| Literature DB >> 20307180 |
Y Alibert1, C Broeg, W Benz, G Wuchterl, O Grasset, C Sotin, Carlos Eiroa, Thomas Henning, Tom Herbst, Lisa Kaltenegger, Alain Léger, Réne Liseau, Helmut Lammer, Charles Beichman, William Danchi, Malcolm Fridlund, Jonathan Lunine, Francesco Paresce, Alan Penny, Andreas Quirrenbach, Huub Röttgering, Frank Selsis, Jean Schneider, Daphne Stam, Giovanna Tinetti, Glenn J White.
Abstract
To estimate the occurrence of terrestrial exoplanets and maximize the chance of finding them, it is crucial to understand the formation of planetary systems in general and that of terrestrial planets in particular. We show that a reliable formation theory should not only explain the formation of the Solar System, with small terrestrial planets within a few AU and gas giants farther out, but also the newly discovered exoplanetary systems with close-in giant planets. Regarding the presently known exoplanets, we stress that our current knowledge is strongly biased by the sensitivity limits of current detection techniques (mainly the radial velocity method). With time and improved detection methods, the diversity of planets and orbits in exoplanetary systems will definitely increase and help to constrain the formation theory further. In this work, we review the latest state of planetary formation in relation to the origin and evolution of habitable terrestrial planets.Mesh:
Substances:
Year: 2010 PMID: 20307180 DOI: 10.1089/ast.2009.0372
Source DB: PubMed Journal: Astrobiology ISSN: 1557-8070 Impact factor: 4.335