The effects of methyl jasmonate (JA-Me) on early light-inducible protein (ELIP) expression in barley
First-pass extracted concept
methyl jasmonate
Candidate: toolkit item1 source documents11 linked claims
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Aliases
JA-Me
Evidence Snippets
Supporting Sources
Linked Claims
Under JA-Me treatment, reduction of ELIP transcript levels is less pronounced than reduction of light-harvesting complex II and small subunit of Rubisco transcripts, indicating that light stress still affects gene expression in the presence of JA-Me.
Quoted textsource-backed
The fact that the reduction of ELIP transcript levels is less pronounced than those of light-harvesting complex II and small subunit of Rubisco transcripts indicates that light stress is still affecting gene expression in the presence of JA-Me.
In the presence of JA-Me, reduction of ELIP transcript levels is less pronounced than reduction of light-harvesting complex II and small subunit of Rubisco transcripts, indicating that light stress still affects gene expression.
Quoted textsource-backed
The fact that the reduction of ELIP transcript levels is less pronounced than those of light-harvesting complex II and small subunit of Rubisco transcripts indicates that light stress is still affecting gene expression in the presence of JA-Me.
In barley leaf segments, methyl jasmonate considerably down-regulates expression of both low- and high-molecular-mass ELIP families at transcript and protein levels.
Quoted textsource-backed
The expression of both low- and high-molecular-mass ELIP families is considerably down-regulated by JA-Me at the transcript and protein levels.
Jasmonate-induced protein transcript levels induced by JA-Me decline under light stress conditions.
Quoted textsource-backed
The jasmonate-induced protein transcript levels that are induced by JA-Me decline under light stress conditions.
Methyl jasmonate considerably down-regulates expression of both low- and high-molecular-mass ELIP families at transcript and protein levels in barley leaf segments.
Quoted textsource-backed
The expression of both low- and high-molecular-mass ELIP families is considerably down-regulated by JA-Me at the transcript and protein levels.
Jasmonate-induced protein transcript levels induced by JA-Me decline under light stress conditions.
Quoted textsource-backed
The jasmonate-induced protein transcript levels that are induced by JA-Me decline under light stress conditions.
JA-Me-treated barley leaf segments show increased photoinhibition, including massive D1 protein degradation, delayed recovery of photosystem II activity, and a more pronounced decrease in photosystem II photochemical efficiency under high light than water controls.
Quoted textsource-backed
This repression occurs despite increased photoinhibition measurable as a massive degradation of D1 protein and a delayed recovery of photosystem II activity. In JA-Me-treated leaf segments, the decrease of the photochemical efficiency of photosystem II under high light is substantially more pronounced as compared to controls in water.
JA-Me-treated barley leaf segments show increased photoinhibition, including massive degradation of D1 protein and delayed recovery of photosystem II activity.
Quoted textsource-backed
This repression occurs despite increased photoinhibition measurable as a massive degradation of D1 protein and a delayed recovery of photosystem II activity.
Under high light, JA-Me-treated barley leaf segments have a more pronounced decrease in photochemical efficiency of photosystem II than water-treated controls.
Quoted textsource-backed
In JA-Me-treated leaf segments, the decrease of the photochemical efficiency of photosystem II under high light is substantially more pronounced as compared to controls in water.
Treatment of barley leaf segments with methyl jasmonate induces loss of pigments and enhanced light stress associated with increased ELIP expression under both high- and low-light conditions.
Quoted textsource-backed
Treatment of leaf segments with JA-Me induces the same symptoms as those exhibited by norflurazon bleaching, including a loss of pigments and enhanced light stress that results in increased ELIP expression under both high- and low-light conditions.
Treatment of barley leaf segments with methyl jasmonate induces loss of pigments and enhanced light stress associated with increased ELIP expression under both high- and low-light conditions.
Quoted textsource-backed
Treatment of leaf segments with JA-Me induces the same symptoms as those exhibited by norflurazon bleaching, including a loss of pigments and enhanced light stress that results in increased ELIP expression under both high- and low-light conditions.