In vivo light‐sheet microscopy resolves localisation patterns of FSD1, a superoxide dismutase with function in root development and osmoprotection

Superoxide dismutases (SODs) are enzymes detoxifying superoxide to hydrogen peroxide while temporal developmental expression and subcellular localisation are linked to their functions. Therefore, we aimed here to reveal in vivo developmental expression, subcellular, tissue‐ and organ‐specific locali...

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Veröffentlicht in:Plant, cell and environment cell and environment, 2021-01, Vol.44 (1), p.68-87
Hauptverfasser: Dvořák, Petr, Krasylenko, Yuliya, Ovečka, Miroslav, Basheer, Jasim, Zapletalová, Veronika, Šamaj, Jozef, Takáč, Tomáš
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container_title Plant, cell and environment
container_volume 44
creator Dvořák, Petr
Krasylenko, Yuliya
Ovečka, Miroslav
Basheer, Jasim
Zapletalová, Veronika
Šamaj, Jozef
Takáč, Tomáš
description Superoxide dismutases (SODs) are enzymes detoxifying superoxide to hydrogen peroxide while temporal developmental expression and subcellular localisation are linked to their functions. Therefore, we aimed here to reveal in vivo developmental expression, subcellular, tissue‐ and organ‐specific localisation of iron superoxide dismutase 1 (FSD1) in Arabidopsis using light‐sheet and Airyscan confocal microscopy. FSD1‐GFP temporarily accumulated at the site of endosperm rupture during seed germination. In emerged roots, it showed the highest abundance in cells of the lateral root cap, columella, and endodermis/cortex initials. The largest subcellular pool of FSD1‐GFP was localised in the plastid stroma, while it was also located in the nuclei and cytosol. The majority of the nuclear FSD1‐GFP is immobile as revealed by fluorescence recovery after photobleaching. We found that fsd1 knockout mutants exhibit reduced lateral root number and this phenotype was reverted by genetic complementation. Mutant analysis also revealed a requirement for FSD1 in seed germination during salt stress. Salt stress tolerance was coupled with the accumulation of FSD1‐GFP in Hechtian strands and superoxide removal. It is likely that the plastidic pool is required for acquiring oxidative stress tolerance in Arabidopsis. This study suggests new developmental and osmoprotective functions of SODs in plants. FSD1 is localised in plastids, cytoplasm and nucleus and is crucial for endosperm rupture during seed germination under salinity. During hyperosmotic stress FSD1 accumulates in Hechtian strands concomitantly with ROS production, and it has osmoprotective role for plant cells during salinity.
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Salt stress tolerance was coupled with the accumulation of FSD1‐GFP in Hechtian strands and superoxide removal. It is likely that the plastidic pool is required for acquiring oxidative stress tolerance in Arabidopsis. This study suggests new developmental and osmoprotective functions of SODs in plants. FSD1 is localised in plastids, cytoplasm and nucleus and is crucial for endosperm rupture during seed germination under salinity. 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Salt stress tolerance was coupled with the accumulation of FSD1‐GFP in Hechtian strands and superoxide removal. It is likely that the plastidic pool is required for acquiring oxidative stress tolerance in Arabidopsis. This study suggests new developmental and osmoprotective functions of SODs in plants. FSD1 is localised in plastids, cytoplasm and nucleus and is crucial for endosperm rupture during seed germination under salinity. 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Therefore, we aimed here to reveal in vivo developmental expression, subcellular, tissue‐ and organ‐specific localisation of iron superoxide dismutase 1 (FSD1) in Arabidopsis using light‐sheet and Airyscan confocal microscopy. FSD1‐GFP temporarily accumulated at the site of endosperm rupture during seed germination. In emerged roots, it showed the highest abundance in cells of the lateral root cap, columella, and endodermis/cortex initials. The largest subcellular pool of FSD1‐GFP was localised in the plastid stroma, while it was also located in the nuclei and cytosol. The majority of the nuclear FSD1‐GFP is immobile as revealed by fluorescence recovery after photobleaching. We found that fsd1 knockout mutants exhibit reduced lateral root number and this phenotype was reverted by genetic complementation. Mutant analysis also revealed a requirement for FSD1 in seed germination during salt stress. Salt stress tolerance was coupled with the accumulation of FSD1‐GFP in Hechtian strands and superoxide removal. It is likely that the plastidic pool is required for acquiring oxidative stress tolerance in Arabidopsis. This study suggests new developmental and osmoprotective functions of SODs in plants. FSD1 is localised in plastids, cytoplasm and nucleus and is crucial for endosperm rupture during seed germination under salinity. 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source Wiley Online Library Journals Frontfile Complete; Elektronische Zeitschriftenbibliothek - Frei zugängliche E-Journals; Wiley Free Content
subjects Abiotic stress
Arabidopsis
Complementation
Confocal microscopy
Cortex (temporal)
Cytosol
development
Endosperm
Fluorescence
Fluorescence recovery after photobleaching
FSD1
Genetic analysis
Germination
Hydrogen peroxide
Localization
Microscopy
Mutants
osmoprotection
Oxidative stress
Phenotypes
Photobleaching
plasmolysis
root
Root development
Salinity tolerance
salt stress
Seed germination
Stroma
Superoxide dismutase
title In vivo light‐sheet microscopy resolves localisation patterns of FSD1, a superoxide dismutase with function in root development and osmoprotection
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