Sports, Exercise, and Nutritional Genomics

<p>SECTION I. SPORTS GENETICS<br>1. Introduction to genetics of sport and exercise<br>2. Heritability estimates of physical performance-related phenotypes<br>3. Genes and power athlete status<br>4. Genetic profile of elite endurance athletes<br>5. Genetics of team sports<br>6. Variation of Mitochondrial DNA and elite athletic performance<br>7. Psychogenetics and sport</p> <p>SECTION II. EXERCISE GENETICS AND MOLECULAR PHYSIOLOGY<br>8. Genes and response to aerobic training<br>9. Effect of gene polymorphisms on sensitivity to resistance training<br>10. Exercise and DNA methylation in skeletal muscle<br>11. Genes and individual responsiveness to exercise-induced fat loss</p> <p>SECTION III. GENETICS OF MUSCULOSKELETAL EXERCISE-RELATED PHENOTYPES<br>12. Genetic and epigenetic determinants of muscle mass<br>13. Genetics of flexibility<br>14. Genetics of muscle fiber composition</p> <p>SECTION IV. GENETICS OF SPORT-RELATED DISEASES AND MEDICAL CONDITIONS<br>15. Genetics of musculoskeletal soft tissue injuries: Current status, challenges, and future directions<br>16. Genetics of sport-related concussion<br>17. The genetic association with exercise-induced muscle damage and muscle injury risk</p> <p>SECTION V. NUTRIGENETICS, PHARMACOGENETICS AND METABOLOMICS IN SPORT AND EXERCISE <br>18. Personalized sports nutrition: Role of nutrients in athletic performance<br>19. Metabolomics and proteomics as tools to advance the understanding of exercise responses: The emerging role of gut microbiota in athlete health and performance<br>20. The future of genetically based nutritional and pharmacological ergogenic aids in sport<br>21. Perspectives of personalized weight loss interventions based on exercise genomics, nutrigenetic, epigenetic, and metagenomic data in fitness and sport</p>