OsYSL13 transporter may play a role in Mn homeostasis in rice (Oryza sativa L.)

Iron (Fe) is an essential element for almost all living organisms. In plants, it is a key player in electron transport in both photosynthesis and respiration. Rice ( Oryza sativa L.) is a crop that feeds half of the world’s population. However, rice grains have low Fe concentrations, making populati...

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Veröffentlicht in:Theoretical and experimental plant physiology 2023-09, Vol.35 (3), p.263-274
Hauptverfasser: Ponte, Lucas Roani, Farias, Júlia Gomes, Del Frari, Bianca Knebel, Costa, Henrique Keller, Prigol, Luís Henrique Ferreira, Caye, Milena, Fett, Janette Palma, Hanzel, Flávia Brito, Dressler, Valderi Luiz, Sperotto, Raul Antonio, Brunetto, Gustavo, Ricachenevsky, Felipe Klein
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container_title Theoretical and experimental plant physiology
container_volume 35
creator Ponte, Lucas Roani
Farias, Júlia Gomes
Del Frari, Bianca Knebel
Costa, Henrique Keller
Prigol, Luís Henrique Ferreira
Caye, Milena
Fett, Janette Palma
Hanzel, Flávia Brito
Dressler, Valderi Luiz
Sperotto, Raul Antonio
Brunetto, Gustavo
Ricachenevsky, Felipe Klein
description Iron (Fe) is an essential element for almost all living organisms. In plants, it is a key player in electron transport in both photosynthesis and respiration. Rice ( Oryza sativa L.) is a crop that feeds half of the world’s population. However, rice grains have low Fe concentrations, making populations that base their diet on this crop prone to Fe deficiency. Nutritional Fe deficiency can be addressed by biofortification. To achieve this goal, however, it is necessary to understand plants’ Fe homeostasis mechanisms. Here we evaluate the physiological consequences of loss of OsYSL13 gene in Fe homeostasis and possible alterations in manganese (Mn) homeostasis. We found that leaves of osysl13 mutant plants have lower concentrations of Fe and Mn when extra Mn is added to the soil, compared to wild-type (WT) plants. Mutant osysl13 plants less compared to WT not only in control, but also under Mn deficiency, with decreased shoot biomass accumulation and root length, as well as increased root diameter, suggesting that OsYSL13 has a function in Mn homeostasis. Interestingly, we observed that osysl13 mutant plants accumulate higher H 2 O 2 levels in their leaves, causing visible damages. Mn concentration was also higher in osysl13 leaves compared to WT. Our data suggest that OsYSL13 might be relevant in Mn homeostasis, especially in older leaves facing excessive Mn detoxification,
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Mutant osysl13 plants less compared to WT not only in control, but also under Mn deficiency, with decreased shoot biomass accumulation and root length, as well as increased root diameter, suggesting that OsYSL13 has a function in Mn homeostasis. Interestingly, we observed that osysl13 mutant plants accumulate higher H 2 O 2 levels in their leaves, causing visible damages. Mn concentration was also higher in osysl13 leaves compared to WT. 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subjects Biomedical and Life Sciences
Damage accumulation
Detoxification
Electron transport
Homeostasis
Hydrogen peroxide
Iron
Iron deficiency
Leaves
Life Sciences
Manganese
Mutants
Oryza sativa
Photosynthesis
Plants
Rice
title OsYSL13 transporter may play a role in Mn homeostasis in rice (Oryza sativa L.)
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