GRS 1915+105 as a Galactic Analog of a Fanaroff-Riley II Quasar
arXiv:1304.7795 · doi:10.1088/0004-637X/770/2/99
Abstract
We study the long term time averaged kinetic luminosity, , of the major flares of the Galactic microquasar GRS 1915+105 and the relationship to the intrinsic X-ray (bolometric) luminosity, , and scale it to that of a complete sample of SDSS/FIRST FR II quasars. If the scale invariance hypothesis for black holes (BHs) holds then we show that the expected distribution in the - scatter plane of GRS 1915+105 is consistent with FR II quasars for distances D = 10.7 - 11 kpc. We compare the specific values of kinetic luminosity and during flares of GRS 1915+105 to that predicted by several 3-D MHD simulations of BH accretion flows with relativistic ejections. If FR II quasars are a scaled up version of GRS 1915+105, the data are consistent with numerical models when they contain an ergospheric disk jet and the BH spin is or (we estimate ). In the framework of scale invariance of BHs, our results may imply that FR II quasars also hold rapidly rotating BHs.
To appear in ApJ
References in corpus (6)
- Stability of Relativistic Jets from Rotating, Accreting Black Holes via Fully Three-Dimensional Magnetohydrodynamic Simulations
- The Influence of Magnetic Field Geometry on the Evolution of Black Hole Accretion Flows: Similar Disks, Drastically Different Jets
- Magnetic flux paradigm for radio-loudness of AGN
- X-ray Spectra from MHD Simulations of Accreting Black Holes
- Where is the Radiation Edge in Magnetized Black Hole Accretion discs?
- The Relationship Between X-ray Luminosity and Major Flare Launching in GRS 1915+105
Cited by in corpus (6)
- The INTEGRAL view on Black Hole X-ray Binaries
- A Temporal Analysis Indicates a Mildly Relativistic Compact Jet in GRS~1915+105
- The jet-disc connection: evidence for a reinterpretation in radio loud and radio quiet active galactic nuclei
- Calibrated Estimates of the Energy in Major Flares of GRS 1915+105
- The Accretion Flow - Discrete Ejection Connection in GRS 1915+105
- Evidence of Elevated X-Ray Absorption Before and During Major Flare Ejections in GRS 1915+105