Gibberellin antagonizes jasmonate-induced defense against Meloidogyne graminicola in rice

Gibberellin (GA) regulates various plant growth and developmental processes, but its role in pathogen attack, and especially nematode–plant interactions, still remains to be elucidated. An in-depth characterization of the role of GA in nematode infection was conducted using mutant lines of rice, che...

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Veröffentlicht in:The New phytologist Jg. 218; H. 2; S. 646 - 660
Hauptverfasser: Yimer, Henok Zemene, Nahar, Kamrun, Kyndt, Tina, Haeck, Ashley, Van Meulebroek, Lieven, Vanhaecke, Lynn, Demeestere, Kristof, Höfte, Monica, Gheysen, Godelieve
Format: Journal Article
Sprache:Englisch
Veröffentlicht: England New Phytologist Trust 01.04.2018
Schlagworte:
auxin
auxins
biosynthesis
chemical inhibitors
DELLA
foliar spraying
gibberellic acid
gibberellin (GA)
jasmonate (JA)
jasmonic acid
Meloidogyne graminicola
mutants
nematode infections
pathogens
plant growth
rice
SLR1
gibberellin (GA)
auxin
jasmonate (JA)
rice
DELLA
SLR1
Meloidogyne graminicola
ISSN:0028-646X, 1469-8137, 1469-8137
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Abstract Gibberellin (GA) regulates various plant growth and developmental processes, but its role in pathogen attack, and especially nematode–plant interactions, still remains to be elucidated. An in-depth characterization of the role of GA in nematode infection was conducted using mutant lines of rice, chemical inhibitors, and phytohormone measurements. Our results showed that GA influences rice–Meloidogyne graminicola interactions in a concentration-dependent manner. Foliar spray of plants with a low concentration of gibberellic acid enhanced nematode infection. Biosynthetic and signaling mutants confirmed the importance of gibberellin for rice susceptibility to M. graminicola infection. Our study also demonstrates that GA signaling suppresses jasmonate (JA)-mediated defense against M. graminicola, and likewise the JA-induced defense against M. graminicola requires SLENDER RICE1 (SLR1)-mediated repression of the GA pathway. In contrast to observations from other plant–pathogen interactions, GA plays a dominant role over JA in determining susceptibility to M. graminicola in rice. This GA-induced nematode susceptibility was largely independent of auxin biosynthesis, but relied on auxin transport. In conclusion, we showed that GA–JA antagonistic crosstalk is at the forefront of the interaction between rice and M. graminicola, and SLR1 plays a central role in the JA-mediated defense response in rice against this nematode.
AbstractList Gibberellin (GA) regulates various plant growth and developmental processes, but its role in pathogen attack, and especially nematode-plant interactions, still remains to be elucidated. An in-depth characterization of the role of GA in nematode infection was conducted using mutant lines of rice, chemical inhibitors, and phytohormone measurements. Our results showed that GA influences rice-Meloidogyne graminicola interactions in a concentration-dependent manner. Foliar spray of plants with a low concentration of gibberellic acid enhanced nematode infection. Biosynthetic and signaling mutants confirmed the importance of gibberellin for rice susceptibility to M. graminicola infection. Our study also demonstrates that GA signaling suppresses jasmonate (JA)-mediated defense against M. graminicola, and likewise the JA-induced defense against M. graminicola requires SLENDER RICE1 (SLR1)-mediated repression of the GA pathway. In contrast to observations from other plant-pathogen interactions, GA plays a dominant role over JA in determining susceptibility to M. graminicola in rice. This GA-induced nematode susceptibility was largely independent of auxin biosynthesis, but relied on auxin transport. In conclusion, we showed that GA-JA antagonistic crosstalk is at the forefront of the interaction between rice and M. graminicola, and SLR1 plays a central role in the JA-mediated defense response in rice against this nematode.
Gibberellin (GA) regulates various plant growth and developmental processes, but its role in pathogen attack, and especially nematode–plant interactions, still remains to be elucidated. An in‐depth characterization of the role of GA in nematode infection was conducted using mutant lines of rice, chemical inhibitors, and phytohormone measurements. Our results showed that GA influences rice– Meloidogyne graminicola interactions in a concentration‐dependent manner. Foliar spray of plants with a low concentration of gibberellic acid enhanced nematode infection. Biosynthetic and signaling mutants confirmed the importance of gibberellin for rice susceptibility to M. graminicola infection. Our study also demonstrates that GA signaling suppresses jasmonate (JA)‐mediated defense against M. graminicola , and likewise the JA‐induced defense against M. graminicola requires SLENDER RICE1 (SLR1)‐mediated repression of the GA pathway. In contrast to observations from other plant–pathogen interactions, GA plays a dominant role over JA in determining susceptibility to M. graminicola in rice. This GA‐induced nematode susceptibility was largely independent of auxin biosynthesis, but relied on auxin transport. In conclusion, we showed that GA–JA antagonistic crosstalk is at the forefront of the interaction between rice and M. graminicola , and SLR1 plays a central role in the JA‐mediated defense response in rice against this nematode.
Gibberellin (GA) regulates various plant growth and developmental processes, but its role in pathogen attack, and especially nematode–plant interactions, still remains to be elucidated. An in‐depth characterization of the role of GA in nematode infection was conducted using mutant lines of rice, chemical inhibitors, and phytohormone measurements. Our results showed that GA influences rice–Meloidogyne graminicola interactions in a concentration‐dependent manner. Foliar spray of plants with a low concentration of gibberellic acid enhanced nematode infection. Biosynthetic and signaling mutants confirmed the importance of gibberellin for rice susceptibility to M. graminicola infection. Our study also demonstrates that GA signaling suppresses jasmonate (JA)‐mediated defense against M. graminicola, and likewise the JA‐induced defense against M. graminicola requires SLENDER RICE1 (SLR1)‐mediated repression of the GA pathway. In contrast to observations from other plant–pathogen interactions, GA plays a dominant role over JA in determining susceptibility to M. graminicola in rice. This GA‐induced nematode susceptibility was largely independent of auxin biosynthesis, but relied on auxin transport. In conclusion, we showed that GA–JA antagonistic crosstalk is at the forefront of the interaction between rice and M. graminicola, and SLR1 plays a central role in the JA‐mediated defense response in rice against this nematode.
Gibberellin (GA) regulates various plant growth and developmental processes, but its role in pathogen attack, and especially nematode-plant interactions, still remains to be elucidated. An in-depth characterization of the role of GA in nematode infection was conducted using mutant lines of rice, chemical inhibitors, and phytohormone measurements. Our results showed that GA influences rice-Meloidogyne graminicola interactions in a concentration-dependent manner. Foliar spray of plants with a low concentration of gibberellic acid enhanced nematode infection. Biosynthetic and signaling mutants confirmed the importance of gibberellin for rice susceptibility to M. graminicola infection. Our study also demonstrates that GA signaling suppresses jasmonate (JA)-mediated defense against M. graminicola, and likewise the JA-induced defense against M. graminicola requires SLENDER RICE1 (SLR1)-mediated repression of the GA pathway. In contrast to observations from other plant-pathogen interactions, GA plays a dominant role over JA in determining susceptibility to M. graminicola in rice. This GA-induced nematode susceptibility was largely independent of auxin biosynthesis, but relied on auxin transport. In conclusion, we showed that GA-JA antagonistic crosstalk is at the forefront of the interaction between rice and M. graminicola, and SLR1 plays a central role in the JA-mediated defense response in rice against this nematode.Gibberellin (GA) regulates various plant growth and developmental processes, but its role in pathogen attack, and especially nematode-plant interactions, still remains to be elucidated. An in-depth characterization of the role of GA in nematode infection was conducted using mutant lines of rice, chemical inhibitors, and phytohormone measurements. Our results showed that GA influences rice-Meloidogyne graminicola interactions in a concentration-dependent manner. Foliar spray of plants with a low concentration of gibberellic acid enhanced nematode infection. Biosynthetic and signaling mutants confirmed the importance of gibberellin for rice susceptibility to M. graminicola infection. Our study also demonstrates that GA signaling suppresses jasmonate (JA)-mediated defense against M. graminicola, and likewise the JA-induced defense against M. graminicola requires SLENDER RICE1 (SLR1)-mediated repression of the GA pathway. In contrast to observations from other plant-pathogen interactions, GA plays a dominant role over JA in determining susceptibility to M. graminicola in rice. This GA-induced nematode susceptibility was largely independent of auxin biosynthesis, but relied on auxin transport. In conclusion, we showed that GA-JA antagonistic crosstalk is at the forefront of the interaction between rice and M. graminicola, and SLR1 plays a central role in the JA-mediated defense response in rice against this nematode.
Summary Gibberellin (GA) regulates various plant growth and developmental processes, but its role in pathogen attack, and especially nematode–plant interactions, still remains to be elucidated. An in‐depth characterization of the role of GA in nematode infection was conducted using mutant lines of rice, chemical inhibitors, and phytohormone measurements. Our results showed that GA influences rice–Meloidogyne graminicola interactions in a concentration‐dependent manner. Foliar spray of plants with a low concentration of gibberellic acid enhanced nematode infection. Biosynthetic and signaling mutants confirmed the importance of gibberellin for rice susceptibility to M. graminicola infection. Our study also demonstrates that GA signaling suppresses jasmonate (JA)‐mediated defense against M. graminicola, and likewise the JA‐induced defense against M. graminicola requires SLENDER RICE1 (SLR1)‐mediated repression of the GA pathway. In contrast to observations from other plant–pathogen interactions, GA plays a dominant role over JA in determining susceptibility to M. graminicola in rice. This GA‐induced nematode susceptibility was largely independent of auxin biosynthesis, but relied on auxin transport. In conclusion, we showed that GA–JA antagonistic crosstalk is at the forefront of the interaction between rice and M. graminicola, and SLR1 plays a central role in the JA‐mediated defense response in rice against this nematode.
Gibberellin (GA) regulates various plant growth and developmental processes, but its role in pathogen attack, and especially nematode–plant interactions, still remains to be elucidated. An in-depth characterization of the role of GA in nematode infection was conducted using mutant lines of rice, chemical inhibitors, and phytohormone measurements. Our results showed that GA influences rice–Meloidogyne graminicola interactions in a concentration-dependent manner. Foliar spray of plants with a low concentration of gibberellic acid enhanced nematode infection. Biosynthetic and signaling mutants confirmed the importance of gibberellin for rice susceptibility to M. graminicola infection. Our study also demonstrates that GA signaling suppresses jasmonate (JA)-mediated defense against M. graminicola, and likewise the JA-induced defense against M. graminicola requires SLENDER RICE1 (SLR1)-mediated repression of the GA pathway. In contrast to observations from other plant–pathogen interactions, GA plays a dominant role over JA in determining susceptibility to M. graminicola in rice. This GA-induced nematode susceptibility was largely independent of auxin biosynthesis, but relied on auxin transport. In conclusion, we showed that GA–JA antagonistic crosstalk is at the forefront of the interaction between rice and M. graminicola, and SLR1 plays a central role in the JA-mediated defense response in rice against this nematode.
Author Lieven Van Meulebroek
Tina Kyndt
Kamrun Nahar
Lynn Vanhaecke
Monica Höfte
Henok Zemene Yimer
Ashley Haeck
Godelieve Gheysen
Kristof Demeestere
Author_xml – sequence: 1
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  surname: Yimer
  fullname: Yimer, Henok Zemene
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  givenname: Kamrun
  surname: Nahar
  fullname: Nahar, Kamrun
  organization: Ghent University
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  givenname: Tina
  orcidid: 0000-0002-5267-5013
  surname: Kyndt
  fullname: Kyndt, Tina
  organization: Ghent University
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  givenname: Ashley
  surname: Haeck
  fullname: Haeck, Ashley
  organization: Ghent University
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  givenname: Lieven
  surname: Van Meulebroek
  fullname: Van Meulebroek, Lieven
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  givenname: Lynn
  surname: Vanhaecke
  fullname: Vanhaecke, Lynn
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  surname: Höfte
  fullname: Höfte, Monica
  organization: Ghent University
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  givenname: Godelieve
  orcidid: 0000-0003-1929-5059
  surname: Gheysen
  fullname: Gheysen, Godelieve
  email: Godelieve.Gheysen@ugent.be
  organization: Ghent University
BackLink https://www.ncbi.nlm.nih.gov/pubmed/29464725$$D View this record in MEDLINE/PubMed
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2018 The Authors. New Phytologist © 2018 New Phytologist Trust
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ISSN 0028-646X
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Issue 2
Keywords gibberellin (GA)
auxin
jasmonate (JA)
rice
DELLA
SLR1
Meloidogyne graminicola
Language English
License http://onlinelibrary.wiley.com/termsAndConditions#vor
2018 The Authors. New Phytologist © 2018 New Phytologist Trust.
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Snippet Gibberellin (GA) regulates various plant growth and developmental processes, but its role in pathogen attack, and especially nematode–plant interactions, still...
Summary Gibberellin (GA) regulates various plant growth and developmental processes, but its role in pathogen attack, and especially nematode–plant...
Gibberellin (GA) regulates various plant growth and developmental processes, but its role in pathogen attack, and especially nematode-plant interactions, still...
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StartPage 646
SubjectTerms auxin
auxins
biosynthesis
chemical inhibitors
DELLA
foliar spraying
gibberellic acid
gibberellin (GA)
jasmonate (JA)
jasmonic acid
Meloidogyne graminicola
mutants
nematode infections
pathogens
plant growth
rice
SLR1
Title Gibberellin antagonizes jasmonate-induced defense against Meloidogyne graminicola in rice
URI https://www.jstor.org/stable/90019939
https://onlinelibrary.wiley.com/doi/abs/10.1111%2Fnph.15046
https://www.ncbi.nlm.nih.gov/pubmed/29464725
https://www.proquest.com/docview/2007114356
https://www.proquest.com/docview/2067292273
Volume 218
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