Cellular and Molecular Gastroenterology and Hepatology · 2018 · 70 citations · 55 references
Life SciencesBiochemistryNutritional SciencesCellular MetabolismMetabolismMitochondrial BiologyLiver DiseaseMitochondrial DysfunctionMitochondrial Dysfunction In HepatotoxicityMitochondrial MetabolismMitochondrial PhysiologyWilson DiseaseMitochondrial Dysfunction NeurotoxicityMitochondrial HepatopathyMitochondrial Oxidative StressOxidative Phosphorylation DysfunctionOxidative Phosphorylation ImpairmentWilson Disease Pathophysiology
BACKGROUND & AIMS: In Wilson disease, ATP7B mutations impair copper excretion into bile. Hepatic copper accumulation may induce mild to moderate chronic liver damage or even acute liver failure. Etiologic factors for this heterogeneous phenotype remain enigmatic. Liver steatosis is a frequent finding in Wilson disease patients, suggesting that impaired copper homeostasis is linked with liver steatosis. Hepatic mitochondrial function is affected negatively both by copper overload and steatosis. Therefore, we addressed the question of whether a steatosis-promoting high-calorie diet aggravates liver damage in Wilson disease via amplified mitochondrial damage. METHODS: rats to test for therapeutic reversal of mitochondrial copper damage. RESULTS: emergence, and dysfunctional adenosine triphosphate production. Hepatocellular injury presumably was augmented as a result of oxidative stress. Reduction of mitochondrial copper by methanobactin significantly reduced mitochondrial impairment and ameliorated liver damage. CONCLUSIONS: A high-calorie diet severely aggravates hepatic mitochondrial and hepatocellular damage in Wilson disease rats, causing an earlier onset of the disease and enhanced disease progression.
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Design and validation of a histological scoring system for nonalcoholic fatty liver disease†
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