Horticulturae · 2021 · 24 citations · 36 references
AgricultureCrop SciencesPlant SciencesCrop PhysiologyPlant BiochemistryPlant PhysiologyAbiotic Stress EvaluationCold HardinessCold Stress PhysiologySeedling Stage Stress ToleranceStress BiochemistryStress PhenotypingAbiotic StressAbiotic Stress Tolerance TraitsAntioxidant Defense In SeedlingsCalvin Cycle In PlantsCold StressOxidative Stress In SeedlingsPlant Cold Stress PhysiologySeedling Cold Tolerance
Recently, grafting has been used to improve abiotic stress resistance in crops. Here, using watermelon ‘Zaojia 8424’ (Citrullus lanatus) as scions, three different gourds (Lagenaria siceraria, 0526, 2505, and 1226) as rootstocks, and non-grafted plants as controls (different plants were abbreviated as 0526, 2505, 1226, and 8424), the effect of cold stress on various physiological and molecular parameters was investigated. The results demonstrate that the improved cold tolerance of gourd-grafted watermelon was associated with higher chlorophyll and proline content, and lower malondialdehyde (MDA) content, compared to 8424 under cold stress. Furthermore, grafted watermelons accumulated fewer reactive oxygen species (ROS), accompanied by enhanced antioxidant activity and a higher expression of enzymes related to the Calvin cycle. In conclusion, watermelons with 2505 and 0526 rootstocks were more resilient compared to 1226 and 8424. These results confirm that using tolerant rootstocks may be an efficient adaptation strategy for improving abiotic stress tolerance in watermelon.
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R.J. Porra, W. A. Thompson, P. E. Kriedemann · Biochimica et Biophysica Acta (BBA) - Bioenergetics · 1989 · 6K citations
Current status of vegetable grafting: Diffusion, grafting techniques, automation
C. Kubota, Shing-Jy Tsao, Zhilong Bie et al. · Scientia Horticulturae · 2010 · 805 citations
Agriculture, Agronomy, Food Science +10