AGN/Galaxy Co-Evolution. Fabio Fontanot (HITS)

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Transcription:

AGN/Galaxy Co-Evolution Fabio Fontanot (HITS) 21/11/2012

AGN activity in theoretical models of galaxy formation Represents a viable solution for a number of long-standing theoretical problems Properties of AGN and Galaxy population are similar Joint evolution of Galaxies and AGNs

Outline of review talk AGNs in theoretical models of galaxy formation

Outline of (biased) review talk AGNs in theoretical models of galaxy formation

Outline of (biased) review talk AGNs in theoretical models of galaxy formation Semi-Analytic Models of galaxy formation SMBH growth Modes of AGN feedback Popular models

Outline of (biased) review talk AGNs in theoretical models of galaxy formation Semi-Analytic Models of galaxy formation SMBH growth Modes of AGN feedback Popular models Testing evidences for co-evolution Local Universe (z~0) Intermediate Universe (z<5) Early Universe (z>5)

Theory

Baryonic Gas Falls into the potential well of Dark Matter Haloes Adapted from Frenk & White 91 See also Baugh06

Baryonic Gas Falls into the potential well of Dark Matter Haloes Baryonic gas is shock-heated to the virial temperature (but see Keres+06)

Radiative Cooling drives gas towards the center of DMHs

Radiative Cooling drives gas towards the center of DMHs

Radiative Cooling drives gas towards the center of DMHs

Radiative Cooling drives gas towards the center of DMHs Star Formation begins in Disk like Structure

Galactic Winds Stellar Feedback Thermal processes in the baryonic gas Star Formation Infall of cold material

TIME Dark Matter Haloes Merger Tree

Interaction with enviroment - modifies galactic structures - removes angular mom. - leads to bulge formation (DeLucia+11; Fontanot+11) Tidal Stripping Dynamical Friction Merging

Active Galactic Nuclei & Quasars Compact and luminous sources (L~1046-49erg/s) Accretion of gas onto a Supermassive Black Hole (106-9 Msun) at the center of galaxies Strong Connection with host galaxy formation and evolution (feedback, energy transfer) Courtesy Padovani & Urry 1995

Galaxy Luminosity Functions Mk Croton+06 Munich group Mbj

AGN feedback OFF Bower+06 Durham group AGN feedback ON Mbj Mk

Bimodality Croton+06 Munich group

Bimodality Croton+06 Munich group

Different regimes for AGN feedback

Different regimes Radio -mode Low-accretion

Different regimes Radio -mode Low-accretion Development of radio jets

Different regimes Radio -mode Low-accretion Development of radio jets Keep massive galaxies red Hot Haloes Dry Mergers? LargeScales (DMH)

Different regimes Radio -mode Low-accretion Development of radio jets Keep massive galaxies red Hot Haloes Dry Mergers? LargeScales (DMH) Long

Different regimes Radio -mode Low-accretion Development of radio jets Keep massive galaxies red Hot Haloes Dry Mergers? LargeScales (DMH) Long Steady state accretion rate or cyclic behaviour?

Different regimes Quasar -mode High-accretion Bright-phase Galaxy Mergers

Different regimes Quasar -mode High-accretion Bright-phase Galaxy Mergers Springel+05 Hopkins+05,06,07,08

Different regimes Quasar -mode High-accretion Bright-phase Galaxy Mergers Secular processes?

Different regimes Quasar -mode High-accretion Bright-phase From blue to red Galaxy Mergers Secular processes?

Different regimes Quasar -mode High-accretion Bright-phase From blue to red Galaxy Mergers Secular processes? Small Scales (~kpc) Triggering galactic winds? Rapid

Different regimes Radio -mode Quasar -mode Low-accretion High-accretion Development of radio jets Bright-phase Keep massive galaxies red From blue to red Hot Haloes Galaxy Mergers Dry Mergers? LargeScales (DMH) Long Steady state accretion rate or cyclic behaviour? Secular processes? Small Scales (~kpc) Triggering galactic winds? Rapid

Different regimes Radio -mode Quasar -mode Low-accretion High-accretion Development of radio jets Bright-phase Keep massive galaxies red From blue to red Hot Haloes Galaxy Mergers Dry Mergers? LargeScales (DMH) Long Steady state accretion rate or cyclic behaviour? Regulates stellar mass Secular processes? Small Scales (~kpc) Triggering galactic winds? Rapid Regulates BH mass

SA Models

Wang+08 Bright -mode Related to minor and major mergers Radio -mode Accretion of hot gas from static atmosphere Accretion rate proportional to halo mass (See also Croton+06) Croton+06

Menci+08 Bright -mode Related to galaxy interactions Mergers & Fly-bies

Somerville+08 Bright -mode QSO Light curve model for BH accretion Hopkins+05+07+09

Somerville+08 Bright -mode QSO Light curve model for BH accretion Hopkins+05+07+09 Radio -mode Bondi-Hoyle Accretion

MORGANA Unified accretion scheme Based on Umemura+01 and Granato+04 Gas accretion from a reservoir by viscosity Accretion Rate determines feedback scheme High accretion rates = bright -mode Low accretion rates = radio -mode

BRIGHT-MODE 5) Triggering of Galactic Winds 6) Quenching of Star Formation 5) Jet Development 6) Quenching of Cooling Flows Coupling between AGN and stellar feedback may lead to... RADIO-MODE

Malbon+07 Bright -mode Related to mergers and disk instabilities Radio -mode (See also Bower+06) Bower+06

Fanidakis+11 Accretion mode related to BH spin

Theory vs Observations

Low-Redshift

Different regimes Radio -mode Low-accretion Development of radio jets Keep massive galaxies red Hot Haloes Dry Mergers? LargeScales (DMH) Long Steady state accretion rate or cyclic behaviour? Regulates stellar mass

Galaxy Luminosity Functions Mk Croton+06 Munich group Mbj

Bimodality Croton+06 Munich group

Different regimes Radio -mode Low-accretion Development of radio jets Keep massive galaxies red Hot Haloes Dry Mergers? LargeScales (DMH) Long Steady state accretion rate or cyclic behaviour? Regulates stellar mass

Pasquali+09 Yang+07 group catalogue Estimates for stellar and halo mass Activity Classes SFG e AGN HRA e LRA

Pasquali+09 Yang+07 group catalogue Estimates for stellar and halo mass Activity Classes SFG e AGN HRA e LRA

Central Galaxies

Central Galaxies Fontanot+11 All Models

Central Galaxies Fontanot+11 All Models MORGANA

Central Galaxies MORGANA

BH-bulge relation Marconi & Hunt 2004

BH-bulge relation Credits Dave Alexander

Warning Jahnke&Maccio'11

Marulli+08 Fanidakis+11 Menci+08 Somerville+08

Intermediate-Redshift

Assembly of BH-bulge relation Colpi+07 Volonteri+10

Shankar+09 Evolution of BH-bulge relation (see also Marconi+04) Decarli+11 (see also Peng+06)

Evolution of BH-bulge relation Fontanot+06 Hopkins+07 Lamastra+10

Shankar+09 Evolution of BH-bulge relation (see also Marconi+04) Decarli+11 (see also Peng+06) Alexander+08

Downsizing

DS in stellar mass Log (M* / Msun) Log (M* / Msun)

The Manifestations of Downsizing DS in (specific) SFR (Cowie+96,Zheng07,Noeske+07,Drory&Alvarez08,Dunne+08,Santini+09...) DS in stellar mass (Drory+05, Cimatti+06, Fontana+06, Pozzetti+07, Conselice+07,...) Archeological DS (Thomas+05, Gallazzi+05, Panter+07,...) Chemo-Archeological DS (Carollo+93,Trager+00,Matteucci+04,Thomas+05,...) DS in metalicity (Savaglio+05,Erb+06,Maiolino+08,...) AGN DS (Ueda+03,Hasinger+05,LaFranca+05,...)

AGN Downsizing Hasinger+05 Redshift LaFranca+05

Fontanot+06 Hirschmann+12 Fanidakis+11 Menci+08

Fontanot+06

Menci+08

Fanidakis+11

Hirschmann+12

AGN Downsizing Different Explanations Coupling of AGN and stellar feedback Fontanot+06 Galaxy Interactions Menci+08 Dust Obscuration Fanidakis+11 Heavy BH seeds & major role of disk instabilities Hirschmann+12

Different regimes Quasar -mode High-accretion Bright-phase From blue to red Galaxy Mergers Secular processes? Small Scales (~kpc) Triggering galactic winds? Rapid

Warning: AGN hosts Schawinski+10;12 Xue+10

Warning: AGN hosts Schawinski+10;12

Mergers vs Secular Shankar+12 Schawinski+10;12

Conclusions Joint Evolution of Galaxy and AGNs Consensus: Key aspect for setting up both galactic and SMBH properties Disagreement: how does it happen? Data vs Models Good News: models (somehow) reproduce the data Bad News: models (somehow) reproduce the data Call for observational tests able to disentagle between the different proposed models Better knowledge of host galaxy properties Detailed knowledge of accretion physics Different calibration sets