Bacterial volatile compound-based tools for crop management and quality

Bacteria produce a huge diversity of metabolites, many of which mediate ecological relations. Among these, volatile compounds cause broad-range effects at low doses and, therefore, may be exploited for plant defence strategies and agricultural production, but such applications are still in their ear...

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Published inTrends in plant science Vol. 26; no. 9; pp. 968 - 983
Main Authors Cellini, Antonio, Spinelli, Francesco, Donati, Irene, Ryu, Choong-Min, Kloepper, Joseph W.
Format Journal Article
LanguageEnglish
Published Kidlington Elsevier Ltd 01.09.2021
Elsevier BV
Subjects
abiotic stress tolerance
Agricultural production
Agricultural technology
Bacteria
Biological control
Crop management
crop protection
crop quality
early development
Ecological effects
growth promotion
Inspection
Metabolites
Plant growth
plant growth-promoting bacteria
VOC-based diagnosis
Volatile compounds
VOC-based diagnosis
biological control
abiotic stress tolerance
plant growth-promoting bacteria
crop protection
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Abstract Bacteria produce a huge diversity of metabolites, many of which mediate ecological relations. Among these, volatile compounds cause broad-range effects at low doses and, therefore, may be exploited for plant defence strategies and agricultural production, but such applications are still in their early development. Here, we review the latest technologies involving the use of bacterial volatile compounds for phytosanitary inspection, biological control, plant growth promotion, and crop quality. We highlight a variety of effects with a potential applicative interest, based on either live biocontrol and/or biostimulant agents, or the isolated metabolites responsible for the interaction with hosts or competitors. Future agricultural technologies may benefit from the development of new analytical tools to understand bacterial interactions with the environment. Plant-associated bacteria interact with their environment through the exchange of chemicals, including volatile compounds. Innovative agricultural technologies may exploit the inherent advantages of bacterial airborne signals, including diffusibility, independence from water availability and physical connection, and absence of pesticide residuals.Volatile compounds resulting from plant–pathogen interactions allow nondestructive disease diagnosis on bulk samples of asymptomatic plant material.Volatile compounds, expressing a direct biocidal activity, interfering with signalling, or stimulating plant host defences, contribute to the biological control of pests and pathogens.Bacterial volatile compounds modulate plant hormones enhancing plant growth, stress tolerance, crop quality, aroma and nutraceutical characteristics, and reduce post-harvest losses.
AbstractList Bacteria produce a huge diversity of metabolites, many of which mediate ecological relations. Among these, volatile compounds cause broad-range effects at low doses and, therefore, may be exploited for plant defence strategies and agricultural production, but such applications are still in their early development. Here, we review the latest technologies involving the use of bacterial volatile compounds for phytosanitary inspection, biological control, plant growth promotion, and crop quality. We highlight a variety of effects with a potential applicative interest, based on either live biocontrol and/or biostimulant agents, or the isolated metabolites responsible for the interaction with hosts or competitors. Future agricultural technologies may benefit from the development of new analytical tools to understand bacterial interactions with the environment.Bacteria produce a huge diversity of metabolites, many of which mediate ecological relations. Among these, volatile compounds cause broad-range effects at low doses and, therefore, may be exploited for plant defence strategies and agricultural production, but such applications are still in their early development. Here, we review the latest technologies involving the use of bacterial volatile compounds for phytosanitary inspection, biological control, plant growth promotion, and crop quality. We highlight a variety of effects with a potential applicative interest, based on either live biocontrol and/or biostimulant agents, or the isolated metabolites responsible for the interaction with hosts or competitors. Future agricultural technologies may benefit from the development of new analytical tools to understand bacterial interactions with the environment.
Bacteria produce a huge diversity of metabolites, many of which mediate ecological relations. Among these, volatile compounds cause broad-range effects at low doses and, therefore, may be exploited for plant defence strategies and agricultural production, but such applications are still in their early development. Here, we review the latest technologies involving the use of bacterial volatile compounds for phytosanitary inspection, biological control, plant growth promotion, and crop quality. We highlight a variety of effects with a potential applicative interest, based on either live biocontrol and/or biostimulant agents, or the isolated metabolites responsible for the interaction with hosts or competitors. Future agricultural technologies may benefit from the development of new analytical tools to understand bacterial interactions with the environment.
Bacteria produce a huge diversity of metabolites, many of which mediate ecological relations. Among these, volatile compounds cause broad-range effects at low doses and, therefore, may be exploited for plant defence strategies and agricultural production, but such applications are still in their early development. Here, we review the latest technologies involving the use of bacterial volatile compounds for phytosanitary inspection, biological control, plant growth promotion, and crop quality. We highlight a variety of effects with a potential applicative interest, based on either live biocontrol and/or biostimulant agents, or the isolated metabolites responsible for the interaction with hosts or competitors. Future agricultural technologies may benefit from the development of new analytical tools to understand bacterial interactions with the environment. Plant-associated bacteria interact with their environment through the exchange of chemicals, including volatile compounds. Innovative agricultural technologies may exploit the inherent advantages of bacterial airborne signals, including diffusibility, independence from water availability and physical connection, and absence of pesticide residuals.Volatile compounds resulting from plant–pathogen interactions allow nondestructive disease diagnosis on bulk samples of asymptomatic plant material.Volatile compounds, expressing a direct biocidal activity, interfering with signalling, or stimulating plant host defences, contribute to the biological control of pests and pathogens.Bacterial volatile compounds modulate plant hormones enhancing plant growth, stress tolerance, crop quality, aroma and nutraceutical characteristics, and reduce post-harvest losses.
Author Ryu, Choong-Min
Kloepper, Joseph W.
Cellini, Antonio
Donati, Irene
Spinelli, Francesco
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  orcidid: 0000-0003-3870-1227
  surname: Spinelli
  fullname: Spinelli, Francesco
  email: francesco.spinelli3@unibo.it
  organization: Department of Agricultural and Food Sciences, Alma Mater Studiorum - University of Bologna, Bologna, Italy
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  givenname: Irene
  surname: Donati
  fullname: Donati, Irene
  organization: Department of Agricultural and Food Sciences, Alma Mater Studiorum - University of Bologna, Bologna, Italy
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  givenname: Choong-Min
  orcidid: 0000-0002-7276-1189
  surname: Ryu
  fullname: Ryu, Choong-Min
  organization: Infectious Disease Research Center, Korea Research Institute of Bioscience and Biotechnology (KRIBB), Daejeon, South Korea
– sequence: 5
  givenname: Joseph W.
  surname: Kloepper
  fullname: Kloepper, Joseph W.
  organization: Department of Entomology and Plant Pathology, Auburn University, Auburn, AL, USA
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Snippet Bacteria produce a huge diversity of metabolites, many of which mediate ecological relations. Among these, volatile compounds cause broad-range effects at low...
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SubjectTerms abiotic stress tolerance
Agricultural production
Agricultural technology
Bacteria
Biological control
Crop management
crop protection
crop quality
early development
Ecological effects
growth promotion
Inspection
Metabolites
Plant growth
plant growth-promoting bacteria
VOC-based diagnosis
Volatile compounds
Title Bacterial volatile compound-based tools for crop management and quality
URI https://dx.doi.org/10.1016/j.tplants.2021.05.006
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Volume 26
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