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A 2003 graduate text describing the theory astronomers need for studying globular star clusters.
A 2003 graduate text describing the theory astronomers need for studying globular star clusters.
Produktdetails
- Produktdetails
- Verlag: Cambridge University Press
- Seitenzahl: 372
- Erscheinungstermin: 23. Januar 2003
- Englisch
- Abmessung: 244mm x 170mm x 20mm
- Gewicht: 641g
- ISBN-13: 9780521774864
- ISBN-10: 0521774861
- Artikelnr.: 21845355
- Verlag: Cambridge University Press
- Seitenzahl: 372
- Erscheinungstermin: 23. Januar 2003
- Englisch
- Abmessung: 244mm x 170mm x 20mm
- Gewicht: 641g
- ISBN-13: 9780521774864
- ISBN-10: 0521774861
- Artikelnr.: 21845355
Douglas Heggie is Professor of Mathematical Astronomy at the University of Edinburgh, Scotland.
Part I. Introductions: 1. Astrophysics introduction
2. Theoretical physics introduction
3. Computational physics introduction
4. Mathematical introduction
Part II. The Continuum Limit: 5. Paradoxical thermodynamics
6. Statistical mechanics
7. Motion in a central potential
8. Some famous models
9. Methods
Part III. Mean Field Dynamics: 10. Violent relaxation
11. Internal mass loss
12. External influences
Part IV. Microphysics: 13. Exponential orbit instability
14. Two-body relaxation
15. From Kepler to Kustaanheimo
Part V. Gravothermodynamics: 16. Escape and mass segregation
17. Gravothermal instability
18. Core collapse rate for star clusters
Part VI. Gravitational Scattering: 19. Thought experiments
20. Mathematical three-body scattering
21. Analytical approximations
22. Laboratory experiments
23. Gravitational burning and transmutation
Part VII. Primordial Binaries: 24. Binaries in star clusters
25. Triple formation and evolution
26. A non-renewable energy source
Part VIII. Post-Collapse Evolution: 27. Surviving core collapse
28. Gravothermal oscillations
29. Dissolution
Part IX. Star Cluster Ecology: 30. Stellar and dynamical evolution
31. Collisions and capture
32. Binary star evolution and blue stragglers
33. Star cluster evolution
Appendices.
2. Theoretical physics introduction
3. Computational physics introduction
4. Mathematical introduction
Part II. The Continuum Limit: 5. Paradoxical thermodynamics
6. Statistical mechanics
7. Motion in a central potential
8. Some famous models
9. Methods
Part III. Mean Field Dynamics: 10. Violent relaxation
11. Internal mass loss
12. External influences
Part IV. Microphysics: 13. Exponential orbit instability
14. Two-body relaxation
15. From Kepler to Kustaanheimo
Part V. Gravothermodynamics: 16. Escape and mass segregation
17. Gravothermal instability
18. Core collapse rate for star clusters
Part VI. Gravitational Scattering: 19. Thought experiments
20. Mathematical three-body scattering
21. Analytical approximations
22. Laboratory experiments
23. Gravitational burning and transmutation
Part VII. Primordial Binaries: 24. Binaries in star clusters
25. Triple formation and evolution
26. A non-renewable energy source
Part VIII. Post-Collapse Evolution: 27. Surviving core collapse
28. Gravothermal oscillations
29. Dissolution
Part IX. Star Cluster Ecology: 30. Stellar and dynamical evolution
31. Collisions and capture
32. Binary star evolution and blue stragglers
33. Star cluster evolution
Appendices.
Part I. Introductions: 1. Astrophysics introduction
2. Theoretical physics introduction
3. Computational physics introduction
4. Mathematical introduction
Part II. The Continuum Limit: 5. Paradoxical thermodynamics
6. Statistical mechanics
7. Motion in a central potential
8. Some famous models
9. Methods
Part III. Mean Field Dynamics: 10. Violent relaxation
11. Internal mass loss
12. External influences
Part IV. Microphysics: 13. Exponential orbit instability
14. Two-body relaxation
15. From Kepler to Kustaanheimo
Part V. Gravothermodynamics: 16. Escape and mass segregation
17. Gravothermal instability
18. Core collapse rate for star clusters
Part VI. Gravitational Scattering: 19. Thought experiments
20. Mathematical three-body scattering
21. Analytical approximations
22. Laboratory experiments
23. Gravitational burning and transmutation
Part VII. Primordial Binaries: 24. Binaries in star clusters
25. Triple formation and evolution
26. A non-renewable energy source
Part VIII. Post-Collapse Evolution: 27. Surviving core collapse
28. Gravothermal oscillations
29. Dissolution
Part IX. Star Cluster Ecology: 30. Stellar and dynamical evolution
31. Collisions and capture
32. Binary star evolution and blue stragglers
33. Star cluster evolution
Appendices.
2. Theoretical physics introduction
3. Computational physics introduction
4. Mathematical introduction
Part II. The Continuum Limit: 5. Paradoxical thermodynamics
6. Statistical mechanics
7. Motion in a central potential
8. Some famous models
9. Methods
Part III. Mean Field Dynamics: 10. Violent relaxation
11. Internal mass loss
12. External influences
Part IV. Microphysics: 13. Exponential orbit instability
14. Two-body relaxation
15. From Kepler to Kustaanheimo
Part V. Gravothermodynamics: 16. Escape and mass segregation
17. Gravothermal instability
18. Core collapse rate for star clusters
Part VI. Gravitational Scattering: 19. Thought experiments
20. Mathematical three-body scattering
21. Analytical approximations
22. Laboratory experiments
23. Gravitational burning and transmutation
Part VII. Primordial Binaries: 24. Binaries in star clusters
25. Triple formation and evolution
26. A non-renewable energy source
Part VIII. Post-Collapse Evolution: 27. Surviving core collapse
28. Gravothermal oscillations
29. Dissolution
Part IX. Star Cluster Ecology: 30. Stellar and dynamical evolution
31. Collisions and capture
32. Binary star evolution and blue stragglers
33. Star cluster evolution
Appendices.