Point-wise Self-similar Solution for Spiral Shocks in Accretion Disk with Mass Outflow in Binary
arXiv:2109.05020 · doi:10.3847/1538-4357/ac24fd
Abstract
We examine the properties of spiral shocks from a steady, adiabatic, non-axisymmetric accretion disk around a compact star in binary. We first time incorporate all the possible influences from binary through adopting the Roche potential and Coriolis forces in the basic conservation equations. In this paper, we assume the spiral shocks to be point-wise self-similar, and the flow is in vertical hydrostatic equilibrium to simplify the study. We also investigate the mass outflow due to the shock compression and apply it to the accreting white dwarf in binary. We find that our model will be beneficial to overcome the ad hoc assumption of optically thick wind generally used in the studies of the progenitor of supernovae Ia.
17 pages, 7 figures, 1 appendix. Accepted for publication in ApJ
References in corpus (12)
- The Stellar Ancestry of Supernovae in the Magellanic Clouds - I. the Most Recent Supernovae in the Large Magellanic Cloud
- Three-dimensional hydrodynamical simulations of mass transfer in binary systems by a free wind
- Massloss from viscous advective disc
- Estimation of mass outflow rates from dissipative accretion disc around rotating black holes
- Computation of mass loss from viscous accretion disc in presence of cooling
- Shocks in relativistic viscous accretion flows around Kerr black holes
- Low angular momentum relativistic hot accretion flow around Kerr black holes with variable adiabatic index
- Properties of magnetically supported dissipative accretion flow around black holes with cooling effects
- Evidence for mass accretion driven by spiral shocks onto the white dwarf in SDSS J123813.73-033933.0
- On the possible turbulence mechanism in accretion disks in non-magnetic binary stars
- Accretion-ejection in rotating black holes: a model for `outliers' track of radio-X-ray correlation in X-ray binaries
- Infrared photometry of the dwarf nova V2051 Ophiuchi: II -- The quiescent accretion disc and its spiral arms