A chloroplast retrograde signal regulates nuclear alternative splicing

Light is a source of energy and also a regulator of plant physiological adaptations. We show here that light/dark conditions affect alternative splicing of a subset of Arabidopsis genes preferentially encoding proteins involved in RNA processing. The effect requires functional chloroplasts and is al...

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Publicado: 2014
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Acceso en línea:https://bibliotecadigital.exactas.uba.ar/collection/paper/document/paper_00368075_v344_n6182_p427_Petrillo
http://hdl.handle.net/20.500.12110/paper_00368075_v344_n6182_p427_Petrillo
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spelling paper:paper_00368075_v344_n6182_p427_Petrillo2023-06-08T15:02:08Z A chloroplast retrograde signal regulates nuclear alternative splicing chlorophyll cryptochrome dactinomycin phytochrome plastoquinone reactive oxygen metabolite serine arginine rich protein 2,5 dibromo 6 isopropyl 3 methylbenzoquinone Arabidopsis protein diuron messenger RNA plant RNA adaptation chloroplast dicotyledon gene expression inhibition light effect photosynthesis protein alternative RNA splicing Arabidopsis Arabidopsis thaliana article chloroplast chloroplast retrograde signal circadian rhythm controlled study electron transport gene expression light light dark cycle light emitting diode nonhuman nonsense mediated mRNA decay oxidation reduction state phenotype photosynthesis plant gene plant response priority journal respiratory chain reverse transcription polymerase chain reaction RNA processing seedling signal transduction white light biological model cell nucleus chloroplast drug effects gene expression regulation genetics metabolism oxidation reduction reaction plant leaf plant root RNA stability signal transduction transgenic plant Arabidopsis Alternative Splicing Arabidopsis Arabidopsis Proteins Cell Nucleus Chloroplasts Circadian Clocks Dibromothymoquinone Diuron Electron Transport Gene Expression Regulation, Plant Light Models, Biological Oxidation-Reduction Photosynthesis Plant Leaves Plant Roots Plants, Genetically Modified Plastoquinone RNA Stability RNA, Messenger RNA, Plant Seedlings Signal Transduction Alternative Splicing Arabidopsis Arabidopsis Proteins Cell Nucleus Chloroplasts Circadian Clocks Dibromothymoquinone Diuron Electron Transport Gene Expression Regulation, Plant Light Models, Biological Oxidation-Reduction Photosynthesis Plant Leaves Plant Roots Plants, Genetically Modified Plastoquinone RNA Stability RNA, Messenger RNA, Plant Seedling Signal Transduction Light is a source of energy and also a regulator of plant physiological adaptations. We show here that light/dark conditions affect alternative splicing of a subset of Arabidopsis genes preferentially encoding proteins involved in RNA processing. The effect requires functional chloroplasts and is also observed in roots when the communication with the photosynthetic tissues is not interrupted, suggesting that a signaling molecule travels through the plant. Using photosynthetic electron transfer inhibitors with different mechanisms of action, we deduce that the reduced pool of plastoquinones initiates a chloroplast retrograde signaling that regulates nuclear alternative splicing and is necessary for proper plant responses to varying light conditions. 2014 https://bibliotecadigital.exactas.uba.ar/collection/paper/document/paper_00368075_v344_n6182_p427_Petrillo http://hdl.handle.net/20.500.12110/paper_00368075_v344_n6182_p427_Petrillo
institution Universidad de Buenos Aires
institution_str I-28
repository_str R-134
collection Biblioteca Digital - Facultad de Ciencias Exactas y Naturales (UBA)
topic chlorophyll
cryptochrome
dactinomycin
phytochrome
plastoquinone
reactive oxygen metabolite
serine arginine rich protein
2,5 dibromo 6 isopropyl 3 methylbenzoquinone
Arabidopsis protein
diuron
messenger RNA
plant RNA
adaptation
chloroplast
dicotyledon
gene expression
inhibition
light effect
photosynthesis
protein
alternative RNA splicing
Arabidopsis
Arabidopsis thaliana
article
chloroplast
chloroplast retrograde signal
circadian rhythm
controlled study
electron transport
gene expression
light
light dark cycle
light emitting diode
nonhuman
nonsense mediated mRNA decay
oxidation reduction state
phenotype
photosynthesis
plant gene
plant response
priority journal
respiratory chain
reverse transcription polymerase chain reaction
RNA processing
seedling
signal transduction
white light
biological model
cell nucleus
chloroplast
drug effects
gene expression regulation
genetics
metabolism
oxidation reduction reaction
plant leaf
plant root
RNA stability
signal transduction
transgenic plant
Arabidopsis
Alternative Splicing
Arabidopsis
Arabidopsis Proteins
Cell Nucleus
Chloroplasts
Circadian Clocks
Dibromothymoquinone
Diuron
Electron Transport
Gene Expression Regulation, Plant
Light
Models, Biological
Oxidation-Reduction
Photosynthesis
Plant Leaves
Plant Roots
Plants, Genetically Modified
Plastoquinone
RNA Stability
RNA, Messenger
RNA, Plant
Seedlings
Signal Transduction
Alternative Splicing
Arabidopsis
Arabidopsis Proteins
Cell Nucleus
Chloroplasts
Circadian Clocks
Dibromothymoquinone
Diuron
Electron Transport
Gene Expression Regulation, Plant
Light
Models, Biological
Oxidation-Reduction
Photosynthesis
Plant Leaves
Plant Roots
Plants, Genetically Modified
Plastoquinone
RNA Stability
RNA, Messenger
RNA, Plant
Seedling
Signal Transduction
spellingShingle chlorophyll
cryptochrome
dactinomycin
phytochrome
plastoquinone
reactive oxygen metabolite
serine arginine rich protein
2,5 dibromo 6 isopropyl 3 methylbenzoquinone
Arabidopsis protein
diuron
messenger RNA
plant RNA
adaptation
chloroplast
dicotyledon
gene expression
inhibition
light effect
photosynthesis
protein
alternative RNA splicing
Arabidopsis
Arabidopsis thaliana
article
chloroplast
chloroplast retrograde signal
circadian rhythm
controlled study
electron transport
gene expression
light
light dark cycle
light emitting diode
nonhuman
nonsense mediated mRNA decay
oxidation reduction state
phenotype
photosynthesis
plant gene
plant response
priority journal
respiratory chain
reverse transcription polymerase chain reaction
RNA processing
seedling
signal transduction
white light
biological model
cell nucleus
chloroplast
drug effects
gene expression regulation
genetics
metabolism
oxidation reduction reaction
plant leaf
plant root
RNA stability
signal transduction
transgenic plant
Arabidopsis
Alternative Splicing
Arabidopsis
Arabidopsis Proteins
Cell Nucleus
Chloroplasts
Circadian Clocks
Dibromothymoquinone
Diuron
Electron Transport
Gene Expression Regulation, Plant
Light
Models, Biological
Oxidation-Reduction
Photosynthesis
Plant Leaves
Plant Roots
Plants, Genetically Modified
Plastoquinone
RNA Stability
RNA, Messenger
RNA, Plant
Seedlings
Signal Transduction
Alternative Splicing
Arabidopsis
Arabidopsis Proteins
Cell Nucleus
Chloroplasts
Circadian Clocks
Dibromothymoquinone
Diuron
Electron Transport
Gene Expression Regulation, Plant
Light
Models, Biological
Oxidation-Reduction
Photosynthesis
Plant Leaves
Plant Roots
Plants, Genetically Modified
Plastoquinone
RNA Stability
RNA, Messenger
RNA, Plant
Seedling
Signal Transduction
A chloroplast retrograde signal regulates nuclear alternative splicing
topic_facet chlorophyll
cryptochrome
dactinomycin
phytochrome
plastoquinone
reactive oxygen metabolite
serine arginine rich protein
2,5 dibromo 6 isopropyl 3 methylbenzoquinone
Arabidopsis protein
diuron
messenger RNA
plant RNA
adaptation
chloroplast
dicotyledon
gene expression
inhibition
light effect
photosynthesis
protein
alternative RNA splicing
Arabidopsis
Arabidopsis thaliana
article
chloroplast
chloroplast retrograde signal
circadian rhythm
controlled study
electron transport
gene expression
light
light dark cycle
light emitting diode
nonhuman
nonsense mediated mRNA decay
oxidation reduction state
phenotype
photosynthesis
plant gene
plant response
priority journal
respiratory chain
reverse transcription polymerase chain reaction
RNA processing
seedling
signal transduction
white light
biological model
cell nucleus
chloroplast
drug effects
gene expression regulation
genetics
metabolism
oxidation reduction reaction
plant leaf
plant root
RNA stability
signal transduction
transgenic plant
Arabidopsis
Alternative Splicing
Arabidopsis
Arabidopsis Proteins
Cell Nucleus
Chloroplasts
Circadian Clocks
Dibromothymoquinone
Diuron
Electron Transport
Gene Expression Regulation, Plant
Light
Models, Biological
Oxidation-Reduction
Photosynthesis
Plant Leaves
Plant Roots
Plants, Genetically Modified
Plastoquinone
RNA Stability
RNA, Messenger
RNA, Plant
Seedlings
Signal Transduction
Alternative Splicing
Arabidopsis
Arabidopsis Proteins
Cell Nucleus
Chloroplasts
Circadian Clocks
Dibromothymoquinone
Diuron
Electron Transport
Gene Expression Regulation, Plant
Light
Models, Biological
Oxidation-Reduction
Photosynthesis
Plant Leaves
Plant Roots
Plants, Genetically Modified
Plastoquinone
RNA Stability
RNA, Messenger
RNA, Plant
Seedling
Signal Transduction
description Light is a source of energy and also a regulator of plant physiological adaptations. We show here that light/dark conditions affect alternative splicing of a subset of Arabidopsis genes preferentially encoding proteins involved in RNA processing. The effect requires functional chloroplasts and is also observed in roots when the communication with the photosynthetic tissues is not interrupted, suggesting that a signaling molecule travels through the plant. Using photosynthetic electron transfer inhibitors with different mechanisms of action, we deduce that the reduced pool of plastoquinones initiates a chloroplast retrograde signaling that regulates nuclear alternative splicing and is necessary for proper plant responses to varying light conditions.
title A chloroplast retrograde signal regulates nuclear alternative splicing
title_short A chloroplast retrograde signal regulates nuclear alternative splicing
title_full A chloroplast retrograde signal regulates nuclear alternative splicing
title_fullStr A chloroplast retrograde signal regulates nuclear alternative splicing
title_full_unstemmed A chloroplast retrograde signal regulates nuclear alternative splicing
title_sort chloroplast retrograde signal regulates nuclear alternative splicing
publishDate 2014
url https://bibliotecadigital.exactas.uba.ar/collection/paper/document/paper_00368075_v344_n6182_p427_Petrillo
http://hdl.handle.net/20.500.12110/paper_00368075_v344_n6182_p427_Petrillo
_version_ 1768545683971768320