Iron is an essential nutrient for plants, yet it often limits plant growth. On the contrary,
overaccumulation of iron within plant cells leads to oxidative stress. As a consequence, iron …

Deciphering cellular iron (Fe) homeostasis requires having access to both quantitative and
qualitative information on the subcellular pools of Fe in tissues and their dynamics within the …

Under iron-deficient conditions, plants induce the expression of a set of genes involved in
iron uptake and translocation. This response to iron deficiency is regulated by transcriptional …

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 …

In plants, iron (Fe) transport and homeostasis are highly regulated processes. Fe deficiency
or excess dramatically limits plant and algal productivity. Interestingly, complex and …

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 …

Iron is one of the most important micronutrients for plant growth and development. It
functions as the enzyme cofactor or component of electron transport chains in various vital …

Iron is an essential micronutrient with numerous cellular functions, and its deficiency
represents one of the most serious problems in human nutrition worldwide. Plants have two …

The transcription of genes involved in iron acquisition in plants is induced under iron
deficiency, but our understanding of iron sensors and signals remains limited. Iron …

Iron is an essential element for plants as well as other organisms, functioning in various
cellular processes, including respiration, chlorophyll biosynthesis, and photosynthesis …