Microbiome-plant conversation in the rhizosphere.

Complex microbial communities assemble in the surrounding soil of plant roots, where they intimately interact with the host plant. An active selection process is established by the host plant, leading to the enrichment of specific members of the soil microbiome in the rhizosphere. Some of these rhizosphere-competent microorganisms find their way into the inner root tissues, forming the endosphere microbiome. This presentation will focus on the key factors governing chemical communication between the microbiome and the plant. These factors include plant exudates, microbial volatile compounds, and secondary metabolites. The complexity of these interactions will be illustrated by examining how the rhizosphere microbiome protects the root system against soil-borne pathogens. When attacked by the soil-borne pathogen Rhizoctonia, sugar beet plants activate a recruited rhizobacterial community, enriching diverse bacterial taxa. The alteration in the microbiome's structure and functions in the presence of the pathogen serves as a shield for the root system, protecting the plant in the soil. Even when the pathogen successfully invades the roots, the endosphere microbiome responds to the invasion by triggering bacterial biosynthetic gene clusters capable of combating the intruder. Understanding the mechanisms underlying communication between the microbiome and the plant is key to enhance beneficial interactions. In conclusion, unraveling the intricate communication between the microbiome and the plant not only sheds light on the complex mechanisms at play in these interactions but also holds the potential to harness beneficial relationships for improved plant health and agriculture.

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Bibliographic Details
Main Author: MENDES, R.
Other Authors: RODRIGO MENDES, CNPMA.
Format: Resumo em anais e proceedings biblioteca
Language:por
Published: 2024-03-18
Subjects:Rhizosphere colonization, Volatiles compounds, Microbial interactions, Microbiome assembly, Rizosfera, Microbial colonization, plant exudates,
Online Access:http://www.alice.cnptia.embrapa.br/alice/handle/doc/1162940
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spelling dig-alice-doc-11629402024-03-18T19:32:57Z Microbiome-plant conversation in the rhizosphere. MENDES, R. RODRIGO MENDES, CNPMA. Rhizosphere colonization Volatiles compounds Microbial interactions Microbiome assembly Rizosfera Microbial colonization plant exudates Complex microbial communities assemble in the surrounding soil of plant roots, where they intimately interact with the host plant. An active selection process is established by the host plant, leading to the enrichment of specific members of the soil microbiome in the rhizosphere. Some of these rhizosphere-competent microorganisms find their way into the inner root tissues, forming the endosphere microbiome. This presentation will focus on the key factors governing chemical communication between the microbiome and the plant. These factors include plant exudates, microbial volatile compounds, and secondary metabolites. The complexity of these interactions will be illustrated by examining how the rhizosphere microbiome protects the root system against soil-borne pathogens. When attacked by the soil-borne pathogen Rhizoctonia, sugar beet plants activate a recruited rhizobacterial community, enriching diverse bacterial taxa. The alteration in the microbiome's structure and functions in the presence of the pathogen serves as a shield for the root system, protecting the plant in the soil. Even when the pathogen successfully invades the roots, the endosphere microbiome responds to the invasion by triggering bacterial biosynthetic gene clusters capable of combating the intruder. Understanding the mechanisms underlying communication between the microbiome and the plant is key to enhance beneficial interactions. In conclusion, unraveling the intricate communication between the microbiome and the plant not only sheds light on the complex mechanisms at play in these interactions but also holds the potential to harness beneficial relationships for improved plant health and agriculture. 2024-03-18T19:32:57Z 2024-03-18T19:32:57Z 2024-03-18 2023 Resumo em anais e proceedings In: PLANT MICROBIOME SYMPOSIUM, 4., 2023, Quito. Abstracts... Quito, Equador: Universidad San Francisco de Quito, 2023. http://www.alice.cnptia.embrapa.br/alice/handle/doc/1162940 por openAccess 1 p.
institution EMBRAPA
collection DSpace
country Brasil
countrycode BR
component Bibliográfico
access En linea
databasecode dig-alice
tag biblioteca
region America del Sur
libraryname Sistema de bibliotecas de EMBRAPA
language por
topic Rhizosphere colonization
Volatiles compounds
Microbial interactions
Microbiome assembly
Rizosfera
Microbial colonization
plant exudates
Rhizosphere colonization
Volatiles compounds
Microbial interactions
Microbiome assembly
Rizosfera
Microbial colonization
plant exudates
spellingShingle Rhizosphere colonization
Volatiles compounds
Microbial interactions
Microbiome assembly
Rizosfera
Microbial colonization
plant exudates
Rhizosphere colonization
Volatiles compounds
Microbial interactions
Microbiome assembly
Rizosfera
Microbial colonization
plant exudates
MENDES, R.
Microbiome-plant conversation in the rhizosphere.
description Complex microbial communities assemble in the surrounding soil of plant roots, where they intimately interact with the host plant. An active selection process is established by the host plant, leading to the enrichment of specific members of the soil microbiome in the rhizosphere. Some of these rhizosphere-competent microorganisms find their way into the inner root tissues, forming the endosphere microbiome. This presentation will focus on the key factors governing chemical communication between the microbiome and the plant. These factors include plant exudates, microbial volatile compounds, and secondary metabolites. The complexity of these interactions will be illustrated by examining how the rhizosphere microbiome protects the root system against soil-borne pathogens. When attacked by the soil-borne pathogen Rhizoctonia, sugar beet plants activate a recruited rhizobacterial community, enriching diverse bacterial taxa. The alteration in the microbiome's structure and functions in the presence of the pathogen serves as a shield for the root system, protecting the plant in the soil. Even when the pathogen successfully invades the roots, the endosphere microbiome responds to the invasion by triggering bacterial biosynthetic gene clusters capable of combating the intruder. Understanding the mechanisms underlying communication between the microbiome and the plant is key to enhance beneficial interactions. In conclusion, unraveling the intricate communication between the microbiome and the plant not only sheds light on the complex mechanisms at play in these interactions but also holds the potential to harness beneficial relationships for improved plant health and agriculture.
author2 RODRIGO MENDES, CNPMA.
author_facet RODRIGO MENDES, CNPMA.
MENDES, R.
format Resumo em anais e proceedings
topic_facet Rhizosphere colonization
Volatiles compounds
Microbial interactions
Microbiome assembly
Rizosfera
Microbial colonization
plant exudates
author MENDES, R.
author_sort MENDES, R.
title Microbiome-plant conversation in the rhizosphere.
title_short Microbiome-plant conversation in the rhizosphere.
title_full Microbiome-plant conversation in the rhizosphere.
title_fullStr Microbiome-plant conversation in the rhizosphere.
title_full_unstemmed Microbiome-plant conversation in the rhizosphere.
title_sort microbiome-plant conversation in the rhizosphere.
publishDate 2024-03-18
url http://www.alice.cnptia.embrapa.br/alice/handle/doc/1162940
work_keys_str_mv AT mendesr microbiomeplantconversationintherhizosphere
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