
When exposed to salt, every plant takes up Na(+) from the environment. Once in the symplast, Na(+) is distributed within cells and between different tissues and organs. There it can help to lower the cellular water potential but also exert potentially toxic effects. Control of Na(+) fluxes is therefore crucial and indeed, research shows that the divergence between salt tolerant and salt sensitive plants is not due to a variation in transporter types but rather originates in the control of uptake and internal Na(+) fluxes. A number of regulatory mechanisms has been identified based on signaling of Ca(2+), cyclic nucleotides, reactive oxygen species, hormones, or on transcriptional and post translational changes of gene and protein expression. This review will give an overview of intra- and intercellular movement of Na(+) in plants and will summarize our current ideas of how these fluxes are controlled and regulated in the early stages of salt stress.
CBL, Salinity, calcium, Sodium, Plant culture, Plant Science, salinity, SB1-1110, flux, Calcium, cyclic nucleotides, CIPK, signalling, signaling, Reactive Oxygen Species, sodium
CBL, Salinity, calcium, Sodium, Plant culture, Plant Science, salinity, SB1-1110, flux, Calcium, cyclic nucleotides, CIPK, signalling, signaling, Reactive Oxygen Species, sodium
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