Knut Stamnes (New Jersey Stevens Institute of Technology), Gary E. Thomas (University of Colorado Boulder), Jakob J. Stamnes (Norway Universitetet i Bergen)
Radiative Transfer in the Atmosphere and Ocean
Knut Stamnes (New Jersey Stevens Institute of Technology), Gary E. Thomas (University of Colorado Boulder), Jakob J. Stamnes (Norway Universitetet i Bergen)
Radiative Transfer in the Atmosphere and Ocean
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This new and completely updated edition offers valuable, practical approaches to radiative transfer for students and researchers. It provides a basic understanding of the role of radiation in climate and climate change and teaches how to use radiative transfer tools to analyze data from ground-based, airborne and satellite sensors.
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This new and completely updated edition offers valuable, practical approaches to radiative transfer for students and researchers. It provides a basic understanding of the role of radiation in climate and climate change and teaches how to use radiative transfer tools to analyze data from ground-based, airborne and satellite sensors.
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
- 2 Revised edition
- Seitenzahl: 532
- Erscheinungstermin: 13. Juli 2017
- Englisch
- Abmessung: 260mm x 183mm x 33mm
- Gewicht: 1250g
- ISBN-13: 9781107094734
- ISBN-10: 1107094739
- Artikelnr.: 47720750
- Verlag: Cambridge University Press
- 2 Revised edition
- Seitenzahl: 532
- Erscheinungstermin: 13. Juli 2017
- Englisch
- Abmessung: 260mm x 183mm x 33mm
- Gewicht: 1250g
- ISBN-13: 9781107094734
- ISBN-10: 1107094739
- Artikelnr.: 47720750
Knut Stamnes is a Professor in the Department of Physics and Engineering Physics and Director of the Light and Life Laboratory at Stevens Institute of Technology, New Jersey. His research interests include radiative transfer, ocean optics and remote sensing and he has published over 200 papers and co-authored two textbooks: this one and Radiative Transfer in Coupled Environmental Systems (2015). He is a fellow of the Optical Society (OSA), a member of the International Society for Optical Engineering (SPIE) and a member of the Norwegian Academy of Technological Sciences.
1. Basic properties of radiation, atmospheres, and oceans
2. Basic state variables and the radiative transfer equation
3. Basic scattering processes
4. Absorption by solid, aqueous, and gaseous media
5. Principles of radiative transfer
6. Formulation of radiative transfer problems
7. Approximation solutions of prototype problems
8. The role of radiation in climate
9. Accurate numerical solutions of prototype problems
10. Shortwave radiative transfer in the atmosphere and ocean
Appendix A. Nomenclature: glossary of symbols
Appendix B. Physical constants
Appendix C. Ocean optics nomenclature
Appendix D. Reflectance and transmittance at an interface
References
Index
Online appendices: Appendix E. A primer on absorption and scattering opacity
Appendix F. Elementary concepts
Appendix G. Derivation of the Planck radiation law
Appendix H. The two-level atom
Appendix I. Non-gray inhomogeneous media
Appendix J. Reciprocity for the bidirectional reflectance
Appendix K. Harmonic electromagnetic plane waves
Appendix L. Representations of polarized light
Appendix M. Spherical shell geometry
Appendix N. The streaming term in spherical geometry
Appendix O. Isolation of the Azimuth-dependence
Appendix P. Scaling transformation for anisotropic scattering
Appendix Q. Reciprocity, duality, and effects of surface reflection
Appendix R. Probabilistic aspects of radiative transfer
Appendix S. Details and derivations
Appendix T. Inherent optical properties
Appendix U. Model atmospheres.
2. Basic state variables and the radiative transfer equation
3. Basic scattering processes
4. Absorption by solid, aqueous, and gaseous media
5. Principles of radiative transfer
6. Formulation of radiative transfer problems
7. Approximation solutions of prototype problems
8. The role of radiation in climate
9. Accurate numerical solutions of prototype problems
10. Shortwave radiative transfer in the atmosphere and ocean
Appendix A. Nomenclature: glossary of symbols
Appendix B. Physical constants
Appendix C. Ocean optics nomenclature
Appendix D. Reflectance and transmittance at an interface
References
Index
Online appendices: Appendix E. A primer on absorption and scattering opacity
Appendix F. Elementary concepts
Appendix G. Derivation of the Planck radiation law
Appendix H. The two-level atom
Appendix I. Non-gray inhomogeneous media
Appendix J. Reciprocity for the bidirectional reflectance
Appendix K. Harmonic electromagnetic plane waves
Appendix L. Representations of polarized light
Appendix M. Spherical shell geometry
Appendix N. The streaming term in spherical geometry
Appendix O. Isolation of the Azimuth-dependence
Appendix P. Scaling transformation for anisotropic scattering
Appendix Q. Reciprocity, duality, and effects of surface reflection
Appendix R. Probabilistic aspects of radiative transfer
Appendix S. Details and derivations
Appendix T. Inherent optical properties
Appendix U. Model atmospheres.
1. Basic properties of radiation, atmospheres, and oceans
2. Basic state variables and the radiative transfer equation
3. Basic scattering processes
4. Absorption by solid, aqueous, and gaseous media
5. Principles of radiative transfer
6. Formulation of radiative transfer problems
7. Approximation solutions of prototype problems
8. The role of radiation in climate
9. Accurate numerical solutions of prototype problems
10. Shortwave radiative transfer in the atmosphere and ocean
Appendix A. Nomenclature: glossary of symbols
Appendix B. Physical constants
Appendix C. Ocean optics nomenclature
Appendix D. Reflectance and transmittance at an interface
References
Index
Online appendices: Appendix E. A primer on absorption and scattering opacity
Appendix F. Elementary concepts
Appendix G. Derivation of the Planck radiation law
Appendix H. The two-level atom
Appendix I. Non-gray inhomogeneous media
Appendix J. Reciprocity for the bidirectional reflectance
Appendix K. Harmonic electromagnetic plane waves
Appendix L. Representations of polarized light
Appendix M. Spherical shell geometry
Appendix N. The streaming term in spherical geometry
Appendix O. Isolation of the Azimuth-dependence
Appendix P. Scaling transformation for anisotropic scattering
Appendix Q. Reciprocity, duality, and effects of surface reflection
Appendix R. Probabilistic aspects of radiative transfer
Appendix S. Details and derivations
Appendix T. Inherent optical properties
Appendix U. Model atmospheres.
2. Basic state variables and the radiative transfer equation
3. Basic scattering processes
4. Absorption by solid, aqueous, and gaseous media
5. Principles of radiative transfer
6. Formulation of radiative transfer problems
7. Approximation solutions of prototype problems
8. The role of radiation in climate
9. Accurate numerical solutions of prototype problems
10. Shortwave radiative transfer in the atmosphere and ocean
Appendix A. Nomenclature: glossary of symbols
Appendix B. Physical constants
Appendix C. Ocean optics nomenclature
Appendix D. Reflectance and transmittance at an interface
References
Index
Online appendices: Appendix E. A primer on absorption and scattering opacity
Appendix F. Elementary concepts
Appendix G. Derivation of the Planck radiation law
Appendix H. The two-level atom
Appendix I. Non-gray inhomogeneous media
Appendix J. Reciprocity for the bidirectional reflectance
Appendix K. Harmonic electromagnetic plane waves
Appendix L. Representations of polarized light
Appendix M. Spherical shell geometry
Appendix N. The streaming term in spherical geometry
Appendix O. Isolation of the Azimuth-dependence
Appendix P. Scaling transformation for anisotropic scattering
Appendix Q. Reciprocity, duality, and effects of surface reflection
Appendix R. Probabilistic aspects of radiative transfer
Appendix S. Details and derivations
Appendix T. Inherent optical properties
Appendix U. Model atmospheres.