Modeling the QSO luminosity and spatial clustering at low redshifts
arXiv:astro-ph/0602361 · doi:10.1111/j.1365-2966.2006.10195.x
Abstract
We investigate the ability of hierarchical models of QSO formation and evolution to match the observed luminosity, number counts and spatial clustering of quasars at redshift z<2. These models assume that the QSO emission is triggered by galaxy mergers, that the mass of the central black hole correlates with halo properties and that quasars shine at their Eddington luminosity except, perhaps, during the very early stages of evolution. We find that models based on simple analytic approximations successfully reproduce the observed B-band QSO luminosity function at all redshifts, provided that some mechanisms is advocated to quench mass accretion within haloes larger than about 1e13 Msun that host bright quasars. These models also match the observed strength of QSO clustering at z~0.8. At larger redshifts, however, they underpredict the QSO biasing which, instead, is correctly reproduced by semi-analytic models in which the halo merger history and associated BHs are followed by Monte Carlo realizations of the merger hierarchy. We show that the disagreement between the luminosity function predicted by semi-analytic models and observations can be ascribed to the use of B-band data, which are a biased tracer of the quasar population, due to obscuration.
arXiv comment13 pages, 9 figures. Accepted by MNRAS
References in corpus (62)
- Simulating the joint evolution of quasars, galaxies and their large-scale distribution
- A Fundamental Relation Between Supermassive Black Holes and Their Host Galaxies
- The Demography of Massive Dark Objects in Galaxy Centres
- A Relationship Between Nuclear Black Hole Mass and Galaxy Velocity Dispersion
- Energy input from quasars regulates the growth and activity of black holes and their host galaxies
- Large scale bias and the peak background split
- The slope of the black-hole mass versus velocity dispersion correlation
- Modeling feedback from stars and black holes in galaxy mergers
- Hierarchical Galaxy Formation
- Local Supermassive Black Holes, Relics of Active Galactic Nuclei and the X-ray Background
- An analytic model for the spatial clustering of dark matter haloes
- In the Beginning: The First Sources of Light and the Reionization of the Universe
- A fundamental plane of black hole activity
- A Unified Model for the Evolution of Galaxies and Quasars
- Cosmological Evolution of the Hard X-ray AGN Luminosity Function and the Origin of the Hard X-ray Background
- The Assembly and Merging History of Supermassive Black Holes in Hierarchical Models of Galaxy Formation
- Nonlinear evolution of cosmological power spectra
- The age dependence of halo clustering
- The 2dF QSO Redshift Survey - XII. The spectroscopic catalogue and luminosity function
- Formation of Galactic Nuclei
- Beyond the Bulge: a Fundamental Relation Between Supermassive Black Holes and Dark Matter Halos
- Quasars, their host galaxies, and their central black holes
- The dynamical evolution of massive black hole binaries - I. Hardening in a fixed stellar background
- Self-Regulated Growth of Supermassive Black Holes in Galaxies as the Origin of the Optical and X-ray Luminosity Functions of Quasars
- The HELLAS2XMM survey. VII. The hard X-ray luminosity function of AGN up to z=4: more absorbed AGN at low luminosities and high redshifts
- A Physical Model for the Origin of Quasar Lifetimes
- Consequences of gravitational radiation recoil
- How to Plant a Merger Tree
- Rapid growth of high redshift black holes
- Quasar Clustering and the Lifetime of Quasars
- Early reionization by miniquasars
- Observational Signatures of the First Quasars
- A marked correlation function analysis of halo formation times in the Millennium Simulation
- AGN Host Galaxies at z~0.4-1.3 : Bulge-dominated and Lacking Merger-AGN Connection
- The Nature of the Hard X-ray Background Sources: Optical, Near-infrared, Submillimeter, and Radio Properties
- How black holes get their kicks: Gravitational radiation recoil revisited
- Cosmic Evolution of Quasar Clustering: Implications for the Host Haloes
- The 2dF-SDSS LRG and QSO Survey: The z<2.1 Quasar Luminosity Function from 5645 Quasars to g=21.85
- The Properties of Poor Groups of Galaxies: III. The Galaxy Luminosity Function
- The anti-hierarchical growth of supermassive black holes
- Dwarf Seyfert 1 Nuclei and the Low-Mass End of the M-sigma Relation
- A Physical Model for the Luminosity Function of High-Redshift Quasars
- The Population of Faint Optically-Selected AGN at z~3
- An improved method of constructing binned luminosity functions
- The Fall of the Quasar Population
- Dynamical evolution of intermediate mass black holes and their observable signatures in the nearby Universe
- The formation of galaxy stellar cores by the hierarchical merging of supermassive black holes
- The distribution of supermassive black holes in the nuclei of nearby galaxies
- Active Galactic Nuclei In Cosmological Simulations - I. Formation of black holes and spheroids through mergers
- The 1<z<5 Infrared Luminosity Function of Type I Quasars
- Complete Multiwavelength Characterization of Faint Chandra X-ray Sources Seen in the Spitzer Wide-Area IR Extragalactic (SWIRE) Survey
- Constraints from Galaxy-AGN Clustering on the Correlation between Galaxy and Black Hole Mass at Redshifts 2<Z<3
- On the Cosmological Evolution of the Luminosity Function and the Accretion Rate of Quasars
- Relic Black Holes In Galactic Nuclei
- Quasars and galaxy formation
- The Asiago-ESO/RASS QSO Survey. III. Clustering analysis and its theoretical interpretation
- Constraints on the Process that Regulates the Growth of Supermassive Black Holes Based on the Intrinsic Scatter in the M_bh-sigma Relation
- Cosmological Evolution & Hierarchical Galaxy Formation
- The environmental dependence of clustering in hierarchical models
- Calibrating the Galaxy Halo - Black Hole Relation Based on the Clustering of Quasars
- Accretion Disk Instabilities, CDM models and their role in Quasar Evolution
- Major Mergers of Haloes, Growth of Massive Black Holes and Evolving Luminosity Function of Quasars
Cited by in corpus (19)
- The stochastic gravitational-wave background from massive black hole binary systems: implications for observations with Pulsar Timing Arrays
- The evolution of massive black hole seeds
- Gravitational waves from resolvable massive black hole binary systems and observations with Pulsar Timing Arrays
- The clustering of intermediate redshift quasars as measured by the Baryon Oscillation Spectroscopic Survey
- Quasars at z=6: the survival of the fittest
- Black-Hole Spin and Galactic Morphology
- Modeling the cosmological co-evolution of supermassive black holes and galaxies: I. BH scaling relations and the AGN luminosity function
- Modeling the cosmological co-evolution of supermassive black holes and galaxies: II. The clustering of quasars and their dark environment
- A Simple Model for Quasar Demographics
- Massive black hole evolution models confronting the n-Hz amplitude of the stochastic gravitational wave background
- Sub-parsec supermassive Binary Quasars: expectations at z<1
- Constraints on the Accretion History of Massive Black Holes from Faint X-ray Counts
- The clustering of X-ray selected AGN at z=0.1
- Forecasting the Dark Energy Measurement with Baryon Acoustic Oscillations: Prospects for the LAMOST surveys
- Comparing Simple Quasar Demographics Models
- AGN Outflows and the Matter Power Spectrum
- The spatial distribution of X-ray selected AGN in the Chandra deep fields: a theoretical perspective
- Modeling active galactic nuclei: ongoing problems for the faint-end of the luminosity function
- Identifying massive black hole binaries via light curve variability in optical time-domain surveys