Black Hole Spin via Continuum Fitting and the Role of Spin in Powering Transient Jets
Jeffrey E. McClintock, Ramesh Narayan, James F. Steiner

TL;DR
This paper measures the spins of ten stellar black holes using the continuum-fitting method, explores the relationship between spin and jet power, and discusses differences between persistent and transient black hole systems.
Contribution
It provides new spin measurements for ten black holes and analyzes the correlation between black hole spin and jet power, highlighting differences between persistent and transient systems.
Findings
Black hole spins range from near zero to over 0.95.
Persistent black holes tend to have higher spins and larger masses.
Evidence suggests a correlation between jet power and black hole spin.
Abstract
The spins of ten stellar black holes have been measured using the continuum-fitting method. These black holes are located in two distinct classes of X-ray binary systems, one that is persistently X-ray bright and another that is transient. Both the persistent and transient black holes remain for long periods in a state where their spectra are dominated by a thermal accretion disk component. The spin of a black hole of known mass and distance can be measured by fitting this thermal continuum spectrum to the thin-disk model of Novikov and Thorne; the key fit parameter is the radius of the inner edge of the black hole's accretion disk. Strong observational and theoretical evidence links the inner-disk radius to the radius of the innermost stable circular orbit, which is trivially related to the dimensionless spin parameter a_* of the black hole (|a_*| < 1). The ten spins that have so far…
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