Atmospheric Evolution on Inhabited and Lifeless Worlds

David C. Catling is a Professor in Earth and Space Sciences at the University of Washington, studying planetary surfaces, atmospheres, and habitability. He actively participates in the research of NASA's Astrobiology Institute and is the author of Astrobiology: A Very Short Introduction (2013). He has taught courses in planetary atmospheres, planetary geology, astrobiology, and global environmental change at undergraduate and graduate levels. He was also an investigator for NASA's Phoenix Mars Lander, which successfully operated in the arctic of Mars during 2008. James F. Kasting is a Distinguished Professor of Geosciences at Pennsylvania State University, and an acknowledged expert on atmospheric and climate evolution. He is the author of How to Find a Habitable Planet (2010) and coauthor of the introductory textbook, The Earth System, 3rd edition (2009). Dr Kasting is a Fellow of the American Geophysical Union, the Geochemical Society, the International Society for the Study of the Origin of Life (ISSOL), the American Academy for the Advancement of Science, and the American Academy of Sciences. He received the Oparin Medal from International Society for the Study of the Origin of Life in 2008.

'New books on the atmospheric sciences keep coming, … The latest addition to the canon by David Catling and James Kasting is particularly noteworthy for its very comprehensive coverage of the subject, in nearly six hundred large pages, and for the eminence of its authors, both well-known and respected in the field. Much of the material covered is standard stuff - radiative transfer, photochemistry, thermodynamics, and so forth - but with a refreshingly clear treatment that will be of value to students, particularly those at the graduate level. The real strength, however, is in the coverage of evolutionary aspects: given the known physics, and the geological record, etc., what can we say about the Earth's atmosphere in the past, its origins, and how it evolved to what we see today? … This is an excellent account of the current state of the art.' F. W. Taylor, The Observatory

• Preface; Part I. Principles of Planetary Atmospheres: 1. The structure of planetary atmospheres; 2. Energy and radiation in planetary atmospheres; 3. Essentials of chemistry of planetary atmospheres; 4. Motions in planetary atmospheres; 5. Escape of atmospheres to space; Part II. Evolution of the Earth's Atmosphere: 6. Formation of Earth's atmosphere and oceans; 7. Volcanic outgassing and mantle redox evolution; 8. Atmospheric and global redox balance; 9. The prebiotic and early postbiotic atmosphere; 10. The rise of oxygen and ozone in Earth's atmosphere; 11. Long-term climate evolution; Part III. Atmospheres and Climates on Other Worlds: 12. Mars; 13. Evolution of Venus' atmosphere; 14. Giant planets and their satellites; 15. Exoplanets: habitability and characterization; Bibliography; Appendix A. One-dimensional climate model; Appendix B. Photochemical models; Appendix C. Atomic states and term symbols; Index.