Disk Dispersal and Planet Formation Time Scales
arXiv:0805.0386 · doi:10.1088/0031-8949/2008/T130/014024
Abstract
Well before the existence of exo-solar systems was confirmed, it was accepted knowledge that most -- if not all -- stars possess circumstellar material during the first one-to-several million years of their pre-main sequence lives, and thus that they commonly have the potential to form planets. Here I summarize current understanding regarding the evolution of proto-planetary dust and gas disks, emphasizing the diversity in evolutionary paths.
Similar to version that will be published by IOP in 2008, Physica Scripta (Special Issue on Nobel Symposium 135: Physics of Planetary Systems)
References in corpus (9)
- Accretion Rates in Herbig Ae stars
- H2O and OH gas in the terrestrial planet-forming zones of protoplanetary disks
- Dust dynamics during protoplanetary disc clearing
- Demographics of Transition Objects
- High-Resolution Spectroscopy in Tr37: Gas Accretion Evolution in Evolved Dusty Disks
- c2d Spitzer IRS Spectra of Disks around T Tauri Stars. III. [Ne II], [Fe I], and H_2 gas-phase lines
- The evolution of stars in the Taurus-Auriga T association
- TEXES Observations of Pure Rotational H2 Emission From AB Aurigae
- Molecular Hydrogen emission from disks in the eta Chamaeleontis cluster