The Evolution of Protoplanetary Disks Around Millisecond Pulsars: The PSR 1257 +12 System
arXiv:0705.3063 · doi:10.1086/520327
Abstract
We model the evolution of protoplanetary disks surrounding millisecond pulsars, using PSR 1257+12 as a test case. Initial conditions were chosen to correspond to initial angular momenta expected for supernova-fallback disks and disks formed from the tidal disruption of a companion star. Models were run under two models for the viscous evolution of disks: fully viscous and layered accretion disk models. Supernova-fallback disks result in a distribution of solids confined to within 1-2 AU and produce the requisite material to form the three known planets surrounding PSR 1257+12. Tidal disruption disks tend to slightly underproduce solids interior to 1 AU, required for forming the pulsar planets, while overproducing the amount of solids where no body, lunar mass or greater, exists. Disks evolving under 'layered' accretion spread somewhat less and deposit a higher column density of solids into the disk. In all cases, circumpulsar gas dissipates on year timescales, making formation of gas giant planets highly unlikely.
16 pages, 17 figures, Accepted for publication in The Astrophysical Journal (September 20, 2007 issue)
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