Jul 2026· Physiologia Plantarum : An International Journal for Plant Biology· Vol 178· 0 citations· 124 references
Medicine
Abstract
Abiotic stresses are major constraints on oil crop productivity worldwide, causing significant yield losses and increasingly threatening global edible oil security. These stresses also weaken plant defense capacity, indirectly increasing vulnerability to pests and diseases and challenging the effectiveness of integrated disease management (IDM) systems. Recent advances identify nanoparticles (NPs) as an innovative and signaling regulator tool for enhancing abiotic stress tolerance in oil crops through coordinated physiological and molecular regulation. The present review synthesizes current knowledge on NPs applications in major oil‐bearing crops, with emphasis on drought, salinity, heavy metal toxicity and temperature extremes. A key innovation is the integration of NPs application strategies with crop‐specific physiological traits, molecular responses, and hormonal and redox signaling networks. We highlight new insights showing that NPs act as active regulators of stress adaptation by stabilizing membranes, maintaining redox homeostasis, activating antioxidant defenses, modulating stress‐responsive gene expression, and interacting with phytohormones and nitric oxide (NO) signaling. By adopting a cross‐crop, cross‐stress framework, the present review moves beyond stress‐ or species‐specific analyses and directly links abiotic stress mitigation to improved plant resilience and IDM robustness. Key research gaps, including limited field validation, uncertainties in optimal dosing and delivery, and insufficient understanding of environmental fate and safety, are identified. Overall, the present review positions NPs‐based strategies as promising complementary tools for sustainable oil crop protection and IDM.
Biotic and abiotic stressors, including climate crises, are affecting plants’ metabolic and developmental processes, which negatively influence crop performance and the overall resilience of agroecosystems. In response to these stressors, plants have evolved multifaceted defense mechanisms at morphological, physiolog...
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Abiotic stresses, such as drought, salinity, temperature extremes, heavy metals, and pesticide toxicity, severely impact plant growth and productivity, primarily through the accumulation of reactive oxygen species (ROS) and metabolic imbalances. In the era of climate change and declining agricultural sustainability, th...
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The molecular mechanisms underlying NTP-PGPB microbial multiple stress adaptation and the long-term ecological stability and biosafety of microbial communities remain inadequately resolved, Consequently, future integration of multi-omics approaches, synthetic microbial communities, and field-scale validation is require...
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