Aerial short-range dispersion of volatilized pesticides from an area source

Owing to legal provisions, pesticides have to be applied in such a way that there is no unacceptable influence on human health and the environment at nearby non-target areas. In order to quantify their concentration over and downwind of agricultural target plots of 0.5-1 ha, covered by winter wheat...

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Veröffentlicht in:International journal of biometeorology 2002-08, Vol.46 (3), p.126-135
Hauptverfasser: Wittich, K.P, Siebers, J
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container_title International journal of biometeorology
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creator Wittich, K.P
Siebers, J
description Owing to legal provisions, pesticides have to be applied in such a way that there is no unacceptable influence on human health and the environment at nearby non-target areas. In order to quantify their concentration over and downwind of agricultural target plots of 0.5-1 ha, covered by winter wheat and winter barely, the pesticides lindane, parathion and pirimicarb were applied. Over these plots the post-application volatilization rates of the pesticides were estimated indirectly from vertical concentration, wind and temperature profile measurements using the aerodynamic gradient technique. Philip's advection model was applied to take non-favorable fetch conditions into account. In addition, at a height of 1.6 m downwind of the area source, measurements of the horizontal concentration profile were made up to a distance of about 250 m at roughly 50-m intervals. The monitoring started immediately after spraying in the morning and continued for about 8-10 h, thus providing a worst-case situation because volatilization, and therefore pesticide concentration in the atmospheric surface layer, is then strongest. The concentration of the airborne pesticides over the downwind non-target area was also calculated by Philip's advection model. By using the Nash-Sutcliffe relative-difference measure between observed and calculated concentrations, a goodness-of-fit of 0.97 was obtained over the downwind non-target area, indicating that the Philip model is well suited for dispersion estimates in the near-field range.
doi_str_mv 10.1007/s00484-002-0125-3
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subjects Agriculture
Air Pollution - prevention & control
bioclimatology
Environmental Health
human health
Humans
lindane
Meteorological Concepts
Models, Theoretical
monitoring
parathion
Pesticides - adverse effects
Pesticides - analysis
pirimicarb
spraying
temperature
Volatilization
wind
winter wheat
title Aerial short-range dispersion of volatilized pesticides from an area source
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