Section I. Overview
1. An overview of genome editing in cardiovascular and metabolic diseases
Section II. Bioinformatics
2. Bioinformatics research methodology of genome editing in cardiovascular and metabolic diseases
3. Online databases of genome editing in cardiovascular and metabolic diseases
4. Application of systems biology for genome editing involved in regulating of cardiovascular and metabolic diseases
5. Bioinformatics for reducing off-targets in cardiovascular and metabolic diseases
Section III. Genome editing in cardiovascular disease
6. Genome editing and cardiac regeneration
7. Genome editing and myocardial development
8. Genome editing and heart failure
9. Genome editing and pathological cardiac hypertrophy
10. Genome editing and cardiac remodeling
11. Genome editing and diabetic cardiomyopathy
12. Genome editing and cardiac arrhythmias
13. Genome editing and atrial fibrillation
14. Genome editing and muscle atrophy
Section IV. Genome editing in metabolic diseases
15. Genome editing and obesity
16. Genome editing and fatty liver
17. Genome editing and diabetes
18. Genome editing and gout
19. Genome editing and protein energy malnutrition
Section V. Therapeutic implications
20. Genome therapy and cardiovascular diseases
21. Therapeutics in metabolic diseases
22. Gene editing and human iPSCs in cardiovascular and editing diseases
Section VI. Future Prospects
23. Prospective advances in genome editing investigation
Dr. Junjie Xiao is the Vice Dean of the School of Life Science and also of the Medical School at Shanghai University. He is the Associate Editor of the Journal of Cardiovascular Translational Research, BMC Sports and Science, Medicine& Rehabilitation, and a member of the editorial board of BMC Medicine. He is the author or co-author of numerous scientific articles in various journals, including Cell Metabolism, Nature Communications, Annual Review of Genomics and Human Genetics, Circulation, and Theranostics. His major research interest is exercise and myocardial protection, especially using exercise as a platform to identify novel targets for enhancing cardiac regeneration and combating heart failure.