Shaping the leaf microbiota: plant–microbe–microbe interactions

Abstract The aerial portion of a plant, namely the leaf, is inhabited by pathogenic and non-pathogenic microbes. The leaf’s physical and chemical properties, combined with fluctuating and often challenging environmental factors, create surfaces that require a high degree of adaptation for microbial...

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Veröffentlicht in:Journal of experimental botany 2021-01, Vol.72 (1), p.36-56
Hauptverfasser: Chaudhry, Vasvi, Runge, Paul, Sengupta, Priyamedha, Doehlemann, Gunther, Parker, Jane E, Kemen, Eric
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container_start_page 36
container_title Journal of experimental botany
container_volume 72
creator Chaudhry, Vasvi
Runge, Paul
Sengupta, Priyamedha
Doehlemann, Gunther
Parker, Jane E
Kemen, Eric
description Abstract The aerial portion of a plant, namely the leaf, is inhabited by pathogenic and non-pathogenic microbes. The leaf’s physical and chemical properties, combined with fluctuating and often challenging environmental factors, create surfaces that require a high degree of adaptation for microbial colonization. As a consequence, specific interactive processes have evolved to establish a plant leaf niche. Little is known about the impact of the host immune system on phyllosphere colonization by non-pathogenic microbes. These organisms can trigger plant basal defenses and benefit the host by priming for enhanced resistance to pathogens. In most disease resistance responses, microbial signals are recognized by extra- or intracellular receptors. The interactions tend to be species specific and it is unclear how they shape leaf microbial communities. In natural habitats, microbe–microbe interactions are also important for shaping leaf communities. To protect resources, plant colonizers have developed direct antagonistic or host manipulation strategies to fight competitors. Phyllosphere-colonizing microbes respond to abiotic and biotic fluctuations and are therefore an important resource for adaptive and protective traits. Understanding the complex regulatory host–microbe–microbe networks is needed to transfer current knowledge to biotechnological applications such as plant-protective probiotics. Microbial colonization of above-ground parts of plants is a dynamic and interactive process that requires a high degree of adaptation. Understanding complex host–microbe–microbe interactions is key to new strategies for plant protection.
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The leaf’s physical and chemical properties, combined with fluctuating and often challenging environmental factors, create surfaces that require a high degree of adaptation for microbial colonization. As a consequence, specific interactive processes have evolved to establish a plant leaf niche. Little is known about the impact of the host immune system on phyllosphere colonization by non-pathogenic microbes. These organisms can trigger plant basal defenses and benefit the host by priming for enhanced resistance to pathogens. In most disease resistance responses, microbial signals are recognized by extra- or intracellular receptors. The interactions tend to be species specific and it is unclear how they shape leaf microbial communities. In natural habitats, microbe–microbe interactions are also important for shaping leaf communities. To protect resources, plant colonizers have developed direct antagonistic or host manipulation strategies to fight competitors. Phyllosphere-colonizing microbes respond to abiotic and biotic fluctuations and are therefore an important resource for adaptive and protective traits. Understanding the complex regulatory host–microbe–microbe networks is needed to transfer current knowledge to biotechnological applications such as plant-protective probiotics. Microbial colonization of above-ground parts of plants is a dynamic and interactive process that requires a high degree of adaptation. 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Phyllosphere-colonizing microbes respond to abiotic and biotic fluctuations and are therefore an important resource for adaptive and protective traits. Understanding the complex regulatory host–microbe–microbe networks is needed to transfer current knowledge to biotechnological applications such as plant-protective probiotics. Microbial colonization of above-ground parts of plants is a dynamic and interactive process that requires a high degree of adaptation. 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subjects Life Sciences & Biomedicine
Microbial Interactions
Microbiota
Plant Leaves
Plant Sciences
Plants
Review Papers
Science & Technology
title Shaping the leaf microbiota: plant–microbe–microbe interactions
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