Effect of oxygen status on pesticide transformation and sorption in undisturbed soil and lake sediment

The behavior of four chemically distinctly different pesticides (aldicarb, simazine, mecoprop, and phenoxic acid [MCPA] was investigated under simulated redox conditions that occur at the terrestrial-aqueous interface. Sorption was measured in soil and lake sediment and in pure and combined pesticid...

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Published inEnvironmental toxicology and chemistry Vol. 16; no. 4; pp. 608 - 616
Main Authors Vink, J.P.M. (RIZA, Lelystad, The Netherlands.), Zee, S.E.A.T.M. van der
Format Journal Article
LanguageEnglish
Published Hoboken Wiley Periodicals, Inc 01.04.1997
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Abstract The behavior of four chemically distinctly different pesticides (aldicarb, simazine, mecoprop, and phenoxic acid [MCPA] was investigated under simulated redox conditions that occur at the terrestrial-aqueous interface. Sorption was measured in soil and lake sediment and in pure and combined pesticide solutions to study effects of competition. Transformation was investigated in undisturbed soil microcolumns and in anaerobic lake sediment. Using an air-tight nitrogen incubator, oxygen concentrations were varied from 20.8% (ambient) to less then 0.01 % v/v O2, while redox potentials varied from +330 to -120 mV. Aldicarb was transformed more rapidly under anaerobic than under aerobic conditions. Under low oxygen conditions, both reductive and oxidative metabolites were formed. Simazine showed some reductive transformation, but the overall transformation rate decreased with decreasing O2 concentrations. A pronounced redox effect was shown for both mecoprop and MCPA. With decreasing oxygen concentrations, transformation rates decreased from 0.173 to less than 0.001 d-1, monitored over 200 d. These compounds, which are considered improbable leachers based on their short aerobic half lifes, appear to be more persistent in low-oxygenous conditions. It is shown that a period of oxygen inhibition could be survived by the responsible soil microorganisms and was followed by accelerated transformation of the compound when oxygen became abundant again. No relationship was observed between sorption affinity and transformation rate. The effect of redox conditions that occur along the pesticide's emission route appears to be an important screening parameter to assess environmental risks
AbstractList Transformation and sorption experiments were performed using aldicarb, simazine, mecoprop, and MCPA to assess the effect of oxygen status in undisturbed soil and lake sediment. Sorption was studied for both single and mixed pesticide solutions in soil and freshwater sediment. The experimental protocol is described. Results indicated that, with decreasing oxygen availability, aldicarb was transformed more rapidly, while mecoprop and MCPA becomes persistent at a redox potential of -120 mV. Simazine showed less sensitivity to anaerobicity than mecoprop and MCPA.
The behavior of four chemically distinctly different pesticides (aldicarb, simazine, mecoprop, and phenoxic acid [MCPA] was investigated under simulated redox conditions that occur at the terrestrial–aqueous interface. Sorption was measured in soil and lake sediment and in pure and combined pesticide solutions to study effects of competition. Transformation was investigated in undisturbed soil microcolumns and in anaerobic lake sediment. Using an air‐tight nitrogen incubator, oxygen concentrations were varied from 20.8% (ambient) to less then 0.01 % v/v O2, while redox potentials varied from +330 to —120 mV. Aldicarb was transformed more rapidly under anaerobic than under aerobic conditions. Under low oxygen conditions, both reductive and oxidative metabolites were formed. Simazine showed some reductive transformation, but the overall transformation rate decreased with decreasing O2 concentrations. A pronounced redox effect was shown for both mecoprop and MCPA. With decreasing oxygen concentrations, transformation rates decreased from 0.173 to less than 0.001 d−, monitored over 200 d. These compounds, which are considered improbable leachers based on their short aerobic half lifes, appear to be more persistent in low‐oxygenous conditions. It is shown that a period of oxygen inhibition could be survived by the responsible soil microorganisms and was followed by accelerated transformation of the compound when oxygen became abundant again. No relationship was observed between sorption affinity and transformation rate. The effect of redox conditions that occur along the pesticide's emission route appears to be an important screening parameter to assess environmental risks.
The behavior of four chemically distinctly different pesticides (aldicarb, simazine, mecoprop, and phenoxic acid [MCPA] was investigated under simulated redox conditions that occur at the terrestrial-aqueous interface. Sorption was measured in soil and lake sediment and in pure and combined pesticide solutions to study effects of competition. Transformation was investigated in undisturbed soil microcolumns and in anaerobic lake sediment. Using an air-tight nitrogen incubator, oxygen concentrations were varied from 20.8% (ambient) to less then 0.01 % v/v O2, while redox potentials varied from +330 to -120 mV. Aldicarb was transformed more rapidly under anaerobic than under aerobic conditions. Under low oxygen conditions, both reductive and oxidative metabolites were formed. Simazine showed some reductive transformation, but the overall transformation rate decreased with decreasing O2 concentrations. A pronounced redox effect was shown for both mecoprop and MCPA. With decreasing oxygen concentrations, transformation rates decreased from 0.173 to less than 0.001 d-1, monitored over 200 d. These compounds, which are considered improbable leachers based on their short aerobic half lifes, appear to be more persistent in low-oxygenous conditions. It is shown that a period of oxygen inhibition could be survived by the responsible soil microorganisms and was followed by accelerated transformation of the compound when oxygen became abundant again. No relationship was observed between sorption affinity and transformation rate. The effect of redox conditions that occur along the pesticide's emission route appears to be an important screening parameter to assess environmental risks
Abstract The behavior of four chemically distinctly different pesticides (aldicarb, simazine, mecoprop, and phenoxic acid [MCPA] was investigated under simulated redox conditions that occur at the terrestrial–aqueous interface. Sorption was measured in soil and lake sediment and in pure and combined pesticide solutions to study effects of competition. Transformation was investigated in undisturbed soil microcolumns and in anaerobic lake sediment. Using an air‐tight nitrogen incubator, oxygen concentrations were varied from 20.8% (ambient) to less then 0.01 % v/v O 2 , while redox potentials varied from +330 to —120 mV. Aldicarb was transformed more rapidly under anaerobic than under aerobic conditions. Under low oxygen conditions, both reductive and oxidative metabolites were formed. Simazine showed some reductive transformation, but the overall transformation rate decreased with decreasing O 2 concentrations. A pronounced redox effect was shown for both mecoprop and MCPA. With decreasing oxygen concentrations, transformation rates decreased from 0.173 to less than 0.001 d − , monitored over 200 d. These compounds, which are considered improbable leachers based on their short aerobic half lifes, appear to be more persistent in low‐oxygenous conditions. It is shown that a period of oxygen inhibition could be survived by the responsible soil microorganisms and was followed by accelerated transformation of the compound when oxygen became abundant again. No relationship was observed between sorption affinity and transformation rate. The effect of redox conditions that occur along the pesticide's emission route appears to be an important screening parameter to assess environmental risks.
Author van der Zee, Sjoerd E. A. T. M.
Vink, Jos P. M.
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Issue 4
Keywords Biodegradation
Sediment water interaction
Oxygen
Pollutant behavior
Medium effect
Pesticides
Redox potential
Lake sediments
Soil pollution
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1982; 14
1992; 123
1988; 146
1973
1972
1978; 134
1993; 2
1983; 14
1987; 46
1985; 19
1995; 24
1993; 33
1994; 142
1995; 67
1986; 5
1984; 13
1985
1961; 9
1982
1980
1992; 1
1988
1990; 30
1985; 1
1991; 39
1992; 123/124
1982; 32
1986; 17
1977; 41
1995
1994
1993
1992
1991
1994; 40
1985; 49
1991; 7
1992; 30
1963; 14
1993; 14
1980; 14
1976; 14
1981; 211
1980; 4
1988; 8
1980; 6
1994; 14
1981; 15
1981; 19
1985; 34
1996; 46
1994; 3
1981; 10
1989; 19
1968
1994; 53
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Stickel L. F. (e_1_2_6_12_2) 1968
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Amrein J. (e_1_2_6_49_2) 1982
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  doi: 10.2134/jeq1995.00472425002400020008x
– ident: e_1_2_6_47_2
  doi: 10.1111/j.1574-6941.1994.tb00105.x
– volume-title: Pesticides in the aquatic environment
  year: 1972
  ident: e_1_2_6_10_2
  contributor:
    fullname: Reese C. D.
– ident: e_1_2_6_38_2
  doi: 10.1002/ps.2780140212
– ident: e_1_2_6_59_2
SSID ssj0016999
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Snippet The behavior of four chemically distinctly different pesticides (aldicarb, simazine, mecoprop, and phenoxic acid [MCPA] was investigated under simulated redox...
Abstract The behavior of four chemically distinctly different pesticides (aldicarb, simazine, mecoprop, and phenoxic acid [MCPA] was investigated under...
Transformation and sorption experiments were performed using aldicarb, simazine, mecoprop, and MCPA to assess the effect of oxygen status in undisturbed soil...
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SubjectTerms adsorptie
adsorption
ALDICARB
ALDICARBE
AMBIENTE ACUATICO
Applied sciences
Biological and physicochemical properties of pollutants. Interaction in the soil
Biotransformation
Environment
Exact sciences and technology
gewasbescherming
HERBICIDAS
HERBICIDE
Hydrologie
Hydrology
MCPA
microbial degradation
microbiële afbraak
MILIEU AQUATIQUE
OXIRREDUCION
OXYDOREDUCTION
Oxygen
persistence
persistentie
pesticide residues
pesticiden
pesticidenresiduen
pesticides
plant protection
Pollution
Redox
RIESGO
Risk assessment
RISQUE
SIMAZINA
SIMAZINE
Soil and sediments pollution
sorptie
sorption
water bottoms
waterbodems
Title Effect of oxygen status on pesticide transformation and sorption in undisturbed soil and lake sediment
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https://onlinelibrary.wiley.com/doi/abs/10.1002%2Fetc.5620160402
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http://www.narcis.nl/publication/RecordID/oai:library.wur.nl:wurpubs%2F39047
Volume 16
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