Ion Transport in Halophytes

By Sergey Shabala, A. Mackay. 2011

349 citations recorded by the source corpus.

View Paper: https://www.semanticscholar.org/paper/8d7559e2d848826c185e27947caa22372342f735

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In Plant Science

Citations in the corpus

The State of the Art in Modeling Waterlogging Impacts on Plants: What Do We Know and What Do We Need to Know (2020, neutral): “13 of 19 elemental profile (Khabaz‐Saberi & Rengel, 2010; Shabala & Mackay, 2011).”
Sodium chloride toxicity and the cellular basis of salt tolerance in halophytes. (2015, background): “Moreover, there has long been discussion of vesicular transport of ions in higher plants (see Lazof and Cheeseman, 1986, and references therein; Shabala and Mackay, 2011).”
ROS homeostasis in halophytes in the context of salinity stress tolerance. (2014, background): “In recent years, several comprehensive reviews have been published dealing with various aspects of halophyte physiology and their use for the purpose of saline agriculture (Flowers and Colmer, 2008; Riadh et al., 2010; Ruan et al., 2010; Shabala and Mackay, 2011; Ben Hamed et al., 2013) illustrating”
Learning from halophytes: physiological basis and strategies to improve abiotic stress tolerance in crops. (2013, background): “In addition to being the storage sites for excess Na+ and Cl2, salt bladders may also play an important role as a secondary epidermis to reduce water loss and prevent excessive UV damage when exposed to salinity (Adams et al., 1998; Shabala and Mackay, 2011).”
Linking stomatal traits and expression of slow anion channel genes HvSLAH1 and HvSLAC1 with grain yield for increasing salinity tolerance in barley (2014, background): “Therefore, breeding crops with higher salt-tolerance is a current and serious concern in agriculture (Mano and Takeda, 1997; Munns and Tester, 2008; Xue et al., 2009; Shabala and Mackay, 2011).”
The Role of Na+ and K+ Transporters in Salt Stress Adaptation in Glycophytes (2017, background): “In halophytes, direct uptake of Na from the apoplast into the cytosol and from thence into the vacuole through pinocytosis (not requiring an Na/H exchange activity) has been reported (Shabala and Mackay, 2011).”
Quinoa – a Model Crop for Understanding Salt-tolerance Mechanisms in Halophytes (2016, background): “In order to survive, plants adjust to high external salt concentrations by accumulating a variety of organic osmolytes or “compatible solutes”, e.g., proline and glycine betaine, or inorganic ions (Flowers 2004; Shabala & Mackay 2011).”
Salt-tolerant genes from halophytes are potential key players of salt tolerance in glycophytes (2016, background): “In high-salt environments, plants initially suffer from osmotic stress, reflecting water deficit, and subsequently experience ion-specific stress resulting from altered ion concentrations both in halophytes and glycophytes (Blumwald et al., 2000; Shabala and Mackay, 2011).”
Sodium as nutrient and toxicant (2013, background): “It has, thus, been concluded that a near-complete replacement of K+ by Na+ in its osmotic function is possible (Shabala and Mackay 2011a, b; Gattward et al. 2012).”