The aim of this study was to examine more in detail the uptake of Fe2+ in non‐
graminaceous (Strategy I plants) and graminaceous species (Strategy II plants). FeSO4 (2 …

Iron (Fe) homeostasis is essential for both plant development and human nutrition. The
maintenance of Fe homeostasis involves a complex network in which Fe signaling nodes …

Plants can mobilize iron (Fe) in the rhizosphere by non‐specific and specific (adaptive)
mechanisms. Non‐specific mechanisms are, for example, rhizosphere acidification related …

Animals including humans are highly dependent on plants to provide many different
nutrients including iron in a useable form. Additionally, plants are used to support the growth …

Several perennial, deciduous, as well as evergreen fruit crops develop symptoms of iron
deficiency—interveinal chlorosis of apical leaves—when cultivated in calcareous and …

Root responses to lack of iron (F e) have mainly been studied in nutrient solution
experiments devoid of silicon (S i). Here we investigated how S i ameliorates F e deficiency …

Chemical reactions in soils largely determine the availability of Fe to plants. The solubility of
Fe in soils can best be expressed as: Fe (OH) 3 (soil-Fe)+ 3H+⇌ Fe 3++ 3H 2 O having a log …

Iron (Fe) plays a pivotal role in plant nutrition as well as human health. Foliar application is
being adopted as an economic, targeted and environment friendly alternative over soil …

The hypothesized role of secreted reducing compounds in FeIII reduction has been
examined with Fe-deficient peanuts (Arachis hypogaea L. cv A124B). Experiments involved …

ÔConcordÕ grapevines (Vitis labruscana Bailey) can readily develop iron deficiency-
induced leaf chlorosis when grown on calcareous or high pH soils. Iron (Fe) chelates are …