The Blackhole-Dark Matter Halo Connection
arXiv:1502.00775 · doi:10.1088/0004-637X/803/1/5
Abstract
We explore the connection between the central supermassive blackholes (SMBH) in galaxies and the dark matter halo through the relation between the masses of the SMBHs and the maximum circular velocities of the host galaxies, as well as the relationship between stellar velocity dispersion of the spheroidal component and the circular velocity. Our assumption here is that the circular velocity is a proxy for the mass of the dark matter halo. We rely on a heterogeneous sample containing galaxies of all types. The only requirement is that the galaxy has a direct measurement of the mass of its SMBH and a direct measurement of its circular velocity and its velocity dispersion. Previous studies have analyzed the connection between the SMBH and dark matter halo through the relationship between the circular velocity and the bulge velocity dispersion, with the assumption that the bulge velocity dispersion stands in for the mass of the SMBH, via the well{}-established SMBH mass{}-bulge velocity dispersion relation. Using intermediate relations may be misleading when one is studying them to decipher the active ingredients of galaxy formation and evolution. We believe that our approach will provide a more direct probe of the SMBH and the dark matter halo connection. We find that the correlation between the mass of supermassive blackholes and the circular velocities of the host galaxies is extremely weak, leading us to state the dark matter halo may not play a major role in regulating the blackhole growth in the present Universe.
Accepted for publication in the ApJ
References in corpus (22)
- Direct cosmological simulations of the growth of black holes and galaxies
- The black hole mass -- stellar velocity dispersion correlation: bulges versus pseudobulges
- An Over-Massive Black Hole in the Compact Lenticular Galaxy NGC1277
- The Star-Forming Torus and Stellar Dynamical Black Hole Mass in the Seyfert 1 Nucleus of NGC3227
- A Theoretical Interpretation of the Black Hole Fundamental Plane
- The central parsecs of Centaurus A: High Excitation Gas, a Molecular Disk, and the Mass of the Black Hole
- Circumnuclear Gas in Seyfert 1 Galaxies: Morphology, Kinematics, and Direct Measurement of Black Hole Masses
- The Tully-Fisher relation for S0 galaxies
- The Black Hole in NGC 3379: A Comparison of Gas and Stellar Dynamical Mass Measurements with HST and Integral-Field Data
- The Black Hole Mass of NGC 4151: Comparison of Reverberation Mapping and Stellar Dynamical Measurements
- The supermassive black hole of Fornax A
- The Parsec-scale Accretion Disk in NGC 3393
- The High-Mass End of the Black Hole Mass Function: Mass Estimates in Brightest Cluster Galaxies
- Bulge and Halo Kinematics Across the Hubble Sequence
- Supermassive black holes in the Sbc spiral galaxies NGC 3310, NGC 4303 and NGC 4258
- Properties of Active Galaxies Deduced from H I Observations
- The supermassive black hole in NGC4486a detected with SINFONI at the VLT
- Measuring supermassive black holes with gas kinematics: the active S0 galaxy NGC 3998
- The nuclear regions of NGC 7582 from [NeII] spectroscopy at 12.8 microns - an estimate of the black hole mass
- Axisymmetric dynamical models for SAURON and OASIS observations of NGC 3377
- Measuring supermassive black holes with gas kinematics - II. The LINERs IC 989, NGC 5077, and NGC 6500
- A Deep 0.3-10 keV Spectrum of the HO Maser Galaxy IC 2560
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- Black Hole Mass Scaling Relations for Early-Type Galaxies: - and -
- The most massive black holes on the Fundamental Plane of Black Hole Accretion
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- Novel calibrations of virial black hole mass estimators in active galaxies based on X-ray luminosity and optical/NIR emission lines
- BASS. XXXVI. Constraining the Local Supermassive Black Hole - Halo Connection with BASS DR2 AGN
- Cosmological Simulation of Galaxy Groups and Clusters-I: Global Effect of Feedback from Active Galactic Nuclei
- Imprints of the super-Eddington accretion on the quasar clustering