Michael J. Thompson / Jørgen Christensen-Dalsgaard (eds.)
Stellar Astrophysical Fluid Dynamics
Herausgeber: Christensen-Dalsgaard, Jørgen; Thompson, Michael J.
Michael J. Thompson / Jørgen Christensen-Dalsgaard (eds.)
Stellar Astrophysical Fluid Dynamics
Herausgeber: Christensen-Dalsgaard, Jørgen; Thompson, Michael J.
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This comprehensive overview of stellar astrophysical fluid dynamics includes properties of pulsating stars; helioseismology; convection and mixing in stellar interiors; and dynamics of stellar rotation, planet formation and the generation of stellar and planetary magnetic fields. Each chapter is written by a leading expert in the field and extensive references to technical literature are made.
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This comprehensive overview of stellar astrophysical fluid dynamics includes properties of pulsating stars; helioseismology; convection and mixing in stellar interiors; and dynamics of stellar rotation, planet formation and the generation of stellar and planetary magnetic fields. Each chapter is written by a leading expert in the field and extensive references to technical literature are made.
Hinweis: Dieser Artikel kann nur an eine deutsche Lieferadresse ausgeliefert werden.
Hinweis: Dieser Artikel kann nur an eine deutsche Lieferadresse ausgeliefert werden.
Produktdetails
- Produktdetails
- Verlag: Cambridge University Press
- Seitenzahl: 430
- Erscheinungstermin: 3. Februar 2015
- Englisch
- Abmessung: 250mm x 175mm x 28mm
- Gewicht: 917g
- ISBN-13: 9780521818094
- ISBN-10: 0521818095
- Artikelnr.: 21971860
- Verlag: Cambridge University Press
- Seitenzahl: 430
- Erscheinungstermin: 3. Februar 2015
- Englisch
- Abmessung: 250mm x 175mm x 28mm
- Gewicht: 917g
- ISBN-13: 9780521818094
- ISBN-10: 0521818095
- Artikelnr.: 21971860
Preface; 1. A selective overview Jørgen Christensen-Dalsgaard and Michael
J. Thompson; Part I. Stellar Convection and Oscillations: 2. On the
diversity of stellar pulsations Wojciech A. Dziembowski; 3. Acoustic
radiation and mode excitation by turbulent convection Günter Houdek; 4.
Understanding roAp stars Margarida S. Cunha; 5. Waves in the magnetised
solar atmosphere Colin S. Rosenthal; Part II. Stellar Rotation and Magnetic
Fields: 6. Stellar rotation: a historical survey Leon Mestel; 7. The
oscillations of rapidly rotating stars Michel Rieutord; 8. Solar tachocline
dynamics: eddy viscosity, anti-friction, or something in between? Michael
E. McIntyre; 9. Dynamics of the solar tachocline Pascale Garaud; 10. Dynamo
processes: the interaction of turbulence and magnetic fields Michael
Proctor; 11. Dynamos in planets Chris Jones; Part III. Physics and
Structure of Stellar Interiors: 12. Solar constraints on the equation of
state Werner Däppen; 13. 3He transport and the solar neutrino problem Chris
Jordinson; 14. Mixing in stellar radiation zones Jean-Paul Zahn; 15.
Element settling and rotation-induced mixing in slowly rotating stars
Sylvie Vauclair; Part IV. Helio- and Asteroseismology: 16. Solar structure
and the neutrino problem Hiromoto Shibahashi; 17. Helioseismic data
analysis Jesper Schou; 18. Seismology of solar rotation Takashi Sekii; 19.
Telechronohelioseismology Alexander Kosovichev; Part V. Large-Scale
Numerical Experiments: 20. Bridges between helioseismology and models of
convection zone dynamics Juri Toomre; 21. Numerical simulations of the
solar convection zone Julian R. Elliott; 22. Modelling solar and stellar
magnetoconvection Nigel Weiss; 23. Nonlinear magnetoconvection in the
presence of a strong oblique field Keith Julien, Edgar Knobloch and Steven
M. Tobias; 24. Simulations of astrophysical fluids Marcus Brüggen; Part VI.
Dynamics: 25. A magic electromagnetic field Donald Lynden-Bell; 26.
Continuum equations for stellar dynamics Edward A. Spiegel and Jean-Luc
Thiffeault; 27. Formation of planetary systems Douglas N. C. Lin; 28. The
solar-cycle global warming as inferred from sky brightness variation
Wasaburo Unno and Hiromoto Shibahashi.
J. Thompson; Part I. Stellar Convection and Oscillations: 2. On the
diversity of stellar pulsations Wojciech A. Dziembowski; 3. Acoustic
radiation and mode excitation by turbulent convection Günter Houdek; 4.
Understanding roAp stars Margarida S. Cunha; 5. Waves in the magnetised
solar atmosphere Colin S. Rosenthal; Part II. Stellar Rotation and Magnetic
Fields: 6. Stellar rotation: a historical survey Leon Mestel; 7. The
oscillations of rapidly rotating stars Michel Rieutord; 8. Solar tachocline
dynamics: eddy viscosity, anti-friction, or something in between? Michael
E. McIntyre; 9. Dynamics of the solar tachocline Pascale Garaud; 10. Dynamo
processes: the interaction of turbulence and magnetic fields Michael
Proctor; 11. Dynamos in planets Chris Jones; Part III. Physics and
Structure of Stellar Interiors: 12. Solar constraints on the equation of
state Werner Däppen; 13. 3He transport and the solar neutrino problem Chris
Jordinson; 14. Mixing in stellar radiation zones Jean-Paul Zahn; 15.
Element settling and rotation-induced mixing in slowly rotating stars
Sylvie Vauclair; Part IV. Helio- and Asteroseismology: 16. Solar structure
and the neutrino problem Hiromoto Shibahashi; 17. Helioseismic data
analysis Jesper Schou; 18. Seismology of solar rotation Takashi Sekii; 19.
Telechronohelioseismology Alexander Kosovichev; Part V. Large-Scale
Numerical Experiments: 20. Bridges between helioseismology and models of
convection zone dynamics Juri Toomre; 21. Numerical simulations of the
solar convection zone Julian R. Elliott; 22. Modelling solar and stellar
magnetoconvection Nigel Weiss; 23. Nonlinear magnetoconvection in the
presence of a strong oblique field Keith Julien, Edgar Knobloch and Steven
M. Tobias; 24. Simulations of astrophysical fluids Marcus Brüggen; Part VI.
Dynamics: 25. A magic electromagnetic field Donald Lynden-Bell; 26.
Continuum equations for stellar dynamics Edward A. Spiegel and Jean-Luc
Thiffeault; 27. Formation of planetary systems Douglas N. C. Lin; 28. The
solar-cycle global warming as inferred from sky brightness variation
Wasaburo Unno and Hiromoto Shibahashi.
Preface; 1. A selective overview Jørgen Christensen-Dalsgaard and Michael
J. Thompson; Part I. Stellar Convection and Oscillations: 2. On the
diversity of stellar pulsations Wojciech A. Dziembowski; 3. Acoustic
radiation and mode excitation by turbulent convection Günter Houdek; 4.
Understanding roAp stars Margarida S. Cunha; 5. Waves in the magnetised
solar atmosphere Colin S. Rosenthal; Part II. Stellar Rotation and Magnetic
Fields: 6. Stellar rotation: a historical survey Leon Mestel; 7. The
oscillations of rapidly rotating stars Michel Rieutord; 8. Solar tachocline
dynamics: eddy viscosity, anti-friction, or something in between? Michael
E. McIntyre; 9. Dynamics of the solar tachocline Pascale Garaud; 10. Dynamo
processes: the interaction of turbulence and magnetic fields Michael
Proctor; 11. Dynamos in planets Chris Jones; Part III. Physics and
Structure of Stellar Interiors: 12. Solar constraints on the equation of
state Werner Däppen; 13. 3He transport and the solar neutrino problem Chris
Jordinson; 14. Mixing in stellar radiation zones Jean-Paul Zahn; 15.
Element settling and rotation-induced mixing in slowly rotating stars
Sylvie Vauclair; Part IV. Helio- and Asteroseismology: 16. Solar structure
and the neutrino problem Hiromoto Shibahashi; 17. Helioseismic data
analysis Jesper Schou; 18. Seismology of solar rotation Takashi Sekii; 19.
Telechronohelioseismology Alexander Kosovichev; Part V. Large-Scale
Numerical Experiments: 20. Bridges between helioseismology and models of
convection zone dynamics Juri Toomre; 21. Numerical simulations of the
solar convection zone Julian R. Elliott; 22. Modelling solar and stellar
magnetoconvection Nigel Weiss; 23. Nonlinear magnetoconvection in the
presence of a strong oblique field Keith Julien, Edgar Knobloch and Steven
M. Tobias; 24. Simulations of astrophysical fluids Marcus Brüggen; Part VI.
Dynamics: 25. A magic electromagnetic field Donald Lynden-Bell; 26.
Continuum equations for stellar dynamics Edward A. Spiegel and Jean-Luc
Thiffeault; 27. Formation of planetary systems Douglas N. C. Lin; 28. The
solar-cycle global warming as inferred from sky brightness variation
Wasaburo Unno and Hiromoto Shibahashi.
J. Thompson; Part I. Stellar Convection and Oscillations: 2. On the
diversity of stellar pulsations Wojciech A. Dziembowski; 3. Acoustic
radiation and mode excitation by turbulent convection Günter Houdek; 4.
Understanding roAp stars Margarida S. Cunha; 5. Waves in the magnetised
solar atmosphere Colin S. Rosenthal; Part II. Stellar Rotation and Magnetic
Fields: 6. Stellar rotation: a historical survey Leon Mestel; 7. The
oscillations of rapidly rotating stars Michel Rieutord; 8. Solar tachocline
dynamics: eddy viscosity, anti-friction, or something in between? Michael
E. McIntyre; 9. Dynamics of the solar tachocline Pascale Garaud; 10. Dynamo
processes: the interaction of turbulence and magnetic fields Michael
Proctor; 11. Dynamos in planets Chris Jones; Part III. Physics and
Structure of Stellar Interiors: 12. Solar constraints on the equation of
state Werner Däppen; 13. 3He transport and the solar neutrino problem Chris
Jordinson; 14. Mixing in stellar radiation zones Jean-Paul Zahn; 15.
Element settling and rotation-induced mixing in slowly rotating stars
Sylvie Vauclair; Part IV. Helio- and Asteroseismology: 16. Solar structure
and the neutrino problem Hiromoto Shibahashi; 17. Helioseismic data
analysis Jesper Schou; 18. Seismology of solar rotation Takashi Sekii; 19.
Telechronohelioseismology Alexander Kosovichev; Part V. Large-Scale
Numerical Experiments: 20. Bridges between helioseismology and models of
convection zone dynamics Juri Toomre; 21. Numerical simulations of the
solar convection zone Julian R. Elliott; 22. Modelling solar and stellar
magnetoconvection Nigel Weiss; 23. Nonlinear magnetoconvection in the
presence of a strong oblique field Keith Julien, Edgar Knobloch and Steven
M. Tobias; 24. Simulations of astrophysical fluids Marcus Brüggen; Part VI.
Dynamics: 25. A magic electromagnetic field Donald Lynden-Bell; 26.
Continuum equations for stellar dynamics Edward A. Spiegel and Jean-Luc
Thiffeault; 27. Formation of planetary systems Douglas N. C. Lin; 28. The
solar-cycle global warming as inferred from sky brightness variation
Wasaburo Unno and Hiromoto Shibahashi.