Underneath the Monster: In which galaxies are black holes growing?

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Underneath the Monster: In which galaxies are black holes growing? Mauricio Cisternas Ins:tuto de Astrofisica de Canarias, Spain + Nacho Trujillo Jürgen Fliri Johan Knapen dagalnetwork.eu ESO San:ago, November 20, 2013

Galaxies, Black Holes, and Ac:ve Galac:c Nuclei Black hole growth: accre:on- - or AGN phase(s) How to ac:vate (feed) a black hole? The usual suspect: major galaxy mergers AGN expected to live in mergers/spheroids Is this picture supported by observa:ons? Di MaZeo+ 05 Boyce+ 96; Bahcall+ 97

Recent Observa:onal Results: COSMOS o 2 deg2: Largest con:guous HST field o Ancillary coverage from X- ray to radio o XMM- Newton: large/clean AGN sample o HST/ACS, F814W: op:cal morphologies out to z=1 o 140 X- ray selected AGN at 0.3 < z < 1.0 Scoville+07 Cisternas+ Scoville+07 11

Recent Observa:onal Results: COSMOS COSMOS AGN host galaxy morphologies (Cisternas+ 11) o Visually classified according to: Hubble type: Bulge- or disk- dominated Distor:on level: smooth, mildly distorted, or wrecked o Direct comparison to matched inac:ve galaxies Bulge- dom Disk- dom Distor:on- 0 Distor:on- 1 Distor:on- 2

Recent Observa:onal Results: COSMOS AGN host galaxy morphologies (Cisternas+11): Frac:on 60% 40% 20% AGN hosts inac:ve galaxies Bulge- dom Disk- dom Dist- 0 Dist- 1 Dist- 2 1. Only a minority (~15%) of AGN found in merging systems 2. consistent with the merger rate of normal galaxies 3. Most AGN (65%) reside in disk- dominated galaxies

Recent Observa:onal Results: COSMOS AGN host galaxy morphologies (Cisternas+11): Frac:on 60% 40% 20% AGN hosts inac:ve galaxies Bulge- dom Disk- dom Dist- 0 Dist- 1 Dist- 2 1. Only a minority (~15%) of AGN found in merging systems 2. consistent with the merger rate of normal galaxies 3. Most AGN (65%) reside in disk- dominated galaxies

Recent Observa:onal Results: COSMOS AGN host galaxy morphologies: mostly disky and undisturbed Surprising? Parameter space: rela:vely local at z<1, universe is rather secular much more ac:on at z~2 log Bolometric Luminosity (erg/s) 46 45 44 43 42 1 2 3 redshiq

Recent Observa:onal Results: COSMOS AGN host galaxy morphologies: mostly disky and undisturbed Surprising? Parameter space: rela:vely local at z<1, universe is rather secular much more ac:on at z~2 log Bolometric Luminosity (erg/s) 46 45 44 43 42 1 2 3 redshiq

Recent Observa:onal Results: CANDELS o Largest HST program (PIs: Faber, Ferguson) o Deep (GOODS) and wide (COSMOS, UDS, EGS) surveys o WFC3 (J and H): op:cal morphologies at z~2 o 72 AGN in the CDF- S at 1.5<z<2.5

Recent Observa:onal Results: CANDELS AGN host galaxy morphologies, now at z~2 (Kocevski+12) 1. Only a minority (~17%) of AGN found in merging systems 2. consistent with the merger rate of normal galaxies 3. Significant frac:on of AGN hosted by disks

Where to find enough quasars? o Equivalent results from both COSMOS and CANDELS o Luminosi:es probed: just below quasar cutoff o Small area surveys: very few quasars o SDSS: tens of thousands of QSOs but: shallow, arcsec resolu:on o Bright quasar dominates the overall light distribu:on log Bolometric Luminosity (erg/s) 46 45 44 43 42 1 2 3 redshiq

Where to find enough quasars? o Equivalent results from both COSMOS and CANDELS o Luminosi:es probed: just below quasar cutoff o Small area surveys: very few quasars o SDSS: tens of thousands of QSOs but: shallow, arcsec resolu:on o Bright quasar dominates the overall light distribu:on log Bolometric Luminosity (erg/s) 46 45 44 43 42 1 2 3 redshiq

IAC Legacy Stripe82 co- add (Fliri & Trujillo 14) www.iac.es/proyecto/stripe82 o SDSS Stripe 82: 275 deg 2 equatorial stripe observed ~80 :mes o IAC S82 project: produce a co- add of only the best images o 50% of images thrown away due to: bright sky, major sky gradients, poor seeing, clouds o Result: extremely flat sky; 2 mag deeper than standard SDSS

QSOs in Stripe 82 SDSS single epoch Stripe 82 co- add DR7 quasar catalog (Schneider+10) 352 quasars in S82 log Bolometric Luminosity (erg/s) 46 45 44 43 42 1 2 3 redshiq 8

QSOs in Stripe 82 SDSS single epoch Stripe 82 co- add DR7 quasar catalog (Schneider+10) 352 quasars in S82 log Bolometric Luminosity (erg/s) 46 45 44 43 42 1 2 3 redshiq 8

Revealing the hidden quasar host galaxies z=0.48 z=0.26 z=0.36

Revealing the hidden quasar host galaxies z=0.48 n=1.4 R e =10.1 kpc z=0.26 n=1.7 R e =5.7 kpc z=0.36 n=4 R e =5.7 kpc

Revealing the hidden quasar host galaxies z=0.48 z=0.26 Represent QSO as PSF+Sersic profile Custom- made PSFs from 100+ stars 2D fiyng with GALFIT Careful assessment of resul:ng parameters (e.g., Sersic n=20, R e =0.001, etc) n=1.4 R e =10.1 kpc n=1.7 R e =5.7 kpc z=0.36 n=4 R e =5.7 kpc

(Preliminary) Results: quasar host galaxies o 3% not suitable to fit, 15% unresolved o 50% disks, 36% spheroids, remaining intermediate morphologies o At least 35% unambiguously interac:ng/merging

Future work with Stripe82 o Mul:band decomposi:ons to inves:gate, e.g.,: SF proper:es of host galaxies Gas- richness of merger features g r i o Compare QSO host galaxies to similar inac:ve galaxies

log Bolometric Luminosity (erg/s) 46 45 44 43 42 Summary: oversimplified picture 1 2 3 redshiq Quasar regime (low- z): slightly higher merger rates, mixed host galaxy morphologies Moderate luminosity/seyfert regime: BH growth occurring primarily through non- violent processes Open ques:on: what parameters reflect the origin of the AGN ac:vity? (redshiq, luminosity, BH accre:on rate, stellar mass, gas frac:ons, )

Gültekin+ 09