Iron is essential for plants and plays critical roles in important processes such as
photosynthesis and respiration. While our understanding of molecular mechanisms involved …

Iron is an essential element for most living organisms. Plants acquire iron from the
rhizosphere and have evolved different biochemical and developmental responses to adapt …

Iron is essential for metabolic processes in most living organisms. Pathogens and their hosts
often compete for the acquisition of this nutrient. However, iron can catalyze the formation of …

Plants display a number of responses to low iron availability in order to increase iron uptake
from the soil. In the model plant Arabidopsis thaliana, the ferric‐chelate reductase FRO2 and …

Fe2+ transport in plants has been difficult to quantify because of the inability to control Fe2+
activity in aerated solutions and non-specific binding of Fe to cell walls. In this study, a Fe (II) …

To acquire iron, many plant species reduce soil Fe (III) to Fe (II) by Fe (III)-chelate reductases
embedded in the plasma membrane of root epidermal cells. The reduced product is then …

Plants have recently moved into the spotlight owing to the growing realization that the world
needs solutions to energy and food production that are sustainable and environmentally …

Iron (Fe) is a ubiquitous redox-active element essential for most life. The formation of
localized cell wall appositions, the oxidative burst and the production of pathogenesis …

Micronutrients like copper (Cu), manganese (Mn), Iron (Fe), and Zinc (Zn) are essential for
plants, and their functions are tightly linked for vital metabolism. The normal concentration …

Iron (Fe) is indispensable for the growth and development of plants. It is well known that FER‐
LIKE FE DEFICIENCY‐INDUCED TRANSCRIPTION FACTOR (FIT) is a key regulator of Fe …