Management Options to Reduce Phosphorus Leaching from Vegetated Buffer Strips

Vegetated buffer strips (VBS) between agricultural areas and surface waters are important retention areas for eroded particulate P through which they may obtain critically high degrees of P saturation imposing high risk of soluble P leaching. We tested topsoil removal and three harvesting frequencie...

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Published inJournal of environmental quality Vol. 48; no. 2; pp. 322 - 329
Main Authors Hille, Sandra, Graeber, Daniel, Kronvang, Brian, Rubæk, Gitte H., Onnen, Nils, Molina‐Navarro, Eugenio, Baattrup‐Pedersen, Annette, Heckrath, Goswin J., Stutter, Marc I.
Format Journal Article
LanguageEnglish
Published United States The American Society of Agronomy, Crop Science Society of America, and Soil Science Society of America, Inc 01.03.2019
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Abstract Vegetated buffer strips (VBS) between agricultural areas and surface waters are important retention areas for eroded particulate P through which they may obtain critically high degrees of P saturation imposing high risk of soluble P leaching. We tested topsoil removal and three harvesting frequencies (once, twice, or four times per year) of natural buffer vegetation to reduce P leaching with the aim to offset erosional P accumulation and high degrees of P saturation. We used a simple numerical time‐step model to estimate changes in VBS soil P levels with and without harvest. Harvesting offset erosional deposition as it resulted in an annual ammonium oxalate‐extractable P reduction of 0.3 to 2.8% (25‐cm topsoil content) in soils of the VBS and thus, with time, reduced potential P leaching below a baseline of 50 μg L−1. Topsoil removal only marginally reduced potential leaching at two sites and not anywhere near this baseline. The harvest frequency only marginally affected the annual P removal, making single annual harvests the most economical. We estimate 50 to 300 yr to reach the P leaching baseline, due to substantial amounts of P accumulated in the soils. Even in high‐erosion‐risk situations in our study, harvesting reduced soil P content and the P leaching risk. We suggest harvesting as a practical and efficient management to combat P leaching from agricultural VBS, not just for short‐term reductions of dissolved P, but also for reductions of the total soil P pool and for possible multiple benefits for VBS. Core Ideas Annual harvesting offsets erosional P inputs into vegetated buffer strips (VBS). Decades of annual harvesting can effectively reduce P leaching from VBS. Annual harvest frequency only marginally affects P removal. Topsoil removal cannot reduce P leaching from VBS. Without management, P accumulates in VBS to the point of harmful leaching.
AbstractList Vegetated buffer strips (VBS) between agricultural areas and surface waters are important retention areas for eroded particulate P through which they may obtain critically high degrees of P saturation imposing high risk of soluble P leaching. We tested topsoil removal and three harvesting frequencies (once, twice, or four times per year) of natural buffer vegetation to reduce P leaching with the aim to offset erosional P accumulation and high degrees of P saturation. We used a simple numerical time-step model to estimate changes in VBS soil P levels with and without harvest. Harvesting offset erosional deposition as it resulted in an annual ammonium oxalate-extractable P reduction of 0.3 to 2.8% (25-cm topsoil content) in soils of the VBS and thus, with time, reduced potential P leaching below a baseline of 50 μg L. Topsoil removal only marginally reduced potential leaching at two sites and not anywhere near this baseline. The harvest frequency only marginally affected the annual P removal, making single annual harvests the most economical. We estimate 50 to 300 yr to reach the P leaching baseline, due to substantial amounts of P accumulated in the soils. Even in high-erosion-risk situations in our study, harvesting reduced soil P content and the P leaching risk. We suggest harvesting as a practical and efficient management to combat P leaching from agricultural VBS, not just for short-term reductions of dissolved P, but also for reductions of the total soil P pool and for possible multiple benefits for VBS.Vegetated buffer strips (VBS) between agricultural areas and surface waters are important retention areas for eroded particulate P through which they may obtain critically high degrees of P saturation imposing high risk of soluble P leaching. We tested topsoil removal and three harvesting frequencies (once, twice, or four times per year) of natural buffer vegetation to reduce P leaching with the aim to offset erosional P accumulation and high degrees of P saturation. We used a simple numerical time-step model to estimate changes in VBS soil P levels with and without harvest. Harvesting offset erosional deposition as it resulted in an annual ammonium oxalate-extractable P reduction of 0.3 to 2.8% (25-cm topsoil content) in soils of the VBS and thus, with time, reduced potential P leaching below a baseline of 50 μg L. Topsoil removal only marginally reduced potential leaching at two sites and not anywhere near this baseline. The harvest frequency only marginally affected the annual P removal, making single annual harvests the most economical. We estimate 50 to 300 yr to reach the P leaching baseline, due to substantial amounts of P accumulated in the soils. Even in high-erosion-risk situations in our study, harvesting reduced soil P content and the P leaching risk. We suggest harvesting as a practical and efficient management to combat P leaching from agricultural VBS, not just for short-term reductions of dissolved P, but also for reductions of the total soil P pool and for possible multiple benefits for VBS.
Vegetated buffer strips (VBS) between agricultural areas and surface waters are important retention areas for eroded particulate P through which they may obtain critically high degrees of P saturation imposing high risk of soluble P leaching. We tested topsoil removal and three harvesting frequencies (once, twice, or four times per year) of natural buffer vegetation to reduce P leaching with the aim to offset erosional P accumulation and high degrees of P saturation. We used a simple numerical time-step model to estimate changes in VBS soil P levels with and without harvest. Harvesting offset erosional deposition as it resulted in an annual ammonium oxalate-extractable P reduction of 0.3 to 2.8% (25-cm topsoil content) in soils of the VBS and thus, with time, reduced potential P leaching below a baseline of 50 μg L. Topsoil removal only marginally reduced potential leaching at two sites and not anywhere near this baseline. The harvest frequency only marginally affected the annual P removal, making single annual harvests the most economical. We estimate 50 to 300 yr to reach the P leaching baseline, due to substantial amounts of P accumulated in the soils. Even in high-erosion-risk situations in our study, harvesting reduced soil P content and the P leaching risk. We suggest harvesting as a practical and efficient management to combat P leaching from agricultural VBS, not just for short-term reductions of dissolved P, but also for reductions of the total soil P pool and for possible multiple benefits for VBS.
Vegetated buffer strips (VBS) between agricultural areas and surface waters are important retention areas for eroded particulate P through which they may obtain critically high degrees of P saturation imposing high risk of soluble P leaching. We tested topsoil removal and three harvesting frequencies (once, twice, or four times per year) of natural buffer vegetation to reduce P leaching with the aim to offset erosional P accumulation and high degrees of P saturation. We used a simple numerical time‐step model to estimate changes in VBS soil P levels with and without harvest. Harvesting offset erosional deposition as it resulted in an annual ammonium oxalate‐extractable P reduction of 0.3 to 2.8% (25‐cm topsoil content) in soils of the VBS and thus, with time, reduced potential P leaching below a baseline of 50 μg L−1. Topsoil removal only marginally reduced potential leaching at two sites and not anywhere near this baseline. The harvest frequency only marginally affected the annual P removal, making single annual harvests the most economical. We estimate 50 to 300 yr to reach the P leaching baseline, due to substantial amounts of P accumulated in the soils. Even in high‐erosion‐risk situations in our study, harvesting reduced soil P content and the P leaching risk. We suggest harvesting as a practical and efficient management to combat P leaching from agricultural VBS, not just for short‐term reductions of dissolved P, but also for reductions of the total soil P pool and for possible multiple benefits for VBS. Core Ideas Annual harvesting offsets erosional P inputs into vegetated buffer strips (VBS). Decades of annual harvesting can effectively reduce P leaching from VBS. Annual harvest frequency only marginally affects P removal. Topsoil removal cannot reduce P leaching from VBS. Without management, P accumulates in VBS to the point of harmful leaching.
Vegetated buffer strips (VBS) between agricultural areas and surface waters are important retention areas for eroded particulate P through which they may obtain critically high degrees of P saturation imposing high risk of soluble P leaching. We tested topsoil removal and three harvesting frequencies (once, twice, or four times per year) of natural buffer vegetation to reduce P leaching with the aim to offset erosional P accumulation and high degrees of P saturation. We used a simple numerical time‐step model to estimate changes in VBS soil P levels with and without harvest. Harvesting offset erosional deposition as it resulted in an annual ammonium oxalate‐extractable P reduction of 0.3 to 2.8% (25‐cm topsoil content) in soils of the VBS and thus, with time, reduced potential P leaching below a baseline of 50 μg L⁻¹. Topsoil removal only marginally reduced potential leaching at two sites and not anywhere near this baseline. The harvest frequency only marginally affected the annual P removal, making single annual harvests the most economical. We estimate 50 to 300 yr to reach the P leaching baseline, due to substantial amounts of P accumulated in the soils. Even in high‐erosion‐risk situations in our study, harvesting reduced soil P content and the P leaching risk. We suggest harvesting as a practical and efficient management to combat P leaching from agricultural VBS, not just for short‐term reductions of dissolved P, but also for reductions of the total soil P pool and for possible multiple benefits for VBS. CORE IDEAS: Annual harvesting offsets erosional P inputs into vegetated buffer strips (VBS). Decades of annual harvesting can effectively reduce P leaching from VBS. Annual harvest frequency only marginally affects P removal. Topsoil removal cannot reduce P leaching from VBS. Without management, P accumulates in VBS to the point of harmful leaching.
Author Onnen, Nils
Stutter, Marc I.
Rubæk, Gitte H.
Graeber, Daniel
Heckrath, Goswin J.
Kronvang, Brian
Molina‐Navarro, Eugenio
Hille, Sandra
Baattrup‐Pedersen, Annette
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  fullname: Rubæk, Gitte H.
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  givenname: Nils
  surname: Onnen
  fullname: Onnen, Nils
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  givenname: Eugenio
  surname: Molina‐Navarro
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  givenname: Marc I.
  surname: Stutter
  fullname: Stutter, Marc I.
  organization: The James Hutton Institute
BackLink https://www.ncbi.nlm.nih.gov/pubmed/30951111$$D View this record in MEDLINE/PubMed
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Snippet Vegetated buffer strips (VBS) between agricultural areas and surface waters are important retention areas for eroded particulate P through which they may...
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SubjectTerms agricultural land
Agriculture
ammonium
conservation buffers
harvesting frequency
leaching
Non-Point Source Pollution - prevention & control
phosphorus
Phosphorus - analysis
risk
Rivers
Soil
Soil Pollutants - analysis
soluble phosphorus
surface water
topsoil
vegetation
Water Movements
Water Pollutants, Chemical - analysis
Title Management Options to Reduce Phosphorus Leaching from Vegetated Buffer Strips
URI https://onlinelibrary.wiley.com/doi/abs/10.2134%2Fjeq2018.01.0042
https://www.ncbi.nlm.nih.gov/pubmed/30951111
https://www.proquest.com/docview/2204691779
https://www.proquest.com/docview/2315272964
Volume 48
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