AbstractHuman magnesium homeostasis primarily depends on the balance between intestinal absorption and renal excretion. Magnesium transport processes in both organ systems – next to passive paracellular magnesium flux – involve active transcellular magnesium transport consisting of an apical uptake into the epithelial cell and a basolateral extrusion into the interstitium. Whereas the mechanism of basolateral magnesium extrusion remains unknown, recent molecular genetic studies in patients with hereditary hypomagnesemia helped gain insight into the molecular nature of apical magnesium entry into intestinal brush border and renal tubular epithelial cells. Patients with Hypomagnesemia with Secondary Hypocalcemia (HSH), a primary defect in int...
Mg2+ is an essential ion involved in a multitude of physiological and biochemical processes and a ma...
The overall aim of the research presented in this thesis was to elucidate the molecular mechanisms o...
Magnesium (Mg21) is the fourth most abundant cation in the body. Thus, magnesium homeostasis needs t...
AbstractHuman magnesium homeostasis primarily depends on the balance between intestinal absorption a...
The past decade has witnessed multiple advances in our understanding of magnesium (Mg(2+)) homeostas...
Intestinal magnesium (Mg) uptake is essential for systemic Mg homeostasis. Colon cells express the t...
Intestinal magnesium (Mg) uptake is essential for systemic Mg homeostasis. Colon cells express the t...
TRPM7 is an unusual bi-functional protein containing an ion channel covalently linked to a protein k...
TRPM7 is an unusual bi-functional protein containing an ion channel covalently linked to a protein k...
TRPM7 is an unusual bi-functional protein containing an ion channel covalently linked to a protein k...
TRPM7 is an unusual bi-functional protein containing an ion channel covalently linked to a protein k...
TRPM7 is an unusual bi-functional protein containing an ion channel covalently linked to a protein k...
Despite recent progress in our understanding of renal magnesium (Mg(2+)) handling, the molecular mec...
Contains fulltext : 70519.pdf (publisher's version ) (Open Access)The past decade ...
Contains fulltext : 57440.pdf (Publisher’s version ) (Open Access)Mg2+ is an essen...
Mg2+ is an essential ion involved in a multitude of physiological and biochemical processes and a ma...
The overall aim of the research presented in this thesis was to elucidate the molecular mechanisms o...
Magnesium (Mg21) is the fourth most abundant cation in the body. Thus, magnesium homeostasis needs t...
AbstractHuman magnesium homeostasis primarily depends on the balance between intestinal absorption a...
The past decade has witnessed multiple advances in our understanding of magnesium (Mg(2+)) homeostas...
Intestinal magnesium (Mg) uptake is essential for systemic Mg homeostasis. Colon cells express the t...
Intestinal magnesium (Mg) uptake is essential for systemic Mg homeostasis. Colon cells express the t...
TRPM7 is an unusual bi-functional protein containing an ion channel covalently linked to a protein k...
TRPM7 is an unusual bi-functional protein containing an ion channel covalently linked to a protein k...
TRPM7 is an unusual bi-functional protein containing an ion channel covalently linked to a protein k...
TRPM7 is an unusual bi-functional protein containing an ion channel covalently linked to a protein k...
TRPM7 is an unusual bi-functional protein containing an ion channel covalently linked to a protein k...
Despite recent progress in our understanding of renal magnesium (Mg(2+)) handling, the molecular mec...
Contains fulltext : 70519.pdf (publisher's version ) (Open Access)The past decade ...
Contains fulltext : 57440.pdf (Publisher’s version ) (Open Access)Mg2+ is an essen...
Mg2+ is an essential ion involved in a multitude of physiological and biochemical processes and a ma...
The overall aim of the research presented in this thesis was to elucidate the molecular mechanisms o...
Magnesium (Mg21) is the fourth most abundant cation in the body. Thus, magnesium homeostasis needs t...