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The effect of high sodium irrigation water on soil salinity and yield of mature grapefruit orchard

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Summary

Citrus is considered to be specifically sensitive to chloride and sodium, yet little data exist to show the effect of these ions on yield. An experiment was started in 1978 to study the effect of sodic irrigation water on yield. The treatments were SAR of the irrigation water of 2.8-(L), 5.5-(M), and 10.3-(H) (mol/m3)1/2 \(({\text{SAR = Na}}^{\text{ + }} /\sqrt {{\text{Ca}}^{{\text{ + + }}} {\text{ + Mg}}^{{\text{ + + }}} /2} )\). The experiment follows a study on the same plots using irrigation water of variable chloride concentration and a uniform SAR of 4.2 (mol/m3)1/2.

The high SAR, high Cl water resulted in a yield reduction of 9% from the control treatment. This reduction was similar to the reduction observed when only Cl was a variable. Total water uptake was reduced as salt concentration in the soil increased. The average water uptake for the four irrigation seasons 1978 to 1981 was 1025 mm, 953 mm and 823 mm for the L, M and H treatments, respectively.

Soil ESP was increased as a result of sodium accumulation in the soil profile in the M and H treatments, while Cl and EC remained relatively constant with time during the experiment. After four years of irrigation the infiltration capacity values were 0.26, 0.17 and 0.16 cm/h for the L, M and H treatments, respectively. Fruit quality was not affected by the treatments.

No specific toxicity symptoms were observed when the Na concentration in the soil saturation extract was 16 mol/m3 and the ESP was 8.0. The results lead to the conclusion that within the range used in this experiment the high ESP did not specifically effect yield and that yield response was due to the total salt concentration in the soil.

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References

  1. Bernstein L (1965) Salt tolerance of fruit crops. Inf Bull US Dept Agric 292:8

  2. Bernstein L (1969) Salinity factors and their limits for citrus culture. HD Chapman Ed. Univ. of California Riverside. Proc 1st Int Citrus Symp 3

  3. Bernstein L, Hayward HE (1958) Physiology of salt tolerance. Annu Rev Plant Physiol 9:25

  4. Bielorai H, Levy Y (1971) Irrigation regimes in a semi-arid area and their effects on grapefruit yield, water use and soil salinity. Isr J Agric Res 21:3.12

  5. Bielorai H, Shalhevet J, Levy Y (1978) Grapefruit response to variable salinity in irrigation water and soil. Irrig Sci 1:61

  6. Bingham FT, Mahler RJ, Parra J, Stolzy LH (1974) Long-term effects of irrigation-salinity management on a Valencia orange orchard. Soil Sci 117:369

  7. Bingham FT, Garber MJ (1970) Zonal salinization of the root system with NaCl and Boron in relation to growth and water uptake of corn plants. Proc Soil Sci Soc Am 34:122

  8. Cooper WC, Shull AV (1953) Salt tolerance and accumulation of sodium and chloride ions in grapefruit on various rootstocks grown in naturally saline soil. Proc Rio Grande Vall Hortic Inst 7:107

  9. Feinerman E, Yaron D, Bielorai H (1982), Linear Crop Response Functions to Soil Salinity with a Threshold Salinity Level. Water Resour Res 18:101

  10. Hadas A, Frenkel H (1982) Infiltration as affected by long-term use of sodic-saline water for irrigation. Proc Soil Sci Soc Am 46:524

  11. Harding RB, Pratt PF, Jones WW (1958) Changes in salinity nitrogen and soil reaction in a differentially fertilized irrigated soil. Soil Sci 85:177

  12. Hausenberg I, Pozin Yael, Boaz M (1974) (Salinity survey, Final report Spring 1963—Spring 1973). Israel Ministry of Agric Extension Service, Field Service Division, p 78 (Hebrew)

  13. Hayward HE, Blair WM (1942) Some response of Valencia orange seedlings to varying concentrations of chloride and hydrogen ions. Am J Bot 29:148

  14. Helwig JT and Council KA (1979) SAS user's guide, 1979 edition publ SAS Institute, Cary, NC

  15. Jones WW, Martin JP, Bitters WP (1957) Influence of exchangeable sodium and potassium in the soil on the growth and composition of young lemon trees on different rootstocks. Am Soc Hort Sci Proc 69:189

  16. Levy Y, Bielorai H, Shalhevet J (1978) Long-term effects of different irrigation regimes on grapefruit tree development and yield. J Am Soc Hortic Sci 103:680

  17. Levy Y, Shalhevet J and Bielorai H (1979) Effect of irrigation and regime and water salinity on grapefruit quality. J Am Soc Hortic Sci 104:356

  18. Maas EV, Hoffman GJ (1977) Crop salt tolerance — current assessment. ASCE J Irrig Drainage Div May–June 103 (JR2):115

  19. Pearson HE, Huberty MR (1959) Response of citrus to irrigation with waters of different chemical characteristics. Proc Am Soc Hortic Sci 73:248

  20. Scholander PF, Hammel HT, Bradstreet ED, Hemmingsen EA (1965) Sap pressure in vascular plants. Science 148:339

  21. Shalhevet J (1983) The tolerance of citrus to salinity. Alon Hanotea 37:347–349 (Hebrew)

  22. Shalhevet J, Yaron D, Horovitz U (1974) Salinity and citrus yield — an analysis of results from a salinity survey. J Hortic Sci 49:15

  23. US Salinity Laboratory staff (1954) Diagnosis and Improvement of Saline and Alkali soils, USDA Handbook 60, Washington, DC, p 160

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Contribution from the Agricultural Research Organization, The Volcani Center, Bet Dagan, Israel, No. 626-E, 1982 series

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Bielorai, H., Shalhevet, J. & Levy, Y. The effect of high sodium irrigation water on soil salinity and yield of mature grapefruit orchard. Irrig Sci 4, 255–266 (1983). https://doi.org/10.1007/BF00389648

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Keywords

  • Water Uptake
  • Irrigation Water
  • Fruit Quality
  • Infiltration Capacity
  • Irrigation Season