Macronutrient and trace element leaching following biosolids application on semi-arid rangeland soils

被引:16
|
作者
Brenton, Cynthia M.
Fish, Ernest B.
Mata-Gonzalez, Ricardo
机构
[1] Ciencia Ecol & Environm Consultants LLC, Wellington, CO 80549 USA
[2] Texas Tech Univ, Dept Range Wildlife & Fisheries Management, Lubbock, TX 79409 USA
关键词
desert soil; heavy metals; nitrogen leaching; soil amendment; subsurface water quality;
D O I
10.1080/15324980701267783
中图分类号
X [环境科学、安全科学];
学科分类号
08 ; 0830 ;
摘要
The objective of this study was to quantify the leachate concentration of macronutrients and trace elements obtained through intact soil columns containing two range-land soils with different texture and amended with biosolids. This was done to evaluate the possibility that surface application of biosolids could adversely affect subsurface water quality via leaching. Biosolids were applied on the surface of the soil columns at 0 (control), 7, 18, 34, or 90 Mg ha(-1) in dry basis. Results indicated that biosolids did not increase NO3--N leaching, except for the application of 90Mg ha(-1) in the Stellar soil (Calciargid), the finer-textured soil. In the Armesa soil (Haplocalcid), the coarser-textured soil, all leachate NO3--N concentrations were higher than the maximum contaminant limit (MCL) for drinking water established by USEPA, irrespective of biosolids treatment. Orthophosphate leaching occurred mostly in the Stellar soil and was favored by biosolids application. Of the trace elements that are regulated by USEPA, Cd, Ba, Cr, and Be were found below the MCL for drinking water irrespective of the biosolids application rate or soil type. The application of 90Mg ha(-1) of biosolids represented a significantly higher potential of leaching for many elements and compounds (NO3--N, SO4 =, Cl-, Ca, K, Mg, Na, and Sr) than applications of 34 Mg ha(-1) or lower. In general, the application of biosolids up to 34 Mg ha(-1) did not pose potential adverse effects for subsurface water quality.
引用
收藏
页码:143 / 156
页数:14
相关论文
共 50 条
  • [21] Livestock redistribute runoff and sediments in semi-arid rangeland areas
    Sarah, P.
    Zonana, M.
    SOLID EARTH, 2015, 6 (02) : 433 - 443
  • [22] Native lagomorphs facilitate noxious weeds in a semi-arid rangeland
    Garrett, Shantell M.
    Chigbrow, Darrel
    du Toit, Johan T.
    FRONTIERS IN ECOLOGY AND EVOLUTION, 2023, 11
  • [23] Response of wheat, triticale and barley to lime application in semi-arid soils
    Liu, DL
    Helyar, KR
    Conyers, MK
    Fisher, R
    Poile, GJ
    FIELD CROPS RESEARCH, 2004, 90 (2-3) : 287 - 301
  • [24] Degradation of Non-Photosynthetic Vegetation in a Semi-Arid Rangeland
    Jackson, Hasan
    Prince, Stephen D.
    REMOTE SENSING, 2016, 8 (08)
  • [25] SEDIMENT YIELD FROM SMALL SEMI-ARID RANGELAND WATERSHEDS
    RENARD, KG
    STONE, JJ
    SCIENCE AND EDUCATION ADMINISTRATION PUBLICATIONS, 1982, ARM (NW-26): : 129 - 144
  • [26] Modelling rangeland productivity in response to degradation in a semi-arid climate
    Oomen, Roelof J.
    Ewert, Frank
    Snyman, Hennie A.
    ECOLOGICAL MODELLING, 2016, 322 : 54 - 70
  • [27] GRASS - Ground Cover for Restoration of Arid and Semi-arid Soils
    Liniger, H
    Thomas, DB
    TOWARDS SUSTAINABLE LAND USE, VOLS I & II: FURTHERING COOPERATION BETWEEN PEOPLE AND INSTITUTIONS, 1998, 31 : 1167 - 1178
  • [28] How fertile are semi-arid tropical soils?
    Sahrawat, K. L.
    CURRENT SCIENCE, 2016, 110 (09): : 1671 - 1674
  • [29] HARDPAN IN SOILS OF SEMI-ARID WESTERN AUSTRALIA
    LITCHFIELD, WH
    MABBUTT, JA
    JOURNAL OF SOIL SCIENCE, 1962, 13 (02): : 148 - &
  • [30] Dynamics and sustainable utilization of rangeland ecosystems in arid and semi-arid climates of southern Africa
    Snyman, HA
    JOURNAL OF ARID ENVIRONMENTS, 1998, 39 (04) : 645 - 666