Abstract Iron-sulfur (Fe/S) proteins are present in virtually all living organisms and are
involved in numerous cellular processes such as respiration, photosynthesis, metabolic …

Mitochondria play a key role in iron metabolism in that they synthesize heme, assemble iron–
sulfur (Fe/S) proteins, and participate in cellular iron regulation. Here, we review the latter …

Abstract Iron–sulfur (Fe–S) clusters are versatile protein cofactors that require numerous
components for their synthesis and insertion into apoproteins. In eukaryotes, maturation of …

Fe–S clusters are partners in the origin of life that predate cells, acetyl-CoA metabolism,
DNA, and the RNA world. The double helix solved the mystery of DNA replication by base …

Iron–sulfur (Fe/S) clusters (ISCs) are redox-active protein cofactors that their synthesis,
transfer, and insertion into target proteins require many components. Mitochondrial ISC …

Iron–sulfur (Fe/S) clusters belong to the most ancient protein cofactors in life, and fulfill
functions in electron transport, enzyme catalysis, homeostatic regulation, and sulfur …

Abstract Iron–sulphur (Fe–S) clusters are inorganic cofactors that are found in nearly all
species and are composed of various combinations of iron and sulphur atoms. Fe–S clusters …

Mitochondria have been derived from alpha-bacterial endosymbionts during the evolution of
eukaryotes. Numerous bacterial functions have been maintained inside the organelles …

Iron is an essential element for all photosynthetic organisms. The biological use of this
transition metal is as an enzyme cofactor, predominantly in electron transfer and catalysis …

Eukaryotic cells contain numerous cytosolic and nuclear iron–sulfur (Fe/S) proteins that
perform key functions in metabolic catalysis, iron regulation, protein translation, DNA …