Fundamentals of Space Medicine and Clinical Technology is a comprehensive guide that delves into the advanced technologies utilized in space medicine today. The book is structured into three sections: an introduction to the physiology of space medicine, a detailed overview of various space medicine technologies, and the application of these technologies on Earth. Authored by leading experts in the field, it aims to bridge the gap between space medicine physiology and technological advancements, offering valuable insights. Additionally, the book serves as a useful resource for doctors, engineers, commercial industries, and governments, highlighting the significance of translational applications of space medicine technologies.
This is a pivotal read for anyone interested in the intersection of space exploration and medical science.
1. Title of Book - p. i 2. Cover image - p. i 3. Title page - p. ii 4. Table of Contents - p. iii 5. Copyright - p. iv 6. Dedication - p. v 7. List of contributors - p. xix 8. About the editors - p. xxv 9. Foreword - p. xxvii 10. Acknowledgments - p. xxix 11. Chapter 1. Cardiac changes in space - p. 3 12. Chapter 2. Skeletal muscle adaptations to spaceflight: mechanisms and countermeasures - p. 15 13. Chapter 3. Neurological adaptations to spaceflight - p. 29 14. Chapter 4. Immune dysfunction - p. 47 15. Chapter 5. Spaceflight-associated neuro-ocular syndrome - p. 57 16. Chapter 6. Viral evolution in the cosmos - p. 67 17. Chapter 7. Astronaut multi-omics - p. 97 18. Chapter 8. Metabolic and endocrine changes in spaceflight - p. 121 19. Chapter 9. Reproduction and obstetrics in space - p. 139 20. Chapter 10. Immunometabolism in space - p. 155 21. Chapter 11. Effects of altered gravity on the liver - p. 173 22. Chapter 12. Dermatologic conditions in space - p. 183 23. Circadian rhythm changes in space - p. 201 24. Chapter 14. Ocular surface, anterior segment, and lens in spaceflight - p. 227 25. Chapter 15. MicroRNAs in space: biomarkers for health risk assessment and targets for countermeasures - p. 237 26. Chapter 16. Gut microbiota and intervention of probiotics in spaceflight - p. 267 27. Chapter 17. Physiological similarities between dive and space medicine - p. 285 28. Chapter 18. Spacesuits and extravehicular activity - p. 291 29. Chapter 19. Ultrasound in space - p. 309 30. Chapter 20. Hybrid training system in space flight - p. 319 31. Chapter 21. Regenerative medicine in space - p. 325 32. Chapter 22. Digital clinicians in spaceflight and off-Earth habitation - p. 341 33. Chapter 23. Bone health countermeasures - p. 351 34. Chapter 24. Precision medicine in human spaceflight: applying systems thinking to principles, concepts, and methods of assessment - p. 369 35. Chapter 25. Virtual and augmented reality in space - p. 395 36. Chapter 26. Artificial intelligence in space - p. 403 37. Chapter 27. Advanced technologies in deep space exploration and clinical applications - p. 415 38. Chapter 28. Organoid research in space for human health - p. 425 39. Chapter 29. Open science in space medicine: perspectives following the White House Office of Science and Technology Policy Open Science Sessions for early career researchers - p. 435 40. Chapter 30. Eye tracking during spaceflight: current technology and future directions for spaceflight-associated neuro-ocular syndrome - p. 439 41. Chapter 31. Short-arm centrifuge artificial gravity for space station - p. 451 42. Chapter 32. LASER body mass measurement device - p. 457 43. Chapter 33. Space station atmosphere lint mitigation - p. 463 44. Chapter 34. Health impacts of radiation in space and countermeasures - p. 467 45. Chapter 35. Advancing surgical autonomy in space: microgravity-optimized procedures, technologies, and countermeasures for the International Space Station - p. 489 46. Appendix - p. 507 47. Index - p. 531
Fundamentals of Space Medicine and Clinical Technology is a comprehensive guide that delves into the advanced technologies utilized in space medicine today. The book is structured into three sections: an introduction to the physiology of space medicine, a detailed overview of various space medicine technologies, and the application of these technologies on Earth. Authored by leading experts in the field, it aims to bridge the gap between space medicine physiology and technological advancements, offering valuable insights. Additionally, the book serves as a useful resource for doctors, engineers, commercial industries, and governments, highlighting the significance of translational applications of space medicine technologies.
This is a pivotal read for anyone interested in the intersection of space exploration and medical science.
1. Title of Book - p. i 2. Cover image - p. i 3. Title page - p. ii 4. Table of Contents - p. iii 5. Copyright - p. iv 6. Dedication - p. v 7. List of contributors - p. xix 8. About the editors - p. xxv 9. Foreword - p. xxvii 10. Acknowledgments - p. xxix 11. Chapter 1. Cardiac changes in space - p. 3 12. Chapter 2. Skeletal muscle adaptations to spaceflight: mechanisms and countermeasures - p. 15 13. Chapter 3. Neurological adaptations to spaceflight - p. 29 14. Chapter 4. Immune dysfunction - p. 47 15. Chapter 5. Spaceflight-associated neuro-ocular syndrome - p. 57 16. Chapter 6. Viral evolution in the cosmos - p. 67 17. Chapter 7. Astronaut multi-omics - p. 97 18. Chapter 8. Metabolic and endocrine changes in spaceflight - p. 121 19. Chapter 9. Reproduction and obstetrics in space - p. 139 20. Chapter 10. Immunometabolism in space - p. 155 21. Chapter 11. Effects of altered gravity on the liver - p. 173 22. Chapter 12. Dermatologic conditions in space - p. 183 23. Circadian rhythm changes in space - p. 201 24. Chapter 14. Ocular surface, anterior segment, and lens in spaceflight - p. 227 25. Chapter 15. MicroRNAs in space: biomarkers for health risk assessment and targets for countermeasures - p. 237 26. Chapter 16. Gut microbiota and intervention of probiotics in spaceflight - p. 267 27. Chapter 17. Physiological similarities between dive and space medicine - p. 285 28. Chapter 18. Spacesuits and extravehicular activity - p. 291 29. Chapter 19. Ultrasound in space - p. 309 30. Chapter 20. Hybrid training system in space flight - p. 319 31. Chapter 21. Regenerative medicine in space - p. 325 32. Chapter 22. Digital clinicians in spaceflight and off-Earth habitation - p. 341 33. Chapter 23. Bone health countermeasures - p. 351 34. Chapter 24. Precision medicine in human spaceflight: applying systems thinking to principles, concepts, and methods of assessment - p. 369 35. Chapter 25. Virtual and augmented reality in space - p. 395 36. Chapter 26. Artificial intelligence in space - p. 403 37. Chapter 27. Advanced technologies in deep space exploration and clinical applications - p. 415 38. Chapter 28. Organoid research in space for human health - p. 425 39. Chapter 29. Open science in space medicine: perspectives following the White House Office of Science and Technology Policy Open Science Sessions for early career researchers - p. 435 40. Chapter 30. Eye tracking during spaceflight: current technology and future directions for spaceflight-associated neuro-ocular syndrome - p. 439 41. Chapter 31. Short-arm centrifuge artificial gravity for space station - p. 451 42. Chapter 32. LASER body mass measurement device - p. 457 43. Chapter 33. Space station atmosphere lint mitigation - p. 463 44. Chapter 34. Health impacts of radiation in space and countermeasures - p. 467 45. Chapter 35. Advancing surgical autonomy in space: microgravity-optimized procedures, technologies, and countermeasures for the International Space Station - p. 489 46. Appendix - p. 507 47. Index - p. 531
