AGN feedback from accretion disk winds

Similar documents
Francesco Tombesi. University of Rome, Tor Vergata NASA - Goddard Space Flight Center University of Maryland, College Park

Astrophysics of feedback in local AGN and starbursts

The Powerful Black Hole Wind in the Luminous Quasar PDS 456

Nuclear X-ray Emission and Mass Outflow From Broad Lined Radio Galaxies (Lorentz Center, Leiden 2009)

RELATIVISTIC SPECTROSCOPY OF BLACK HOLES

AC Fabian, M. Cappi, J Sanders. Cosmic Feedback from AGN

THE INVERSE-COMPTON X-RAY SIGNATURE OF AGN FEEDBACK

Broadband X-ray emission from radio-quiet Active Galactic Nuclei

New Suzaku Results on Active Galaxies. or Reflections on AGN. James Reeves (Keele) and Suzaku team (given by Lance Miller)

Studying AGN winds and feedback with Athena. Massimo Cappi. INAF/IASF-Bologna. 4. Future

Ultra-fast disk wind from a high accretion rate black hole 1H

A new fast wind in a star forming galaxy

X-ray Surveyor and the Spectroscopy of Supermassive Black Hole Outflows

arxiv: v1 [astro-ph.co] 16 Dec 2011

The Physics, Observational Signatures, and Consequences of AGN-Driven Galactic Winds

A Global View: AGN Ionized Winds

Quasars ASTR 2120 Sarazin. Quintuple Gravitational Lens Quasar

How do disks transfer angular momentum to deliver gas onto compact objects? How do accretion disks launch winds and jets?

AGN Feedback. Andrew King. Dept of Physics & Astronomy, University of Leicester Astronomical Institute, University of Amsterdam. Heidelberg, July 2014

Broad X-ray Absorption lines from the Wind in PDS 456

The Hot and Energetic Universe

Scientific cases for Simbol-X of interest of the Italian community

Hunting for feeding and feedback signatures in a sample of hard X-ray selected NLS1

Black Holes and Active Galactic Nuclei

Active Galactic Nuclei

Active Galactic Nuclei

The BAT AGN Survey - Progress Report J. Tueller, C. Markwardt, L. Winter and R. Mushotzky Goddard Space Flight Center

SHAPING GALAXIES WITH BLACK HOLE FEEDBACK

AGN winds and outflows

Orianne ROOS CEA-Saclay Collaborators : F. Bournaud, J. Gabor, S. Juneau

arxiv: v1 [astro-ph] 18 Dec 2007

Lecture 9. Quasars, Active Galaxies and AGN

Hubble Space Telescope ultraviolet spectroscopy of blazars: emission lines properties and black hole masses. E. Pian, R. Falomo, A.

GRB history. Discovered 1967 Vela satellites. classified! Published 1973! Ruderman 1974 Texas: More theories than bursts!

Simultaneous X-ray and Radio Observations of Seyferts, and Disk-Jet Connections

The Phenomenon of Active Galactic Nuclei: an Introduction

Probing variable iron emission and absorption lines in AGNs with XEUS. Massimo Cappi. IASF-Bologna

AGN Winds, Black Holes, and Galaxies

Key issues in black hole accretion - Science by ASTRO-H - Shin Mineshige (Kyoto Univ.)

AGN feedback. Nadia Zakamska & Rachael Alexandroff Johns Hopkins University

Introduction to AGN. General Characteristics History Components of AGN The AGN Zoo

Variable X-ray absorption in the mini-bal QSO PG

Astr 2320 Thurs. April 27, 2017 Today s Topics. Chapter 21: Active Galaxies and Quasars

Osservatorio Astronomico di Bologna, 27 Ottobre 2011

Active Galactic Nuclei

A zoo of transient sources. (c)2017 van Putten 1

Luminous radio-loud AGN: triggering and (positive?) feedback

Coronal geometry at low mass- accretion rates from XMM and NuSTAR spectra. Felix Fürst Caltech for the NuSTAR AGN physics and binaries teams

The X-Ray Universe. The X-Ray Universe

A Unified Model for AGN. Ryan Yamada Astro 671 March 27, 2006

Quasars and AGN. What are quasars and how do they differ from galaxies? What powers AGN s. Jets and outflows from QSOs and AGNs

Thus Far. Intro / Some Definitions Hubble Classification Components of Galaxies. Specific Galaxy Types Star Formation Clusters of Galaxies

FORMATION OF SUPERMASSIVE BLACK HOLES Nestor M. Lasso Cabrera

ASCA Observations of Radio-Loud AGNs

Active galactic nuclei (AGN)

Multi-Phase Outflows in ULIRGs

Active Galactic Nuclei - Zoology

Chapter 17. Active Galaxies and Supermassive Black Holes

Hard X-ray selected sample of AGN: population studies

Active Galaxies & Emission Line Diagnostics

AGN Feedback In an Isolated Elliptical Galaxy

Black Holes in Hibernation

Powerful Neutral-Atomic and Molecular Outflows in Nearby Active Galaxies

Quasars and Active Galactic Nuclei (AGN)

The Monster Roars: AGN Feedback & Co-Evolution with Galaxies

Soft X-ray Emission Lines in Active Galactic Nuclei. Mat Page

The AGN / host galaxy connection in nearby galaxies.

Roberto Soria (UCAS) Jets and outflows from super-eddington sources

Active Galaxies & Quasars

Measuring Black Hole Spin in AGN. Laura Brenneman (Harvard-Smithsonian CfA)

Vera Genten. AGN (Active Galactic Nuclei)

Quasar Winds: the 4 th element

Overview of Active Galactic Nuclei

AGN Feedback. Andrew King. Dept of Physics and Astronomy, University of Leicester, UK Anton Pannekoek Institute, Amsterdam, NL Sterrewacht Leiden, NL

The NuSTAR view of Radio-quiet AGN

Martin Ward (Durham University, UK) allenges in Modern Astrophysics Sofia, Bulgaria Oct. 2009

Searching for Binary Super-Massive BHs in AGNs

NuSTAR + XMM Observations of NGC 1365: A Constant Inner Disc

X-ray properties of elliptical galaxies as determined by feedback from their central black holes

Andy Ptak NASA/GSFC Active Galactic Nuclei

Durham Research Online

High Redshift Universe

Junfeng Wang, G. Fabbiano, G. Risaliti, M. Elvis, M. Karovska, A. Zezas (Harvard CfA/SAO), C. G. Mundell (Liverpool John Moores University, UK), G.

v Characteristics v Possible Interpretations L X = erg s -1

Observing the Formation of Dense Stellar Nuclei at Low and High Redshift (?) Roderik Overzier Max-Planck-Institute for Astrophysics

X-ray spectroscopy of low-mass X-ray binaries

The Black Hole in the Galactic Center. Eliot Quataert (UC Berkeley)

A Supermassive Black Hole in the Dwarf Starburst Galaxy Henize Amy Reines Einstein Fellow National Radio Astronomy Observatory

Physics of the hot evolving Universe

Fermi Bubbles: echoes of the last quasar outburst?

2. Active Galaxies. 2.1 Taxonomy 2.2 The mass of the central engine 2.3 Models of AGNs 2.4 Quasars as cosmological probes.

MASSIVE BLACK HOLES AMY REINES IN NEARBY DWARF GALAXIES HUBBLE FELLOW NATIONAL OPTICAL ASTRONOMY OBSERVATROY

NuSTAR s Extreme Universe. Prof. Lynn Cominsky NASA Education and Public Outreach Sonoma State University

X-ray spectroscopy of nearby galactic nuclear regions

Quasar Feedback in Galaxies

PECULIAR AGNs FROM THE INTEGRAL AND RXTE DATA

NuSTAR spectral analysis of the two bright Seyfert 1 galaxies: MCG and NGC Alessia Tortosa Università Roma Tre

Radiation-hydrodynamic Models for ULXs and ULX-pulsars

The nature of the coronae of accreting black holes

Part two of a year-long introduction to astrophysics:

Transcription:

AGN feedback from accretion disk winds Francesco Tombesi NASA Goddard Space Flight Center University of Maryland, College Park Collaborators: J. Reeves, M. Cappi, C. Reynolds, R. Mushotzky, S. Veilleux, M. Melendez, F. Tazaki, Y. Ueda, V. Braito, J. Gofford, K. Fukumura, D. Kazanas, R. Sambruna, T. Kallman, A. Marscher,

Summary Super-massive Black Holes Active Galactic Nuclei X-ray observations of AGNs Warm Absorbers (WAs) Ultrafast Outflows (UFOs) X-ray winds in local Seyferts, radio galaxies and high-z quasars AGN feedback from winds Future large X-ray observatories: ASTRO-H and Athena

Super-Massive Black Holes (SMBHs) The most obscure objects in Universe Nothing can escape event horizon Observed through gravitational effects The most efficient energy production mechanism in nature E=ηMc 2 η~0.7% for nuclear fusion H in the Sun η~30% for black hole accretion disks Stellar, M BH =3-10 M Astrophysical black holes: Intermediate, M BH =10 2-10 4 M Supermassive, M BH =10 6-10 9 M (Radius of order Earth-Sun distance!)

Active Galactic Nuclei (AGNs) Centaurus A galaxy SMBHs are located at the very center of galaxies Accreting SMBH in AGNs, extreme luminosities (> 10 11 L )

X-rays produced few r g s from the central SMBH Centaurus A galaxy

Current X-ray satellites XMM-Newton Chandra Suzaku NuSTAR

First detection of a warm absorber in the quasar MR 2251-178 Einstein spectra Photoionization model Einstein data show absorption variability in MR 2251-178 First indication of an ionized warm absorber in an AGN (Halpern 1984)

X-ray warm absorbers (WAs) Mrk 509 v~300-800 km/s (Detmers, Kaastra et al. 2011) MR 2251-178 v~500 km/s (Reeves et al. 2013)

Ultrafast outflows ( UFOs ) in AGNs NGC 4051 v~0.1c (Tombesi et al. 2010a) PDS 456 v~0.25c (Pounds et al. 2003) (Reeves et al. 2009)

What is a UFO? A rock band?..or an alien invasion?...a beer?

Active galaxy Ultrafast outflows Jet UFO Accretion disk Super-massive black hole From F. Tombesi s European Space Agency press releases in 2012

Spectral analysis of local Seyfert galaxies PG 1211+143 Ultrafast ouflows (UFOs): v 10,000 km/s Spectral analysis of 42 Seyferts for 101 XMM- Newton observations Uniform E=4-10keV EPIC-pn spectral analysis Fe K absorption line search with energy-intensity contour plots No EPIC-pn background or calibration problems Consistency between EPIC-pn/MOS Absorbed power-law Absorbed power-law + Fe K emission line (Tombesi et al. 2010a)

Spectral analysis of local Seyfert galaxies Monte Carlo simulations ΔΧ 2 Χ 2 XSTAR absorption Simulation number (Tombesi et al. 2010a) Absorber redshift (Tombesi et al. 2011a) Extensive Monte Carlo simulations, random generated lines E=7-10keV Extensive curve of growth analysis Fe XXV-XXVI absorption lines Photo-ionization modeling with XSTAR code

Global parameters of UFOs in local Seyferts Outflow velocity Ionization Column density <v out > ~ 0.1c <logξ> ~ 4.2 <logn H > ~ 23 cm -2 Velocity (v/c) Log(ξ) Log(N H ) l UFO detected in 40% of the sources, wide angle outflows l Spectral variability on time-scales of ~days, compact absorbers l Plasmas with mildly relativistic velocities, high ionization/columns (Tombesi et al. 2011a; see also Gofford et al. 2013)

Log(N H ) N H ξ 0.72 Log(v out ) v out N H 0.69 Log(ξ) Log(N H ) Log(v out ) v out ξ 0.65 UFOs (blue), non-ufos (green), WAs (red) Log(ξ) Comparison of UFOs and WAs in sample of 35 Seyfert 1 galaxies WAs found in >60% sources UFOs in >40%, >70% also WAs Significant correlations (>6σ) (Tombesi et al. 2013a)

Log(ξ) ξ r 0.58 N H r 0.44 Log(N H ) Log(r) Log(r) Log(v out ) v out r 0.40 Log(M out ) M out r 0.16 Log(r) Log(r) Log(P out ) P out r 0.22 E K r 0.60 Log(E K ) Log(r) Log(r)

Unification of X-ray winds? WA UFO Log(P out ) P wind P rad Kazanas et al. (2012) l Unification as a large-scale, multi-phase AGN outflow Log(P rad ) l Density n~r -1.4, conical/bipolar geometry; velocity v out ~r -1/2, escaping wind l High ionization and velocity. Acceleration through radiation pressure? and/or MHD? (e.g., King & Pounds 2003; Proga & Kallman 2004; King 2010; Ohsuga et al. 2009; Fukumura et al. 2010; Reynolds 2012) l Outflow momentum rate 1:1 radiation momentum: interaction radiation/matter?

X-ray disk winds in radio galaxies Hercules A

Ultra-fast outflows in radio-loud AGNs The sample: l 26 local RL-AGNs from Swift BAT catalog 3C 120 l Majority FR II, no blazars l 61 XMM-Newton and Suzaku obs Analysis method: l Search for Fe K absorption lines v~0.16c l Confirmation with broad-band analysis l XSTAR photo-ionization modeling 6 7 8 9 Energy (kev)

Fe K absorption lines in Centaurus A EW~10eV, Fe XXV-XXVI, >5σ 3 Suzaku obs in 2009 Observed velocity <1500 km/s, projected ~vertical wind? High jet inclination 50 <i<80

Fe K absorbers in radio-loud AGNs Outflow velocity Ionization Column density <v out > ~ 0.13c <logξ> ~ 4.5 <logn H > ~ 23 cm -2 Velocity (v/c) Log(ξ) Log(N H ) l Combining results with literature, UFOs in 7/26 (~30%) sources l But only ~56% spectra have enough S/N, frequency of UFOs is f=(50±20)% l Similar to RQ AGNs: jet related RQ/RL dichotomy does not apply to disk winds? (Tombesi et al. 2014)

Comparison between the disk, winds and jet in 3C 111 2-10keV RXTE monitoring l Correlation X-ray dips & VLBA radio jet ejections (Marscher et al. 2002; Chatterjee et al. 2009, 2011) l Disk winds with v~0.1c stronger during disk-jet ejection cycles (Tombesi et al. 2012b)

Ultrafast outflows in high-z quasars Gravitationally lensed BAL quasar APM 08279+5255 (z = 3.9), XMM-Newton and Chandra observations, v out ~0.2-0.7c (Chartas et al. 2009) Mini-BAL QSO PG1126-041, XMM-Newton obervations, v out ~16,500 km/s (Giustini et al. 2011) NAL QSO HS 1700+6416 (z= 2.7),Chandra observations, v out ~0.1-0.6c (Lanzuisi et al. 2012)

Scale relations between SMBHs and host galaxies M BH (M ) M BH (M ) M bulge (M ) σ (km/s) (e.g., Magorrian et al. 1998; Ferrarese & Merritt 2000; review by Kormendy & Ho 2013) l SMBH size ~10 10 smaller typical galaxy (~atom 10 5 nucleus) l SMBH mass is ~1% stellar bulge mass l SMBH gravitational energy ~ binding energy galaxy bulge!

AGN feedback from accretion disk winds (Zubovas & King 2014) (Ohsuga et al. 2009) (Wagner et al. 2013) (e.g., Silk & Rees 1998; King 2003; Di Matteo et al. 2005; Hopkins & Evlis 2010; Gaspari et al. 2011; Zubovas & King 2012/2014; Faucher-Giguere & Quataert 2012; Zubovas & Nayakshin 2014; Costa et al. 2014/2015; )

Accretion disk wind detected with Suzaku IRAS F11119+3257, ULIRG z=.189, AGN dominated, QSO luminosity 10 46 erg/s Detection (6.5sigma) broad absorption line at E=9.82keV Excluded slower absorber (edge) and disk reflection (variability, luminosity) XSTAR fit UFO: v=0.255c, logxi=4.11, Nh=6 10 24, covering fraction >0.85 (Tombesi et al. 2015, Nature accepted)

Large-scale molecular outflow with Herschel Herschel spectrum of the OH 119µm P-Cygni line profile Massive (800 Msun/yr) large-scale (300 pc) molecular outflow Average outflow velocity 1000 km/s, covering fraction 0.2 (Tombesi et al. 2015, Nature accepted)

AGN feedback from energy-conserving winds UFO momentum rate 1.3 L AGN /c, power 15% L AGN Molecular outflow momentum rate 11 L AGN /c (boosting), power 2% L AGN Consistent energy-conserving flow (bubble): P out =f(v in /v out )(L AGN /c) Efficiency energy conservation f=c F,OH /C F,X =0.2 (Tombesi et al. 2015, Nature accepted)

To be launched in early 2016 stay tuned!

UFO sightings with ASTRO-H SXS micro-calorimeter unprecedented energy resolution (6eV) and sensitivity Simultaneous broad-band coverage 0.5-200 kev (SXS+SXI+HXI+SGD)

100ks, PDS 456, UFO v~0.2-0.3c

Active Galaxy Jet Wind Super-massive Black Hole Thank you for your attention!