Enhanced Protein Translation Underlies Improved Metabolic and Physical Adaptations to Different Exercise Training Modes in Young and Old Humans

Keyphrases

• Aerobic 100%
• Metabolic Adaptation 100%
• Exercise Training 100%
• Training Methods 100%
• Protein Translation 100%
• Physical Adaptation 100%
• Proteome 66%
• Exercise Modality 66%
• Older Adults 33%
• Age-related Differences 33%
• Skeletal muscle 33%
• Hypertrophy 33%
• Small Changes 33%
• DNA Methylation (DNAm) 33%
• All Ages 33%
• Mitochondrial Proteins 33%
• Protein Abundance 33%
• Promoter Region 33%
• DNA Promoter 33%
• Translational Machinery 33%
• Insulin Sensitivity 33%
• Mitochondrial Function 33%
• Mitochondrial Respiration 33%
• Resistance Training 33%
• Combined Exercise Training 33%
• Mitochondrial Protein Synthesis 33%
• Aerobic Capacity 33%
• Lean Mass 33%
• Interval Training 33%
• Combined Training 33%
• Translational Capacity 33%
• Exercise Regulation 33%
• Aerobic Interval Exercise 33%
• Aerobic Interval Training 33%

Biochemistry, Genetics and Molecular Biology

• Proteome 100%
• Mitochondrial Protein 100%
• Translation (Protein Synthesis) 100%
• Exercise 100%
• Mitochondrial Respiration 50%
• Methylation 50%
• Skeletal Muscle 50%
• Protein Biosynthesis 50%
• Pribnow Box 50%
• Insulin Sensitivity 50%

Immunology and Microbiology

• Exercise 100%
• Promoter Region 50%
• Mitochondrial Respiration 50%
• Skeletal Muscle 50%
• Methylation 50%
• Insulin Sensitivity 50%
• Protein Synthesis 50%