It is well known that S interacts with some macronutrients, such as N, P, and K, as well as
with some micronutrients, such as Fe, Mo, Cu, Zn, and B. From our current understanding …

The deficiency of nutrients has been extensively investigated because of its impact on plant
growth and yield. So far, the effects of a combined nutrient limitation have rarely been …

Plant response mechanisms to deficiency of a single nutrient, such as sulfur (S) or iron (Fe),
have been described at agronomic, physiological, biochemical, metabolomics, and …

A complete understanding of ionome homeostasis requires a thorough investigation of the
dynamics of the nutrient networks in plants. This review focuses on the complexity of …

Plant mechanisms responding to iron (Fe) deficiency have been widely described; it is well
known that Strategy II plants, as durum wheat, cope with this stress by increasing both the …

Sulfur and iron balanced supply is of paramount importance for plants, since Fe
homoeostasis in plants has been shown to be strongly dependent on sulfate availability; …

The metabolic links between S and Fe nutrition are well documented in Strategy II plants (eg
barley and maize). Recent evidence that S deprivation can impair Fe-deficiency response …

Plants are capable of synthesizing all the molecules necessary to complete their life cycle
from minerals, water, and light. This plasticity, however, comes at a high energetic cost and …

Among the mineral nutrients that are required for plant metabolism, iron (Fe) and sulphur (S)
play a central role as both elements are needed for the activity of several proteins involved …

We studied the possibility that the sulfur (S) assimilatory pathway might be modulated by
iron (Fe) starvation in barley, as a consequence of plant requirement for an adequate …