<p>(A) Crystal structure (PDB code 2GGM) of HsCen2 in the calcium-bound, compact state. The typical helix-loop-helix structure can be observed, with EF-hands indicated by Roman numerals. The dotted lines indicate the N-terminal truncated part of the domain used in the sensor. In HsCen3, the high-affinity Mg<sup>2+</sup>/Ca<sup>2+</sup> binding site is in loop I, and a much weaker Ca<sup>2+</sup>-binding site is found in loop II. (B) Schematic representation of MagFRET, where the N-terminal truncation of HsCen3 is flanked by Cerulean and Citrine. In absence of Mg<sup>2+</sup>, the HsCen3 domain is in a molten globule-like state, with little tertiary structure and a relatively large average distance between the fluorescent domains. Mg<sup>2+<...
AbstractThe Ca2+-binding helix–loop–helix structural motif called “EF-hand” is a common building blo...
Magnesium is the most abundant divalent cation in the cell, and is required for many cellular proces...
none4BACKGROUND: Magnesium research is increasing in molecular medicine due to the relevance of this...
Magnesium has important structural, catalytic and signaling roles in cells, yet few tools exist to i...
Magnesium has important structural, catalytic and signaling roles in cells, yet few tools exist to i...
Magnesium has important structural, catalytic and signaling roles in cells, yet few tools exist to i...
1<p>Mutations introduced in the first or second 12-residue metal binding loops of HsCen3 are indicat...
Mg2+ is an essential metal that regulates the structure and function of biological macromolecules, i...
The effects of physiological concentration of magnesium on the switch states of the neuronal calcium...
Magnesium ions (Mg2+) are crucial for various biological processes. A bacterial Mg2+ channel, MgtE, ...
AbstractThe effects of physiological concentration of magnesium on the switch states of the neuronal...
Although the magnesium ion (Mg<sup>2+</sup>) is one of the most abundant divalent cations in cells a...
Magnesium ions (Mg2+) are divalent cations essential for various cellular functions. Mg2+ homeostasi...
<p>(A) Normalized fluorescence emission spectra of MagFRET-1 at 0 and at 16 mM Mg<sup>2+</sup> after...
ABSTRACT: Ca2+ controls biological processes by interacting with proteins with different affinities,...
AbstractThe Ca2+-binding helix–loop–helix structural motif called “EF-hand” is a common building blo...
Magnesium is the most abundant divalent cation in the cell, and is required for many cellular proces...
none4BACKGROUND: Magnesium research is increasing in molecular medicine due to the relevance of this...
Magnesium has important structural, catalytic and signaling roles in cells, yet few tools exist to i...
Magnesium has important structural, catalytic and signaling roles in cells, yet few tools exist to i...
Magnesium has important structural, catalytic and signaling roles in cells, yet few tools exist to i...
1<p>Mutations introduced in the first or second 12-residue metal binding loops of HsCen3 are indicat...
Mg2+ is an essential metal that regulates the structure and function of biological macromolecules, i...
The effects of physiological concentration of magnesium on the switch states of the neuronal calcium...
Magnesium ions (Mg2+) are crucial for various biological processes. A bacterial Mg2+ channel, MgtE, ...
AbstractThe effects of physiological concentration of magnesium on the switch states of the neuronal...
Although the magnesium ion (Mg<sup>2+</sup>) is one of the most abundant divalent cations in cells a...
Magnesium ions (Mg2+) are divalent cations essential for various cellular functions. Mg2+ homeostasi...
<p>(A) Normalized fluorescence emission spectra of MagFRET-1 at 0 and at 16 mM Mg<sup>2+</sup> after...
ABSTRACT: Ca2+ controls biological processes by interacting with proteins with different affinities,...
AbstractThe Ca2+-binding helix–loop–helix structural motif called “EF-hand” is a common building blo...
Magnesium is the most abundant divalent cation in the cell, and is required for many cellular proces...
none4BACKGROUND: Magnesium research is increasing in molecular medicine due to the relevance of this...