The effect of salinity on binding of Cd, Cr, Cu and Zn to dissolved organic matter
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2022, Science of the Total EnvironmentAdsorption and precipitation behaviors of zinc, copper and tetracycline with struvite products obtained by phosphorus recovery from swine wastewater
2020, Journal of Environmental Chemical EngineeringInteractions of humates and chlorides with cadmium drive soil cadmium chemistry and uptake by radish cultivars
2020, Science of the Total EnvironmentCitation Excerpt :NaCl salinity has a potential to significantly increase Cd uptake and accumulation, but suppress concentration of dissolved organics (DOC) in the radish rhizosphere (Ondrasek et al., 2012), although in quite different soil matrix (drained organic soil) than was used in the current study. In addition, in salt-affected (alkaline and sodic) soils, Cd mobility/uptake could be facilitated due to complexation with DOC substances (Harter and Naidu, 1995; Bolan et al., 2003), whereas in artificial seawater Lores and Pennock (1998) detected total (100%) desorption of Cd from dissolved organics even at only 10 mg HA/L. Accordingly, clarifying the Cd interactions with chlorides and other salts as well as simple (citrate, malate) or more complex organics (humic substances) and environmental matrices (soils, waters, nutrient solutions) is essential for controlling Cd pollution and growing “metal-clean” foodstuffs. In soil pot study with radish cultivars mimicking naturally relevant soil saline and Cd-contaminated conditions under different level of soil humification, the rhizosphere chemistry and the Cd soil–plant transfer were impacted significantly by applied humates (up to 100 mg HA/kg) and chlorides (up to 60 mM NaCl) as well their interactions (notably CdxNaCl and CdxHA).