Reduction of solids and nutrient loss from agricultural land by tailwater recovery systems

被引:18
|
作者
Omer, A. R. [1 ]
Miranda, L. E. [2 ]
Moore, M. T. [3 ]
Krutz, L. J. [4 ]
Czarnecki, J. M. Prince [5 ]
Kroeger, R. [6 ]
Baker, B. H. [1 ]
Hogue, J. [7 ]
Allen, P. J. [1 ]
机构
[1] Mississippi State Univ, Dept Wildlife Fisheries & Aquaculture, Mississippi State, MS 39762 USA
[2] US Geol Survey, Mississippi Cooperat Fish & Wildlife Res Unit, Mississippi State, MS USA
[3] USDA ARS, Water Qual & Ecol Res Unit, Oxford, MS USA
[4] Mississippi State Univ, Mississippi Water Resources Res Inst, Starkville, MS USA
[5] Mississippi State Univ, Geosyst Res Inst, Mississippi State, MS 39762 USA
[6] Covington Civil & Environm LLC, Gulfport, MS USA
[7] US Army, Corps Engineers, Vicksburg, MS 39180 USA
基金
美国食品与农业研究所;
关键词
best management practice; irrigation; Lower Mississippi Alluvial Valley; surface water; water reuse; water quality; MISSISSIPPI RIVER-BASIN; LOW-GRADE WEIRS; NONPOINT-SOURCE POLLUTION; NITRATE-N LOADS; WATER-QUALITY; CONSTRUCTED WETLANDS; CONTROLLED DRAINAGE; TILE DRAINAGE; MANAGEMENT-PRACTICES; SUBSURFACE DRAINAGE;
D O I
10.2489/jswc.73.3.284
中图分类号
Q14 [生态学(生物生态学)];
学科分类号
071012 ; 0713 ;
摘要
Best management practices are being implemented throughout the Lower Mississippi River Alluvial Valley with the aim of alleviating pressures placed on downstream aquatic systems by sediment and nutrient losses from agricultural land; however, research evaluating the performance of tailwater recovery (TWR) systems, an increasingly important practice, is limited. This study evaluated the ability of TWR systems to retain sediment and nutrients draining from agricultural landscapes. Composite flow-based samples were collected during flow events (precipitation or irrigation) over a two-year period in six TWR systems. Performance was evaluated by comparing concentrations and loads in water entering TWR systems (i.e., runoff or influent) from agricultural fields to water overflow exiting TWR systems (effluent). Tailwater recovery systems did not reduce concentrations of solids and nutrients, but did reduce loads of solids, phosphorus (P), and nitrogen (N) by 43%, 32%, and 44%, respectively. Annual mean load reductions were 1,142 kg solids, 0.7 kg of P, and 3.8 kg of N. Performance of TWR systems was influenced by effluent volume, system fullness, time since the previous event, and capacity of the TWR system. Mechanistically, TWR systems retain runoff on the agricultural landscape, thereby reducing the amount of sediment and nutrients entering downstream waterbodies. System performance can be improved through manipulation of influential parameters.
引用
收藏
页码:284 / 297
页数:14
相关论文
共 50 条
  • [1] Potential for recycling of suspended solids and nutrients by irrigation of tailwater from tailwater recovery systems
    Omer, A. R.
    Moore, M. T.
    Krutz, L. J.
    Kroger, R.
    Czarnecki, J. M. Prince
    Baker, B. H.
    Allen, P. J.
    WATER SCIENCE AND TECHNOLOGY-WATER SUPPLY, 2018, 18 (04): : 1396 - 1405
  • [2] Nutrient Emissions from Agricultural Land by Drainage Systems
    Tauchnitz, Nadine
    Bischoff, Joachim
    Schroedter, Matthias
    Rupp, Holger
    Meissner, Ralph
    WASSERWIRTSCHAFT, 2014, 104 (12) : 36 - 41
  • [3] Water quality improvements from implementation of tailwater recovery systems
    Austin R. Omer
    B. H. Baker
    Sustainable Water Resources Management, 2019, 5 : 703 - 713
  • [4] Water quality improvements from implementation of tailwater recovery systems
    Omer, Austin R.
    Baker, B. H.
    SUSTAINABLE WATER RESOURCES MANAGEMENT, 2019, 5 (02) : 703 - 713
  • [5] Representation of Solid and Nutrient Concentrations in Irrigation Water from Tailwater-Recovery Systems by Surface Water Grab Samples
    Omer, A. R.
    Moore, M. T.
    Krutz, L. J.
    Kroger, R.
    Czarnecki, J. M. Prince
    Baker, B. H.
    Allen, P. J.
    JOURNAL OF IRRIGATION AND DRAINAGE ENGINEERING, 2017, 143 (11)
  • [6] Can macrophyte harvesting from eutrophic water close the loop on nutrient loss from agricultural land?
    Quilliam, Richard S.
    van Niekerk, Melanie A.
    Chadwick, David R.
    Cross, Paul
    Hanley, Nick
    Jones, Davey L.
    Vinten, Andy J. A.
    Willby, Nigel
    Oliver, David M.
    JOURNAL OF ENVIRONMENTAL MANAGEMENT, 2015, 152 : 210 - 217
  • [7] Nutrient variations from swine manure to agricultural land
    Won, Seunggun
    You, Byung-Gu
    Shim, Soomin
    Ahmed, Naveed
    Choi, Yoon-Seok
    Ra, Changsix
    ASIAN-AUSTRALASIAN JOURNAL OF ANIMAL SCIENCES, 2018, 31 (05): : 763 - 772
  • [8] Effect of land use systems on erosion and nutrient loss in the Mediterranean
    Papini, R
    Bazzoffi, P
    Pellegrini, S
    SUSTAINABLE LAND MANAGEMENT - ENVIRONMENTAL PROTECTION: A SOIL PHYSICAL APPROACH, 2002, 35 : 459 - 470
  • [9] Nutrient loss is sensitive to land cover changes and slope gradients of agricultural hillsides: Evidence from four contrasting pond systems in a hilly catchment
    Zhang, Wangshou
    Li, Hengpeng
    Pueppke, Steven G.
    Diao, Yaqin
    Nie, Xiaofei
    Geng, Jianwei
    Chen, Dongqiang
    Pang, Jiaping
    AGRICULTURAL WATER MANAGEMENT, 2020, 237
  • [10] Recovery potential of microwetlands from agricultural land uses
    Nolan, Rachael H.
    Vesk, Peter A.
    Robinson, Doug
    ECOLOGICAL MANAGEMENT & RESTORATION, 2018, 19 (01) : 81 - 84