Structural introspection of a putative fluoride transporter in plants

The xenobiotic fluoride is a detrimental toxin which is exported by a double-barrelled fluoride channel (Fluc) in prokaryotes and a single-barrelled fluoride exporter (FEX) in lower eukaryotes. The presence of FEX gene in higher plant species has not been reported till date. In this communication, w...

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Veröffentlicht in:3 Biotech 2019-03, Vol.9 (3), p.103-103, Article 103
Hauptverfasser: Banerjee, Aditya, Roychoudhury, Aryadeep
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description The xenobiotic fluoride is a detrimental toxin which is exported by a double-barrelled fluoride channel (Fluc) in prokaryotes and a single-barrelled fluoride exporter (FEX) in lower eukaryotes. The presence of FEX gene in higher plant species has not been reported till date. In this communication, we have identified FEXs across nine plant species belonging to five different families. Homology modelling predicted the sequential and structural conservation of crucial residues in plant FEXs. It was predicted that the N-terminal segments were the main target sites for phosphorylation. Other post-translational modifications included Arg methylation, Lys acetylation and Cys S -nitrosylation, all of which contribute to protein stability and function. FEXs were predicted to contain lipid moieties which anchor the transporters to the plasma membrane. The crystallizability along with associated properties of plant FEXs was also analyzed to facilitate future experimental analyses. The predicted RNA structure of OsFEX formed several pseudoknots, though no riboswitches could be detected from our prediction. The analysis of upstream regions of FEX in representative plants represented that this gene could be responsive to phytohormone-mediated signaling. This is the first novel report highlighting that FEX genes in plants are probably expressed in a tissue-specific pattern and possibly via a phytohormone-dependent pathway to encode functional FEX proteins during fluoride stress.
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subjects Acetylation
Agriculture
Bioinformatics
Biomaterials
Biotechnology
Cancer Research
Chemistry
Chemistry and Materials Science
Conserved sequence
Eukaryotes
eukaryotic cells
Flowers & plants
Fluorides
genes
Homology
Lipids
methylation
moieties
Original
Original Article
Phosphorylation
plasma membrane
Post-translation
post-translational modification
prediction
Prokaryotes
prokaryotic cells
Proteins
Riboswitches
RNA
Stem Cells
transporters
xenobiotics
title Structural introspection of a putative fluoride transporter in plants
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