Short exposure to hyperoxia causes cultured lung epithelial cell mitochondrial dysregulation and alveolar simplification in mice

Keyphrases

• Mitochondrial Dysfunction 100%
• Short-term Exposure 100%
• Hyperoxia 100%
• Lung Epithelial Cells 100%
• Alveolar Simplification 100%
• Neonatal Mice 25%
• Epithelial Cells 16%
• Chronic Lung Disease 16%
• Oxidative Stress 8%
• Exposure Time 8%
• Mitochondria 8%
• Long-term Exposure 8%
• Mitochondrial Function 8%
• Lung Cells 8%
• Prolonged Exposure 8%
• Lung 8%
• Cell Behavior 8%
• Residual Effect 8%
• Day 14 8%
• Lifesaving 8%
• Mouse Lung 8%
• Cellular Metabolism 8%
• Global Reduction 8%
• Oxidative Phosphorylation (OXPHOS) 8%
• Cellular Injury 8%
• Fuel Consumption 8%
• Premature Infant 8%
• Postnatal Day 8%
• Lung Dysfunction 8%
• Mitochondrial Metabolism 8%
• High Oxygen Concentration 8%
• Respiratory Complex I 8%
• Alveolar Epithelium 8%
• Alveolarization 8%
• Respiratory Complex IV 8%
• Mitochondrial Dynamics 8%
• Lung Oxidative Stress 8%
• Neonatal Chronic Lung Disease 8%
• Mitochondrial Metabolites 8%
• Tubular Networks 8%

Medicine and Dentistry

• Epithelial Cell 100%
• Hyperoxia 100%
• Chronic Lung Disease 25%
• Oxidative Stress 16%
• Cell Function 8%
• Carbon Dioxide 8%
• Mitochondrion 8%
• Long Term Exposure 8%
• Cell Damage 8%
• Prematurity 8%
• Metabolite 8%
• Cell Metabolism 8%
• Mitochondrial Respiration 8%
• Oxidative Phosphorylation 8%
• Alveolar Epithelium 8%
• Mitochondrial Dynamics 8%
• Alveolarization 8%

Pharmacology, Toxicology and Pharmaceutical Science

• Mouse 100%
• Chronic Lung Disease 60%
• Long Term Exposure 20%
• Prematurity 20%
• Carbon Dioxide 20%
• Cellular Injury 20%