Stomata as a Defence Nexus: Integrating Drought and Pathogen Stress Signalling

oscillations, and small signalling peptides. Functioning as pivotal nodes in the evolutionary 'arms race' between plants and pathogens, stomata exhibit significant crosstalk between abscisic acid-mediated drought responses and pathogen-associated molecular patterns-triggered immunity. Drought-induced closure can paradoxically create pathogen-favourable microenvironments, while pathogen signals modulate long-term stomatal development. Critical unresolved questions concern defence-growth trade-offs, signalling pathway interference, and tissue-specific functional redundancy. Cutting-edge techniques like single-cell sequencing and synthetic biology are revolutionising understanding and enabling engineering approaches. Recognising stomata as central hubs for hierarchical environmental adaptation is crucial for developing strategies to enhance crop resilience against increasing compound stresses under climate change, particularly through engineering optimised stomatal responses for concurrent drought tolerance and disease resistance.

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Publication Details

Journal
Plant Cell & Environment
Published
2026-04-14
DOI
https://doi.org/10.1111/pce.70542
Primary Topic
Plant-Microbe Interactions and Immunity
Type
article
Field-Weighted Citation Impact
0.00
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article

Stomata as a Defence Nexus: Integrating Drought and Pathogen Stress Signalling

M Li, Lulu Yan, Mengmeng Zhou, Chunyang Li et al.
Plant Cell & Environment
Plant-Microbe Interactions and Immunity
article

Stomata as a Defence Nexus: Integrating Drought and Pathogen Stress Signalling

M Li, Lulu Yan, Mengmeng Zhou, Chunyang Li, Qianli Zhao, Lu Kong, Xuwu Sun, Chun‐Peng Song, Zhixin Liu
article en

Abstract

oscillations, and small signalling peptides. Functioning as pivotal nodes in the evolutionary 'arms race' between plants and pathogens, stomata exhibit significant crosstalk between abscisic acid-mediated drought responses and pathogen-associated molecular patterns-triggered immunity. Drought-induced closure can paradoxically create pathogen-favourable microenvironments, while pathogen signals modulate long-term stomatal development. Critical unresolved questions concern defence-growth trade-offs, signalling pathway interference, and tissue-specific functional redundancy. Cutting-edge techniques like single-cell sequencing and synthetic biology are revolutionising understanding and enabling engineering approaches. Recognising stomata as central hubs for hierarchical environmental adaptation is crucial for developing strategies to enhance crop resilience against increasing compound stresses under climate change, particularly through engineering optimised stomatal responses for concurrent drought tolerance and disease resistance.

Plant Cell & Environment
Henan University (CN)
Climate action
Openalex Percentile: Top 15%
Plant-Microbe Interactions and Immunity
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