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Estimation of the mass outflow rates from viscous accretion discs

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arxiv 1212.4231 v1 pith:KKH3ZIL6 submitted 2012-12-18 astro-ph.HE

classification astro-ph.HE
keywords accretionalphashockdiscmassaroundincreaseoutflow
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abstract

We study viscous accretion disc around black holes, and all possible accretion solutions, including shocked as well as shock free accretion branches. Shock driven bipolar outflows from a viscous accretion disc around a black hole has been investigated. One can identify two critical viscosity parameters $\alpha_{cl}$ and $\alpha_{cu}$, within which the stationary shocks may occur, for each set of boundary conditions. Adiabatic shock has been found for upto viscosity parameter $\alpha=0.3$, while in presence of dissipation and massloss we have found stationary shock upto $\alpha=0.15$. The mass outflow rate may increase or decrease with the change in disc parameters, and is usually around few to 10% of the mass inflow rate. We show that for the same outer boundary condition, the shock front decreases to a smaller distance with the increase of $\alpha$. We also show that the increase in dissipation reduces the thermal driving in the post-shock disc, and hence the mass outflow rate decreases upto a few %.

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  1. Outflow Behavior from the Transonic Advective Disks: A Hydrodynamical Simulation Study

    astro-ph.HE 2026-07 conditional novelty 5.0 of 10

    In viscous hydro simulations, colder transonic advective disks drive faster, higher kinetic-energy and momentum bipolar outflows than hotter disks, and outflow strength increases with viscosity.

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