Acute resistance exercise training does not augment mitochondrial remodelling in master athletes or untrained older adults

Keyphrases

• Older Adults 100%
• Acute Exercise 100%
• Resistance Training 100%
• Master Athletes 100%
• Mitochondrial Remodeling 100%
• Skeletal muscle 15%
• Protein Content 15%
• Mitochondrial Content 15%
• Single Session 15%
• Mitochondrial Quality Control 15%
• Citrate Synthase Activity 15%
• Enzyme Activity 7%
• Aging 7%
• Immunoblotting 7%
• Endurance Training 7%
• Recovery Period 7%
• Quality Control 7%
• Later Life 7%
• Mitochondrial Proteins 7%
• Knee Extension 7%
• Mitochondrial Markers 7%
• Mitochondrial Density 7%
• Biogenesis 7%
• Training Support 7%
• Training Recovery 7%
• Muscle Biopsy 7%
• Skeletal muscle Biopsy 7%
• Vastus Lateralis muscle 7%
• Aerobic Training 7%
• Physical Activity Status 7%
• Mitochondrial Regulation 7%
• Quality Control Mechanism 7%
• Mitochondrial Electron Transport Chain 7%
• Citrate Synthase 7%
• PGC-1 7%
• 1-RM 7%
• Mitochondrial Fusion 7%
• Sirtuin 3 (SIRT3) 7%
• Electron Transport Chain Complexes 7%
• Optic Atrophy 1 (OPA1) 7%
• Mitochondrial Fission 7%
• Fission-fusion 7%
• Fusion Dynamics 7%
• Set Recovery 7%
• Skeletal muscle Oxidative Metabolism 7%
• Fission Dynamics 7%

Neuroscience

• Skeletal Muscle 100%
• Citrate Synthase 75%
• Metabolic Pathway 25%
• Immunoblotting 25%
• Enzyme Activity 25%
• NADH Dehydrogenase (Ubiquinone) 25%
• Mitochondrial Fission 25%
• Mitochondrial Fusion 25%

Biochemistry, Genetics and Molecular Biology

• Resistance Training 100%
• Skeletal Muscle 30%
• Citrate Synthase 23%
• Quality Control 23%
• Dynamics 15%
• Protein Content 15%
• Physical Activity 7%
• Aerobic Metabolism 7%
• Enzyme Activity 7%
• Immunoblotting 7%
• Electron Transport Chain 7%
• Biogenesis 7%
• TFAM 7%
• Aerobic Exercise 7%
• Mitochondrial Fusion 7%
• Mitochondrial Fission 7%