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Salicylic Acid as a Tolerance Inducer of Drought Stress on Sunflower Grown in Sandy Soil

Agricultural water rationalization expressed in irrigating the plants below their requirements became a significant strategy in crop water management. However, reduction in crop productivity under low water supply is realized. Therefore, the current study aimed to diminish sunflower yield losses ass...

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Published in:Gesunde Pflanzen 2022-09, Vol.74 (3), p.603-613
Main Authors: El–Bially, Mohamed E., Saudy, Hani S., Hashem, Fadl A., El–Gabry, Yasser A., Shahin, Mostafa G.
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description Agricultural water rationalization expressed in irrigating the plants below their requirements became a significant strategy in crop water management. However, reduction in crop productivity under low water supply is realized. Therefore, the current study aimed to diminish sunflower yield losses associated with deficit irrigation using salicylic acid (SA). During two seasons of 2019 and 2020 at El Nubaria region, El Behaira Governorate, Egypt, combinations of three irrigation regimes (100, 85 and 70% of crop evapotranspiration, denoted WR 100% , WR 85% , and WR 70% , respectively), and three levels of SA (0.0, 0.5, and 1 mM. abbreviated as SA 0.0 , SA 0.5 , and SA 1.0 , respectively) on sunflower plants performance were evaluated. Treatments were arranged in a strip–plot design with three replicates. Findings revealed that treated sunflower plants with WR 100%  × SA 1.0 contained the highest amounts of total chlorophyll and carotenoids as well as the lowest proline content. Seed yield of WR 100%  × SA 1.0 treatment was higher than that of WR 70%  × SA 0.0 by 109.7% in the first season and 125.9% in the second one. As averages of the two seasons, SA 0.5 and SA 1.0 lowered the reductions in seed yield from 21.0% to 15.8 and 14.4% as well as 46.2% to 40.8 and 40.1% under WR 85% and WR 70% , respectively, compared to the farmer common practice (WR 100%  × SA 0.0 ). WR 100%  × SA 1.0 for iodine value as well as WR 100%  × SA 1.0 and WR 100%  × SA 0.5 for seed oil % were recorded the highest. Application of WR 100%  × SA 1.0 and WR 100%  × SA 0.5 were the effective combinations for ameliorating water use efficiency. In conclusion, involving salicylic acid in irrigation programs of sunflower became a decisive action to save water and alleviate the yield losses resulting from drought stress.
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As averages of the two seasons, SA 0.5 and SA 1.0 lowered the reductions in seed yield from 21.0% to 15.8 and 14.4% as well as 46.2% to 40.8 and 40.1% under WR 85% and WR 70% , respectively, compared to the farmer common practice (WR 100%  × SA 0.0 ). WR 100%  × SA 1.0 for iodine value as well as WR 100%  × SA 1.0 and WR 100%  × SA 0.5 for seed oil % were recorded the highest. Application of WR 100%  × SA 1.0 and WR 100%  × SA 0.5 were the effective combinations for ameliorating water use efficiency. 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As averages of the two seasons, SA 0.5 and SA 1.0 lowered the reductions in seed yield from 21.0% to 15.8 and 14.4% as well as 46.2% to 40.8 and 40.1% under WR 85% and WR 70% , respectively, compared to the farmer common practice (WR 100%  × SA 0.0 ). WR 100%  × SA 1.0 for iodine value as well as WR 100%  × SA 1.0 and WR 100%  × SA 0.5 for seed oil % were recorded the highest. Application of WR 100%  × SA 1.0 and WR 100%  × SA 0.5 were the effective combinations for ameliorating water use efficiency. 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subjects Agricultural production
Agriculture
Biomedical and Life Sciences
Carotenoids
Chlorophyll
Crop management
Crop production
Crop yield
Crops
Drought
Evapotranspiration
Helianthus
Iodine
Irrigation
Irrigation programs
Life Sciences
Oils & fats
Original Article
Originalbeitrag
Plant Pathology
Salicylic acid
Sandy soils
Seasons
Seeds
Soil water
Sunflowers
Water management
Water shortages
Water supply
Water use
Water use efficiency
title Salicylic Acid as a Tolerance Inducer of Drought Stress on Sunflower Grown in Sandy Soil
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