No Need for an Extreme Jet Energy in the Black-Hole X-Ray Binary MAXI J1348--630
arXiv:2303.01349 · doi:10.3847/2041-8213/accb5a
Abstract
We model interaction with the surrounding medium of the main discrete jet ejection in the accreting black-hole binary MAXI J1348--630. The kinetic energy in the ejection of that jet was estimated before to be erg. That energy requires that the jet power was about two orders of magnitude above the limit corresponding to a magnetically arrested accretion onto a maximally rotating black hole. That large estimate was obtained by considering the initial ballistic jet propagation in a surrounding cavity followed by a sudden deceleration in interstellar medium under the assumption of its standard density of 1 cm. Such densities are likely in the surrounding of this source given its location in the Galactic Plane. Here, we show that the estimate of the kinetic energy can be reduced to realistic values of erg by considering the presence of a transition layer with an exponential density growth separating the cavity and the interstellar medium. In that case, the jet is found to decelerate mostly in the transition layer, in regions with the densities 1 cm, which strongly reduces the energy requirement. Still, the required jet masses are large, ruling out the presence of a significant number of electron-positron pairs.
ApJL, in press
References in corpus (16)
- A Parallax Distance to the Microquasar GRS 1915+105 and a Revised Estimate of its Black Hole Mass
- MOJAVE. XVII. Jet Kinematics and Parent Population Properties of Relativistically Beamed Radio-Loud Blazars
- Spectral and temporal properties of Compton scattering by mildly relativistic thermal electrons
- Magnetohydrodynamic Simulations of Active Galactic Nucleus Disks and Jets
- Formation of Magnetically Truncated Accretion Disks in 3D Radiation-Transport Two-Temperature GRMHD Simulations
- The black hole transient MAXI J1348-630: evolution of the compact and transient jets during its 2019/2020 outburst
- NICER observations reveal that the X-ray transient MAXI J1348-630 is a Black Hole X-ray binary
- Relativistic X-ray jets from the black hole X-ray binary MAXI J1820+070
- The Varying Kinematics of Multiple Ejecta from the Black Hole X-ray Binary MAXI J1820+070
- A giant X-ray dust scattering ring around the black hole transient MAXI J1348-630 discovered with SRG/eROSITA
- Measuring the distance to the black hole candidate X-ray binary MAXI J1348-630 using HI absorption
- NICER uncovers the transient nature of the type-B quasi-periodic oscillation in the black hole candidate MAXI J1348-630
- Modeling the kinematics of the decelerating jets from the black hole X-ray binary MAXI J1348630
- The minimum jet power and equipartition
- The jet kinetic power, distance and inclination of GRS 1915+105
- Observational Signatures of Mass-Loading in Jets Launched by Rotating Black Holes