Complex I deficiency is the most frequently encountered single mitochondrial single enzyme deficiency in patients with a mitochondrial disorder. Although specific genotype-phenotype correlations are very difficult to identify, the majority of patients present with symptoms caused by leukodystrophy. The poor genotype-phenotype correlations can make establishing a diagnosis a challenge. The classical way to establish a complex I deficiency in patients is by performing spectrophotometric measurements of the enzyme in a muscle biopsy or other patient-derived material (liver or heart biopsy, cultured skin fibroblasts). Complex I is encoded by both the mtDNA and nuclear DNA and pathogenic mutations have been identified in the majority of the 44 g...
Background: Mitochondrial complex I deficiency is the most common cause of mitochondrial disease in ...
Background Mitochondrial complex I deficiency is the most common cause of mitochondrial disease in c...
Complex I has an essential role in ATP production by coupling electron transfer from NADH to quinone...
NADH-ubiquinone oxidoreductase or complex I deficiency is a frequently diagnosed enzyme defect of th...
<p>The common cause of mitochondrial diseases is hereditary defects in mitochondrial respiratory cha...
Mitochondrial diseases due to a reduced capacity for oxidative phosphorylation were first identified...
Mitochondrial complex I is the largest multi-protein enzyme complex of the oxidative phosphorylation...
Mitochondrial complex I is the largest multi-protein enzyme complex of the oxidative phosphorylation...
Abstract The mitochondrial oxidative phosphorylation system is composed of five multisubunit enzyme ...
Mitochondrial diseases due to a reduced capacity for oxidative phosphorylation were first identified...
Item does not contain fulltextThe oxidative phosphorylation (OXPHOS) system, consisting of five enzy...
Contains fulltext : 79619.pdf (publisher's version ) (Closed access)Mitochondria a...
To investigate the clinical, enzymological and mitochondrial gene profiles of complex I deficiency i...
Mitochondria are essential for cellular bioenergetics by way of energy production in the form of ATP...
Background: Mitochondrial complex I deficiency is the most common cause of mitochondrial disease in ...
Background: Mitochondrial complex I deficiency is the most common cause of mitochondrial disease in ...
Background Mitochondrial complex I deficiency is the most common cause of mitochondrial disease in c...
Complex I has an essential role in ATP production by coupling electron transfer from NADH to quinone...
NADH-ubiquinone oxidoreductase or complex I deficiency is a frequently diagnosed enzyme defect of th...
<p>The common cause of mitochondrial diseases is hereditary defects in mitochondrial respiratory cha...
Mitochondrial diseases due to a reduced capacity for oxidative phosphorylation were first identified...
Mitochondrial complex I is the largest multi-protein enzyme complex of the oxidative phosphorylation...
Mitochondrial complex I is the largest multi-protein enzyme complex of the oxidative phosphorylation...
Abstract The mitochondrial oxidative phosphorylation system is composed of five multisubunit enzyme ...
Mitochondrial diseases due to a reduced capacity for oxidative phosphorylation were first identified...
Item does not contain fulltextThe oxidative phosphorylation (OXPHOS) system, consisting of five enzy...
Contains fulltext : 79619.pdf (publisher's version ) (Closed access)Mitochondria a...
To investigate the clinical, enzymological and mitochondrial gene profiles of complex I deficiency i...
Mitochondria are essential for cellular bioenergetics by way of energy production in the form of ATP...
Background: Mitochondrial complex I deficiency is the most common cause of mitochondrial disease in ...
Background: Mitochondrial complex I deficiency is the most common cause of mitochondrial disease in ...
Background Mitochondrial complex I deficiency is the most common cause of mitochondrial disease in c...
Complex I has an essential role in ATP production by coupling electron transfer from NADH to quinone...