoxazolepropionic acid receptor; Aluminium, area, total counts; AMAP; Americium 241, standard deviation; Americium 241 activity per mass; Ba count; Barium, area, total counts; Bi count; Bifenthrin; Bismuth, area, total counts; BP, 0 = 1950; Br count; Bromine, area, total counts; Bromopropylate; Ca count; Cadmium, area, total counts; Caesium 137, standard deviation; Caesium 137 activity per mass; Calcium, area, total counts; Calculated from weight loss after ignition at 550 °C; Calculated from weight loss after ignition at 950 °C; Captan; Cd count; Chloride, area, total counts; Chromium, area, total counts; Cl count; Copper, area, total counts; Cr count; Cu count; DBD; DDD; DDE; DDT; Deisopropyl atrazine; Density, dry bulk; Depth; DEPTH, sediment/rock; DIA; Dichlorodiphenyldichloroethane; Dichlorodiphenyldichloroethylene; Dichlorodiphenyltrichloroethane; Dicofol; Diflufenican; Dimethomorph; Fe count; Fraction; Ga count; Gallium, area, total counts; Grain size, Mastersizer S, Malvern Instrument Inc.; High-purity Germanium (HPGe) detector; Iron, area, total counts; K count; Lead, area, total counts; Lead 210, standard deviation; Lead 210 activity per mass; LOI; LOI550; LOI950; Loss on ignition; Manganese, area, total counts; Mn count; Mo count; Molybdenum, area, total counts; Nb count; Niobium, area, total counts; p,p'; Pb count; P count; Phosphorus, area, total counts; Potassium, area, total counts; Pyrimethanil; Radium 226, standard deviation; Radium 226 activity per mass; Rb count; Rh count; Rhodium, area, total counts; Rubidium, area, total counts; Sample ID; S count; see comment; Si count; Silicon, area, total counts; Silver, area, total counts; Size fraction; Sn count; Sr count; Strontium, area, total counts; Sulfur, area, total counts; Te count; Tellurium, area, total counts; Ti count; Tin, area, total counts; Titanium, area, total counts; X-ray fluorescence core scanner (XRF); Y count; Yttrium, area, total counts; Zinc, area, total counts; Zirconium, area, total counts; Zn count; Zr count
Tipo

Dataset