Acquisition of metals such as iron, copper, and zinc by the yeast Saccharomyces cerevisiae is tightly regulated. High affinity uptake systems are induced under metal-limiting conditions to maintain an adequate supply of these essential nutrients. Low affinity uptake systems function when their substrates are in greater supply. The FET4 gene encodes a low affinity iron and copper uptake transporter. FET4 expression is regulated by several environmental factors. In this report, we describe the molecular mechanisms underlying this regulation. First, we found that FET4 expression is induced in iron-limited cells by the Aft1 iron-responsive transcriptional activator. Second, FET4 is regulated by zinc status via the Zap1 transcription factor. We ...
Iron is an essential micronutrient for all eukaryotic organisms because it participates as a redox c...
In yeast (Saccharomyces cerevisiae) and plant roots (Arabidopsis thaliana) zinc enters the cells via...
<p>The ability of iron (Fe) to easily transition between two valence states makes it a preferred co-...
Acquisition of metals such as iron, copper, and zinc by the yeast Saccharomyces cerevisiae is tightl...
Acquisition of metals such as iron, copper, and zinc by the yeast Saccharomyces cerevisiae is tightl...
Saccharomyces cerevisiae transcriptionally regulates the expression of the plasma membrane high affi...
The transition metals iron and zinc are essential requirements for all living organisms. They partic...
The metal ions, Cu 2+/+ and Fe 3+/2+ , are essential co-factors for a wide variety of enzymatic rea...
Iron is a redox active element that functions as an essential cofactor in multiple metabolic pathway...
Metal ions are critical nutrients, yet overaccumulation of these same metals can also be toxic. To m...
Metal ions are critical nutrients, yet overaccumulation of these same metals can also be toxic. To m...
The trace metal iron is essential for the survival of almost all living organisms. It is a co-factor...
AbstractWe previously reported a role for the IZH2 gene product in metal ion metabolism. Subsequentl...
As an essential cofactor in a myriad of cellular processes, uptake and mobilization of iron must be ...
As an essential cofactor in a myriad of cellular processes, uptake and mobilization of iron must be ...
Iron is an essential micronutrient for all eukaryotic organisms because it participates as a redox c...
In yeast (Saccharomyces cerevisiae) and plant roots (Arabidopsis thaliana) zinc enters the cells via...
<p>The ability of iron (Fe) to easily transition between two valence states makes it a preferred co-...
Acquisition of metals such as iron, copper, and zinc by the yeast Saccharomyces cerevisiae is tightl...
Acquisition of metals such as iron, copper, and zinc by the yeast Saccharomyces cerevisiae is tightl...
Saccharomyces cerevisiae transcriptionally regulates the expression of the plasma membrane high affi...
The transition metals iron and zinc are essential requirements for all living organisms. They partic...
The metal ions, Cu 2+/+ and Fe 3+/2+ , are essential co-factors for a wide variety of enzymatic rea...
Iron is a redox active element that functions as an essential cofactor in multiple metabolic pathway...
Metal ions are critical nutrients, yet overaccumulation of these same metals can also be toxic. To m...
Metal ions are critical nutrients, yet overaccumulation of these same metals can also be toxic. To m...
The trace metal iron is essential for the survival of almost all living organisms. It is a co-factor...
AbstractWe previously reported a role for the IZH2 gene product in metal ion metabolism. Subsequentl...
As an essential cofactor in a myriad of cellular processes, uptake and mobilization of iron must be ...
As an essential cofactor in a myriad of cellular processes, uptake and mobilization of iron must be ...
Iron is an essential micronutrient for all eukaryotic organisms because it participates as a redox c...
In yeast (Saccharomyces cerevisiae) and plant roots (Arabidopsis thaliana) zinc enters the cells via...
<p>The ability of iron (Fe) to easily transition between two valence states makes it a preferred co-...