Due to its ability to accept and donate electrons, iron (Fe) is an indispensable component of
electron transport chains and a cofactor in many vital enzymes. Except for waterlogged …

Cellular and whole organism iron homeostasis must be balanced to supply enough iron for
metabolism and to avoid excessive, toxic levels. To perform iron uptake from the …

Iron deficiency is among the most common nutritional disorders in plants. To cope with low
iron supply, plants with the exception of the Gramineae increase the solubility and uptake of …

Iron is essential for the survival and proliferation of all plants. Higher plants have developed
two distinct strategies to acquire iron, which is only slightly soluble, from the rhizosphere: the …

Micronutrient malnutrition is widespread, especially in poor populations across the globe,
and iron deficiency anemia is one of the most prevalent forms of micronutrient deficiencies …

Iron is an essential nutrient for plants and crucial for a variety of cellular functions. In most
soils, iron is present in large quantities, but mainly in forms that are not available to plants …

Iron is an essential element for plant growth and development. Iron homeostasis in plants is
tightly regulated at both transcriptional and posttranscriptional level. Several bHLH …

Iron is an essential micronutrient for almost all living organisms because of it plays critical
role in metabolic processes such as DNA synthesis, respiration, and photosynthesis …

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 …

Iron (Fe) is an essential element for most living organisms. To acquire sparingly soluble Fe
from the rhizosphere, rice roots rely on two Fe acquisition pathways. The first of these …