Robust Supermassive Black Hole Spin Mass-Energy Characteristics: A New Method and Results
arXiv:2210.07779 · doi:10.1093/mnras/stac2976
Abstract
The rotational properties of astrophysical black holes are fundamental quantities that characterization the black holes. A new method to empirically determine the spin mass-energy characteristics of astrophysical black holes is presented and applied here. Results are obtained for a sample of 100 supermassive black holes with collimated dual outflows and redshifts between about zero and two. An analysis indicates that about two-thirds of the black holes are maximally spinning, while one-third have a broad distribution of spin values; it is shown that the same distributions describe the quantity . The new method is applied to obtain the black hole spin mass-energy, , available for extraction relative to: the maximum possible value, the irreducible black hole mass, and the total black hole mass, . The total energy removed from the black hole system and deposited into the circumgalactic medium via dual outflows over the entire outflow lifetime of the source, , is studied relative to and relative to the spin energy available per black hole, . The mean value of is about . Several explanations of this and related results are discussed. For example, the energy input to the ambient gas from the outflow could turn off the accretion, or the impact of the black hole mass loss on the system could destabilize and terminate the outflow. The small values and restricted range of values of and could suggest that these are fundamental properties of the primary process responsible for producing the dual collimated outflows.
16 pages, 20 figures, 3 tables
References in corpus (25)
- The power of relativistic jets is larger than the luminosity of their accretion disks
- Cosmic X-ray Surveys of Distant Active Galaxies: The Demographics, Physics, and Ecology of Growing Supermassive Black Holes
- The Evolution of Black Hole Mass and Spin in Active Galactic Nuclei
- The Influence of Magnetic Field Geometry on the Evolution of Black Hole Accretion Flows: Similar Disks, Drastically Different Jets
- Regulation of star formation in giant galaxies by precipitation, feedback, and conduction
- Fuelling Active Galactic Nuclei
- Black-Hole Spin and Galactic Morphology
- Improved Constraints on the Acceleration History of the Universe and the Properties of the Dark Energy
- "Meissner effect" and Blandford-Znajek mechanism in conductive black hole magnetospheres
- Physical Properties of Very Powerful FRII Radio Galaxies
- The duty cycle of radio galaxies revealed by LOFAR: remnant and restarted radio source populations in the Lockman Hole
- On the Accretion Rates and Radiative Efficiencies of the Highest Redshift Quasars
- High redshift FRII radio sources: large-scale X-ray environment
- The Most Massive Active Black-Holes at z~1.5-3.5 Have High Spins and Radiative Efficiencies
- The imprint of massive black-hole mergers on the correlation between nuclear clusters and their host galaxies
- A New Approach to Constrain Black Hole Spins in Active Galaxies Using Optical Reverberation Mapping
- Cosmological Studies with Radio Galaxies and Supernovae
- Bounds on Black Hole Spins
- A discovery of young radio sources in the cores of giant radio galaxies selected at hard X-rays
- General relativistic rotational energy extraction from black holes-accretion disk systems
- What Powers the Most Relativistic Jets? II: Flat Spectrum Radio Quasars
- Black-Hole Engine Kinematics, Flares from PKS 2155-304, and Multiwavelength Blazar Analysis
- Constraints on Spin of a Supermassive Black Hole in Quasars with Big Blue Bump
- Supermassive Black Hole Demographics: Evading
- On light surfaces in black hole thermodynamics