Iron is required for key cellular functions, and there is a strong link between iron metabolism and important metabolic processes, such as cell growth, apoptosis and inflammation. Diseases that are directly or indirectly related to iron metabolism represent major health problems. Iron-regulatory proteins (IRPs) 1 and 2 are key controllers of vertebrate iron metabolism and post-transcriptionally regulate expression of the major iron homeostasis genes. Here we discuss how dysregulation of the IRP system can result from both iron-related and unrelated effectors and explain how this can have important pathological consequences in several human disorders
Cellular iron metabolism comprises pathways of iron-protein synthesis and degradation, iron uptake v...
As an essential nutrient and a potential toxin, iron poses an exquisite regulatory problem in biolog...
Iron regulatory proteins (IRP) 1 and 2 are RNA-binding proteins that control cellular iron metabolis...
Eukaryotic cells require iron for survival but, as an excess of poorly liganded iron can lead to the...
The capacity of readily exchanging electrons makes iron not only essential for fundamental cell func...
The capacity of readily exchanging electrons makes iron not only essential for fundamental cell func...
AbstractBoth deficiencies and excesses of iron represent major public health problems throughout the...
Iron acquisition is a fundamental requirement for many aspects of life, but excess iron may result i...
Iron acquisition is a fundamental requirement for many aspects of life, but excess iron may result i...
Iron acquisition is a fundamental requirement for many aspects of life, but excess iron may result i...
AbstractIron is essential for several vital biological processes. Its deficiency or overload drives ...
AbstractCellular iron homeostasis is maintained by iron regulatory proteins 1 and 2 (IRP1 and IRP2)....
Cells regulate iron homeostasis by posttranscriptional regulation of proteins responsible for iron u...
Iron is required for the survival of most organisms, including bacteria, plants, and humans. Its hom...
Iron is an essential but potentially harmful metal element. Iron regulatory protein 1 and IRP2 post...
Cellular iron metabolism comprises pathways of iron-protein synthesis and degradation, iron uptake v...
As an essential nutrient and a potential toxin, iron poses an exquisite regulatory problem in biolog...
Iron regulatory proteins (IRP) 1 and 2 are RNA-binding proteins that control cellular iron metabolis...
Eukaryotic cells require iron for survival but, as an excess of poorly liganded iron can lead to the...
The capacity of readily exchanging electrons makes iron not only essential for fundamental cell func...
The capacity of readily exchanging electrons makes iron not only essential for fundamental cell func...
AbstractBoth deficiencies and excesses of iron represent major public health problems throughout the...
Iron acquisition is a fundamental requirement for many aspects of life, but excess iron may result i...
Iron acquisition is a fundamental requirement for many aspects of life, but excess iron may result i...
Iron acquisition is a fundamental requirement for many aspects of life, but excess iron may result i...
AbstractIron is essential for several vital biological processes. Its deficiency or overload drives ...
AbstractCellular iron homeostasis is maintained by iron regulatory proteins 1 and 2 (IRP1 and IRP2)....
Cells regulate iron homeostasis by posttranscriptional regulation of proteins responsible for iron u...
Iron is required for the survival of most organisms, including bacteria, plants, and humans. Its hom...
Iron is an essential but potentially harmful metal element. Iron regulatory protein 1 and IRP2 post...
Cellular iron metabolism comprises pathways of iron-protein synthesis and degradation, iron uptake v...
As an essential nutrient and a potential toxin, iron poses an exquisite regulatory problem in biolog...
Iron regulatory proteins (IRP) 1 and 2 are RNA-binding proteins that control cellular iron metabolis...