Wound- and mechanostimulated electrical signals control hormone responses

Plants in nature are constantly exposed to organisms that touch them and wound them.A highly conserved response to these stimuli is a rapid collapse of membrane potential (i.e. a decrease of electrical field strength across membranes). This can be coupled to the production and/or action of jasmonate...

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Published inThe New phytologist Vol. 227; no. 4; pp. 1037 - 1050
Main Authors Farmer, Edward E., Gao, Yong-Qiang, Lenzoni, Gioia, Wolfender, Jean-Luc, Wu, Qian
Format Journal Article
LanguageEnglish
Published England Wiley 01.08.2020
Wiley Subscription Services, Inc
Subjects
action potential
Arabidopsis
Arabidopsis Proteins
Calcium
Calcium ions
Cell walls
Depolarization
electric field
electroosmosis
ethylene
Field strength
Genes
Glutamate receptors
glutamic acid
Homology
Hormones
jasmonate
Jasmonic acid
Leaves
mechanostimulation
Membrane potential
Membranes
oxidoreductases
Phloem
Plant Leaves
Power plants
Propagation
respiratory burst
Respiratory burst oxidase
Signaling
Stimuli
Tansley review
Touch
Turgor
Wounds
Xylem
calcium
mechanostimulation
action potential
ethylene
jasmonate
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Abstract Plants in nature are constantly exposed to organisms that touch them and wound them.A highly conserved response to these stimuli is a rapid collapse of membrane potential (i.e. a decrease of electrical field strength across membranes). This can be coupled to the production and/or action of jasmonate or ethylene. Here, the various types of electrical signals in plants are discussed in the context of hormone responses. Genetic approaches are revealing genes involved in wound-induced electrical signalling. These include clade 3 GLUTAMATE RECEPTOR-LIKE (GLR) genes, Arabidopsis H⁺-ATPases (AHAs), RESPIRATORY BURST OXIDASE HOMOLOGUEs (RBOHs), and genes that determine cell wall properties. We briefly review touch- and wound-induced increases in cytosolic Ca2+ concentrations and their temporal relationship to electrical activities. We then look at the questions that need addressing to link mechanostimulation and wound-induced electrical activity to hormone responses. Utilizing recently published results, we also present a hypothesis for wound-response leaf-to-leaf electrical signalling. This model is based on rapid electro-osmotic coupling between the phloem and xylem. The model suggests that the depolarization of membranes within the vascular matrix triggered by physical stimuli and/or chemical elicitors is linked to changes in phloem turgor and that this plays vital roles in leaf-to-leaf electrical signal propagation.
AbstractList Summary Plants in nature are constantly exposed to organisms that touch them and wound them. A highly conserved response to these stimuli is a rapid collapse of membrane potential (i.e. a decrease of electrical field strength across membranes). This can be coupled to the production and/or action of jasmonate or ethylene. Here, the various types of electrical signals in plants are discussed in the context of hormone responses. Genetic approaches are revealing genes involved in wound‐induced electrical signalling. These include clade 3 GLUTAMATE RECEPTOR‐LIKE (GLR) genes, Arabidopsis H+‐ATPases (AHAs), RESPIRATORY BURST OXIDASE HOMOLOGUEs (RBOHs), and genes that determine cell wall properties. We briefly review touch‐ and wound‐induced increases in cytosolic Ca2+ concentrations and their temporal relationship to electrical activities. We then look at the questions that need addressing to link mechanostimulation and wound‐induced electrical activity to hormone responses. Utilizing recently published results, we also present a hypothesis for wound‐response leaf‐to‐leaf electrical signalling. This model is based on rapid electro‐osmotic coupling between the phloem and xylem. The model suggests that the depolarization of membranes within the vascular matrix triggered by physical stimuli and/or chemical elicitors is linked to changes in phloem turgor and that this plays vital roles in leaf‐to‐leaf electrical signal propagation.
Plants in nature are constantly exposed to organisms that touch them and wound them. A highly conserved response to these stimuli is a rapid collapse of membrane potential (i.e. a decrease of electrical field strength across membranes). This can be coupled to the production and/or action of jasmonate or ethylene. Here, the various types of electrical signals in plants are discussed in the context of hormone responses. Genetic approaches are revealing genes involved in wound-induced electrical signalling. These include clade 3 GLUTAMATE RECEPTOR-LIKE (GLR) genes, Arabidopsis H+ -ATPases (AHAs), RESPIRATORY BURST OXIDASE HOMOLOGUEs (RBOHs), and genes that determine cell wall properties. We briefly review touch- and wound-induced increases in cytosolic Ca2+ concentrations and their temporal relationship to electrical activities. We then look at the questions that need addressing to link mechanostimulation and wound-induced electrical activity to hormone responses. Utilizing recently published results, we also present a hypothesis for wound-response leaf-to-leaf electrical signalling. This model is based on rapid electro-osmotic coupling between the phloem and xylem. The model suggests that the depolarization of membranes within the vascular matrix triggered by physical stimuli and/or chemical elicitors is linked to changes in phloem turgor and that this plays vital roles in leaf-to-leaf electrical signal propagation.Plants in nature are constantly exposed to organisms that touch them and wound them. A highly conserved response to these stimuli is a rapid collapse of membrane potential (i.e. a decrease of electrical field strength across membranes). This can be coupled to the production and/or action of jasmonate or ethylene. Here, the various types of electrical signals in plants are discussed in the context of hormone responses. Genetic approaches are revealing genes involved in wound-induced electrical signalling. These include clade 3 GLUTAMATE RECEPTOR-LIKE (GLR) genes, Arabidopsis H+ -ATPases (AHAs), RESPIRATORY BURST OXIDASE HOMOLOGUEs (RBOHs), and genes that determine cell wall properties. We briefly review touch- and wound-induced increases in cytosolic Ca2+ concentrations and their temporal relationship to electrical activities. We then look at the questions that need addressing to link mechanostimulation and wound-induced electrical activity to hormone responses. Utilizing recently published results, we also present a hypothesis for wound-response leaf-to-leaf electrical signalling. This model is based on rapid electro-osmotic coupling between the phloem and xylem. The model suggests that the depolarization of membranes within the vascular matrix triggered by physical stimuli and/or chemical elicitors is linked to changes in phloem turgor and that this plays vital roles in leaf-to-leaf electrical signal propagation.
Plants in nature are constantly exposed to organisms that touch them and wound them.A highly conserved response to these stimuli is a rapid collapse of membrane potential (i.e. a decrease of electrical field strength across membranes). This can be coupled to the production and/or action of jasmonate or ethylene. Here, the various types of electrical signals in plants are discussed in the context of hormone responses. Genetic approaches are revealing genes involved in wound-induced electrical signalling. These include clade 3 GLUTAMATE RECEPTOR-LIKE (GLR) genes, Arabidopsis H⁺-ATPases (AHAs), RESPIRATORY BURST OXIDASE HOMOLOGUEs (RBOHs), and genes that determine cell wall properties. We briefly review touch- and wound-induced increases in cytosolic Ca2+ concentrations and their temporal relationship to electrical activities. We then look at the questions that need addressing to link mechanostimulation and wound-induced electrical activity to hormone responses. Utilizing recently published results, we also present a hypothesis for wound-response leaf-to-leaf electrical signalling. This model is based on rapid electro-osmotic coupling between the phloem and xylem. The model suggests that the depolarization of membranes within the vascular matrix triggered by physical stimuli and/or chemical elicitors is linked to changes in phloem turgor and that this plays vital roles in leaf-to-leaf electrical signal propagation.
Plants in nature are constantly exposed to organisms that touch them and wound them. A highly conserved response to these stimuli is a rapid collapse of membrane potential (i.e. a decrease of electrical field strength across membranes). This can be coupled to the production and/or action of jasmonate or ethylene. Here, the various types of electrical signals in plants are discussed in the context of hormone responses. Genetic approaches are revealing genes involved in wound-induced electrical signalling. These include clade 3 GLUTAMATE RECEPTOR-LIKE (GLR) genes, Arabidopsis H -ATPases (AHAs), RESPIRATORY BURST OXIDASE HOMOLOGUEs (RBOHs), and genes that determine cell wall properties. We briefly review touch- and wound-induced increases in cytosolic Ca concentrations and their temporal relationship to electrical activities. We then look at the questions that need addressing to link mechanostimulation and wound-induced electrical activity to hormone responses. Utilizing recently published results, we also present a hypothesis for wound-response leaf-to-leaf electrical signalling. This model is based on rapid electro-osmotic coupling between the phloem and xylem. The model suggests that the depolarization of membranes within the vascular matrix triggered by physical stimuli and/or chemical elicitors is linked to changes in phloem turgor and that this plays vital roles in leaf-to-leaf electrical signal propagation.
Plants in nature are constantly exposed to organisms that touch them and wound them. A highly conserved response to these stimuli is a rapid collapse of membrane potential (i.e. a decrease of electrical field strength across membranes). This can be coupled to the production and/or action of jasmonate or ethylene. Here, the various types of electrical signals in plants are discussed in the context of hormone responses. Genetic approaches are revealing genes involved in wound‐induced electrical signalling. These include clade 3 GLUTAMATE RECEPTOR‐LIKE ( GLR ) genes, Arabidopsis H + ‐ATPases ( AHA s), RESPIRATORY BURST OXIDASE HOMOLOGUE s ( RBOH s), and genes that determine cell wall properties. We briefly review touch‐ and wound‐induced increases in cytosolic Ca 2+ concentrations and their temporal relationship to electrical activities. We then look at the questions that need addressing to link mechanostimulation and wound‐induced electrical activity to hormone responses. Utilizing recently published results, we also present a hypothesis for wound‐response leaf‐to‐leaf electrical signalling. This model is based on rapid electro‐osmotic coupling between the phloem and xylem. The model suggests that the depolarization of membranes within the vascular matrix triggered by physical stimuli and/or chemical elicitors is linked to changes in phloem turgor and that this plays vital roles in leaf‐to‐leaf electrical signal propagation.
Plants in nature are constantly exposed to organisms that touch them and wound them. A highly conserved response to these stimuli is a rapid collapse of membrane potential (i.e. a decrease of electrical field strength across membranes). This can be coupled to the production and/or action of jasmonate or ethylene. Here, the various types of electrical signals in plants are discussed in the context of hormone responses. Genetic approaches are revealing genes involved in wound‐induced electrical signalling. These include clade 3 GLUTAMATE RECEPTOR‐LIKE (GLR) genes, Arabidopsis H+‐ATPases (AHAs), RESPIRATORY BURST OXIDASE HOMOLOGUEs (RBOHs), and genes that determine cell wall properties. We briefly review touch‐ and wound‐induced increases in cytosolic Ca2+ concentrations and their temporal relationship to electrical activities. We then look at the questions that need addressing to link mechanostimulation and wound‐induced electrical activity to hormone responses. Utilizing recently published results, we also present a hypothesis for wound‐response leaf‐to‐leaf electrical signalling. This model is based on rapid electro‐osmotic coupling between the phloem and xylem. The model suggests that the depolarization of membranes within the vascular matrix triggered by physical stimuli and/or chemical elicitors is linked to changes in phloem turgor and that this plays vital roles in leaf‐to‐leaf electrical signal propagation.
Plants in nature are constantly exposed to organisms that touch them and wound them. A highly conserved response to these stimuli is a rapid collapse of membrane potential (i.e. a decrease of electrical field strength across membranes). This can be coupled to the production and/or action of jasmonate or ethylene. Here, the various types of electrical signals in plants are discussed in the context of hormone responses. Genetic approaches are revealing genes involved in wound‐induced electrical signalling. These include clade 3 GLUTAMATE RECEPTOR‐LIKE (GLR) genes, Arabidopsis H⁺‐ATPases (AHAs), RESPIRATORY BURST OXIDASE HOMOLOGUEs (RBOHs), and genes that determine cell wall properties. We briefly review touch‐ and wound‐induced increases in cytosolic Ca²⁺ concentrations and their temporal relationship to electrical activities. We then look at the questions that need addressing to link mechanostimulation and wound‐induced electrical activity to hormone responses. Utilizing recently published results, we also present a hypothesis for wound‐response leaf‐to‐leaf electrical signalling. This model is based on rapid electro‐osmotic coupling between the phloem and xylem. The model suggests that the depolarization of membranes within the vascular matrix triggered by physical stimuli and/or chemical elicitors is linked to changes in phloem turgor and that this plays vital roles in leaf‐to‐leaf electrical signal propagation.
Author Lenzoni, Gioia
Wolfender, Jean-Luc
Farmer, Edward E.
Wu, Qian
Gao, Yong-Qiang
Author_xml – sequence: 1
  givenname: Edward E.
  surname: Farmer
  fullname: Farmer, Edward E.
– sequence: 2
  givenname: Yong-Qiang
  surname: Gao
  fullname: Gao, Yong-Qiang
– sequence: 3
  givenname: Gioia
  surname: Lenzoni
  fullname: Lenzoni, Gioia
– sequence: 4
  givenname: Jean-Luc
  surname: Wolfender
  fullname: Wolfender, Jean-Luc
– sequence: 5
  givenname: Qian
  surname: Wu
  fullname: Wu, Qian
BackLink https://www.ncbi.nlm.nih.gov/pubmed/32392391$$D View this record in MEDLINE/PubMed
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Issue 4
Keywords calcium
mechanostimulation
action potential
ethylene
jasmonate
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Snippet Plants in nature are constantly exposed to organisms that touch them and wound them.A highly conserved response to these stimuli is a rapid collapse of...
Summary Plants in nature are constantly exposed to organisms that touch them and wound them. A highly conserved response to these stimuli is a rapid collapse...
Plants in nature are constantly exposed to organisms that touch them and wound them. A highly conserved response to these stimuli is a rapid collapse of...
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SubjectTerms action potential
Arabidopsis
Arabidopsis Proteins
Calcium
Calcium ions
Cell walls
Depolarization
electric field
electroosmosis
ethylene
Field strength
Genes
Glutamate receptors
glutamic acid
Homology
Hormones
jasmonate
Jasmonic acid
Leaves
mechanostimulation
Membrane potential
Membranes
oxidoreductases
Phloem
Plant Leaves
Power plants
Propagation
respiratory burst
Respiratory burst oxidase
Signaling
Stimuli
Tansley review
Touch
Turgor
Wounds
Xylem
Title Wound- and mechanostimulated electrical signals control hormone responses
URI https://www.jstor.org/stable/26928220
https://onlinelibrary.wiley.com/doi/abs/10.1111%2Fnph.16646
https://www.ncbi.nlm.nih.gov/pubmed/32392391
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