Spatial and Temporal Distribution of Bromide as a Nitrate Tracer in Deficit, Drip-irrigated Wine Grape Vineyards

被引:2
|
作者
Davenport, Joan R. [1 ]
Stevens, Robert G. [1 ]
Whitley, Kelly M. [2 ]
Winkler, Tanya [1 ]
机构
[1] Washington State Univ, Irrigated Agr Res & Extens Ctr, Prosser, WA 99350 USA
[2] CH2MHill Plateau Remediat Co, Richland, WA 99352 USA
关键词
bromide; nitrate; volumetric soil water; plant available water; regulated deficit irrigation; MOVEMENT; SOIL; GROUNDWATER; MANAGEMENT; TRANSPORT; ZONE; WELL; FLOW;
D O I
10.21273/HORTSCI.46.2.291
中图分类号
S6 [园艺];
学科分类号
0902 ;
摘要
Understanding water and nutrient movement in arid climate-regulated deficit, drip-irrigated vineyards is imperative for understanding grape vine canopy management. However, little research has been conducted in these environments to aid in the understanding of where the vine accesses nutrients and/or soil water and how that translates into soil and/or plant tissue sampling approaches. We used bromide (Br) as a tracer to study nitrate movement in soils as well as into grape leaves in two 'Merlot' vineyards in central Washington State. Bromide movement closely followed water movement. Although Br was detectable in grape petioles, it was not detectable in leaf blades, likely as a result of a dilution factor related to the amount of tissue. Relationships between soil Br and soil moisture a's well as petiole and soil Br concentrations suggests that soil sampling for nitrate should be taken from a diagonal position between the vine and the emitter, between 20 and 60 cm from the drip line. This is consistent with the recommendation for soil moisture sampling in a published companion study.
引用
收藏
页码:291 / 295
页数:5
相关论文
共 9 条
  • [1] Spatial and temporal distribution of soil moisture in drip-irrigated vineyards
    Davenport, Joan R.
    Stevens, Robert G.
    Whitley, Kelly M.
    [J]. HORTSCIENCE, 2008, 43 (01) : 229 - 235
  • [2] DEFICIT IRRIGATION OF SUBSURFACE DRIP-IRRIGATED GRAPE TOMATO
    Mendonca, Thais G.
    da Silva, Marilia B.
    Pires, Regina C. de M.
    Souza, Claudinei F.
    [J]. ENGENHARIA AGRICOLA, 2020, 40 (04): : 453 - 461
  • [3] Spatial and temporal distribution of soil water balance for a drip-irrigated almond tree
    Andreu, L
    Hopmans, JW
    Schwankl, LJ
    [J]. AGRICULTURAL WATER MANAGEMENT, 1997, 35 (1-2) : 123 - 146
  • [4] Regulated deficit irrigation, soil salinization and soil sodification in a table grape vineyard drip-irrigated with moderately saline waters
    Araguees, R.
    Medina, E. T.
    Claveria, I.
    Martinez-Cob, A.
    Faci, J.
    [J]. AGRICULTURAL WATER MANAGEMENT, 2014, 134 : 84 - 93
  • [5] Spatial and Temporal Distribution of Salinity in Drip Irrigated Tomatoes in Central California
    Turini, T. A.
    Munk, D. S.
    Wroble, J. F.
    [J]. XIII INTERNATIONAL SYMPOSIUM ON PROCESSING TOMATO, 2015, 1081 : 147 - 152
  • [6] The role of soil hydraulic conductivity on the spatial and temporal variation of root water uptake in drip-irrigated corn
    Yan Li
    Rony Wallach
    Yehezkel Cohen
    [J]. Plant and Soil, 2002, 243 : 131 - 142
  • [7] The role of soil hydraulic conductivity on the spatial and temporal variation of root water uptake in drip-irrigated corn
    Li, Y
    Wallach, R
    Cohen, Y
    [J]. PLANT AND SOIL, 2002, 243 (02) : 131 - 142
  • [8] Spatial distribution of soil water, soil temperature, and plant roots in a drip-irrigated intercropping field with plastic mulch
    Li, Xianyue
    Simunek, Jiri
    Shi, Haibin
    Yan, Jianwen
    Peng, Zunyuan
    Gong, Xuewen
    [J]. EUROPEAN JOURNAL OF AGRONOMY, 2017, 83 : 47 - 56
  • [9] Soil spatio-temporal distribution of water, salts and nutrients in greenhouse, drip-irrigated tomato crops using lysimetry and dielectric methods
    Bonachela, Santiago
    Dolores Fernandez, Maria
    Javier Cabrera, Francisco
    Rosa Granados, Maria
    [J]. AGRICULTURAL WATER MANAGEMENT, 2018, 203 : 151 - 161