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April 10, 2026Agriculture4 citationsOpen Access

Insights on Physiological, Biochemical and Genetic Responses of Tomato (Solanum lycopersicum L.) to Drought Conditions

NAN. Al AchkarHAHajer Ben AmmarDADonata Arena

Key Points

  • This review aims to explore how tomato plants respond to drought stress at physiological, biochemical, and genetic levels.
  • Review of existing literature on tomato responses to drought stress
  • Analysis of physiological mechanisms, including root architecture and stomatal regulation
  • Discussion of biochemical processes like osmotic adjustments and hormonal responses
  • Identification of genetic traits and related molecular markers for drought tolerance
  • Exploration of novel cultivation techniques and breeding methods for resilient tomato varieties
  • Tomato plants utilize various physiological mechanisms to cope with drought, such as adjusting root architecture and leaf morphology.
  • Biochemical responses include osmotic adjustments and the regulation of hormones and antioxidants.
  • Key genetic traits associated with drought tolerance are identified, aiding in future breeding efforts.
  • Molecular markers for marker-assisted selection are outlined for improving drought resistance in breeding programs.
  • Innovative growing systems present promising solutions for enhancing efficiency in drought mitigation.

Abstract

With global warming and climate change, drought stress is nowadays a threatening problem for growing vegetable crops worldwide. The introduction of more resilient and less water-demanding varieties is a key aspect for sustainable vegetable production, especially in Mediterranean countries where water availability for agricultural uses is progressively decreasing. This review highlights different mechanisms of tomato plant, as one of the most important crops of the Mediterranean countries, which are activated at physiological, biochemical and molecular levels in response to drought. With regard to the root system architecture modification, osmotic adjustments, and hormonal and antioxidant regulations are discussed. For vegetative organs, plant architecture, leaf morphology adjustments and stomatal regulation are described. Major genetic traits related to drought stress, along with responsive genes, are listed. The metabolic pathways, which determine the tolerance to drought stress, are reported and their related molecular markers used for the molecular-assisted selection (MAS) are listed. Novel growing systems and techniques which can improve efficiency for mitigating drought are highlighted; in addition, different breeding methods, both conventional and new gene-editing ones, are mentioned.

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Cite This Study

Achkar et al. (2026) studied this question.

synapsesocial.com/papers/69d895486c1944d70ce06363https://doi.org/10.3390/agriculture16070813
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