Caesium accumulation in yeast and plants is selectively repressed by loss of the SNARE Sec22p/SEC22

The non-essential cation caesium (Cs + ) is assimilated by all organisms. Thus, anthropogenically released radiocaesium is of concern to agriculture. Cs + accumulates owing to its chemical similarity to the potassium ion (K + ). The apparent lack of a Cs + -specific uptake mechanism has obstructed a...

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Veröffentlicht in:Nature communications 2013-07, Vol.4 (1), p.2092-2092, Article 2092
Hauptverfasser: Dräxl, Stephan, Müller, Johannes, Li, Wei B., Michalke, Bernhard, Scherb, Hagen, Hense, Burkhard A., Tschiersch, Jochen, Kanter, Ulrike, Schäffner, Anton R.
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container_title Nature communications
container_volume 4
creator Dräxl, Stephan
Müller, Johannes
Li, Wei B.
Michalke, Bernhard
Scherb, Hagen
Hense, Burkhard A.
Tschiersch, Jochen
Kanter, Ulrike
Schäffner, Anton R.
description The non-essential cation caesium (Cs + ) is assimilated by all organisms. Thus, anthropogenically released radiocaesium is of concern to agriculture. Cs + accumulates owing to its chemical similarity to the potassium ion (K + ). The apparent lack of a Cs + -specific uptake mechanism has obstructed attempts to manipulate Cs + accumulation without causing pleiotropic effects. Here we show that the SNARE protein Sec22p/SEC22 specifically impacts Cs + accumulation in yeast and in plants. Loss of Saccharomyces cerevisiae Sec22p does not affect K + homeostasis, yet halves Cs + concentration compared with the wild type. Mathematical modelling of the uptake time course predicts a compromised vacuolar Cs + deposition in sec22Δ . Biochemical fractionation confirms this and indicates a new feature of Sec22p in enhancing non-selective cation deposition. A developmentally controlled loss-of-function mutant of the orthologous Arabidopsis thaliana SEC22 phenocopies the reduced Cs + uptake without affecting plant growth. This finding provides a new strategy to reduce radiocaesium entry into the food chain. The active uptake of radiocaesium by plants via potassium transport systems results in contamination of food supplies. Here, the authors show that loss of the v-SNARE protein Sec22p/SEC22 specifically reduces the accumulation of Cs + in yeast and plants by repressing its deposition to vacuoles.
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Thus, anthropogenically released radiocaesium is of concern to agriculture. Cs + accumulates owing to its chemical similarity to the potassium ion (K + ). The apparent lack of a Cs + -specific uptake mechanism has obstructed attempts to manipulate Cs + accumulation without causing pleiotropic effects. Here we show that the SNARE protein Sec22p/SEC22 specifically impacts Cs + accumulation in yeast and in plants. Loss of Saccharomyces cerevisiae Sec22p does not affect K + homeostasis, yet halves Cs + concentration compared with the wild type. Mathematical modelling of the uptake time course predicts a compromised vacuolar Cs + deposition in sec22Δ . Biochemical fractionation confirms this and indicates a new feature of Sec22p in enhancing non-selective cation deposition. A developmentally controlled loss-of-function mutant of the orthologous Arabidopsis thaliana SEC22 phenocopies the reduced Cs + uptake without affecting plant growth. This finding provides a new strategy to reduce radiocaesium entry into the food chain. The active uptake of radiocaesium by plants via potassium transport systems results in contamination of food supplies. 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This finding provides a new strategy to reduce radiocaesium entry into the food chain. The active uptake of radiocaesium by plants via potassium transport systems results in contamination of food supplies. 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This finding provides a new strategy to reduce radiocaesium entry into the food chain. The active uptake of radiocaesium by plants via potassium transport systems results in contamination of food supplies. Here, the authors show that loss of the v-SNARE protein Sec22p/SEC22 specifically reduces the accumulation of Cs + in yeast and plants by repressing its deposition to vacuoles.</abstract><cop>London</cop><pub>Nature Publishing Group UK</pub><pmid>23817436</pmid><doi>10.1038/ncomms3092</doi><tpages>1</tpages><oa>free_for_read</oa></addata></record>
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subjects 631/449/2668
631/80/313/2104
Arabidopsis - genetics
Arabidopsis - growth & development
Arabidopsis - metabolism
Arabidopsis Proteins - metabolism
Biological Transport
Cations
Cesium - metabolism
Environmental health
Food chains
Genetic Complementation Test
Homeostasis
Humanities and Social Sciences
Hydrogen-Ion Concentration
Models, Biological
multidisciplinary
Mutagenesis, Insertional
Mutation - genetics
Phenotype
Plant Leaves - metabolism
Plant Roots - metabolism
Potassium
Proteins
R-SNARE Proteins - metabolism
Radiation
Reproducibility of Results
Research centers
Rubidium - metabolism
Saccharomyces cerevisiae - metabolism
Saccharomyces cerevisiae Proteins - metabolism
Science
Science (multidisciplinary)
SNARE Proteins - metabolism
Time Factors
Transcription, Genetic
Vacuoles - metabolism
Yeast
title Caesium accumulation in yeast and plants is selectively repressed by loss of the SNARE Sec22p/SEC22
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