Resistance wheel running improves contractile strength, but not metabolic capacity, in a murine model of volumetric muscle loss injury

Neuroscience

• Transcription Factors 100%
• Peroxisome Proliferator-Activated Receptor 100%
• Plantar Flexors 100%
• Mitochondrial Respiration 100%
• Skeletal Muscle 100%
• Gastrocnemius Muscle 100%
• Posttranslational Modification 100%
• Mitochondrial Biogenesis 100%
• Immunoblotting 100%
• C57BL 6 Mouse 100%

Keyphrases

• Murine Model 100%
• Metabolic Flexibility 100%
• Volumetric muscle Loss 100%
• Wheel Running 100%
• Isometric Torque 22%
• High Resistance 11%
• Permeabilized muscle Fibers 11%
• Protein Content 7%
• Low Resistance 7%
• Muscle Mass 7%
• Muscle Strength 7%
• Fiber Bundle 7%
• Transcription Factor 3%
• Adaptation 3%
• Peroxisome Proliferator-activated Receptor 3%
• Skeletal muscle 3%
• Whole-body 3%
• C57BL 3%
• Hypertrophy 3%
• Rehabilitation Strategies 3%
• Resilience 3%
• Post-translational Modification 3%
• Respiration 3%
• Metabolic Function 3%
• Atrophy 3%
• Functional Improvement 3%
• Immunoblot 3%
• Mitochondrial Biogenesis 3%
• Treadmill 3%
• Functional Capacity 3%
• Mitochondrial Respiration 3%
• Coactivator 3%
• PGC-1 3%
• Complete Recovery 3%
• Endurance Limit 3%
• Resistance Resistance 3%
• Plantar Flexors 3%
• Gastrocnemius 3%
• Metabolic Adaptation 3%
• Loss Peak 3%
• Voluntary Wheel Running 3%
• Running Distance 3%
• Mitochondrial Oxygen Consumption 3%
• Running Resistance 3%
• Running Group 3%

Nursing and Health Professions

• Metabolic Capacity 100%
• Isometrics 100%
• Muscle Mass 50%
• Muscle Strength 50%
• Protein Content 50%
• Functional Status 25%
• Immunoblotting 25%
• Peroxisome Proliferator Activated Receptor 25%
• Protein Processing 25%
• Transcription Factors 25%
• Oxygen Consumption 25%