COSMIC EVOLUTION OF STELLAR BLACK HOLES Félix Mirabel CEA-Saclay-France & CONICET-Argentina.

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COSMIC EVOLUTION OF STELLAR BLACK HOLES Félix Mirabel CEA-Saclay-France & CONICET-Argentina

Outline From current models on the formation and evolution of massive stars and from the observations of stellar black holes in the Local Universe I will show that: I.There was a cosmic evolution of stellar black holes: A large fraction of Pop III & Pop II stars must have ended as Black Hole High Mass X-Ray Binaries (BH-HMXBs) Mirabel (2011): arXiV: v1 [astro-ph.CO] II.Cosmological implication: BH-HMXBs played an important role during the re-ionization era of the universe Mirabel, Dijkstra, Laurent, Loeb, Pritchard (A&A 528, A149, 2011) News & Views by Haiman in Nature of 7 April, 2011 This hypothesis is based on the following theoretical models & observations

MODELS ON THE FORMATION OF COMPACT OBJECTS BY THE COLLAPSE OF SINGLE STARS with no rotation (Heger+ 2003) Low metal progenitors form BHs by IMPLOSION (Fryer, 1999) But recent work shows binarity is important because with rotation (Georgy+ 2009) solar metallicity Mass of progenitor star Z

MASSIVE STARS ARE FORMED IN MULTIPLE SYSTEMS Turk, Abel & O’Shea (Science 2009) Krumholz et al. (Science 2009) Stacy, Greif & Bromm (ApJ 2010) Fragmentation: Clark+ (Science 2011) 1)Pop III stars were multiple systems dominated by binaries with M  2) Feedback limited the mass of Pop III stars to M = 43 M  (Yye, this meeting) 3) Observations in MW  >70% of OB type stars are binaries (e.g. Chini+, 2011)

THE FORMATION OF HMXBs IS STRONGLY METALLICITY DEPENDENT (Linden, Kalogera+ 2011) Number of HMXBs per starburst of 10 6 M  AT LOW Z the number of HMXBs increases the orbital period decreases progenitors of > 20 M  end as BHs

FROM CURRENT MODELS OF MASSIVE STAR FORMATION AND EVOLUTION THE FRACTION OF BLACK HOLES / NEUTRON STARS THE FRACTION OF BINARY / SOLITARY BLACK HOLES SHOULD INCREASE WITH DECREASING METALLICITY OF THE PROGENITORS Because at low Z’s BHs form directly (with no energetic SNe), the fraction of binary systems that remain gravitationally bound increases, and therefore, from a theoretical point of view one expects that THE FRACTION OF BH-HMXBs INCREASES WITH DECREASING METALLICITY WHAT OBSERVATIONS CAN TEST THESE THEORETICAL PREDICTIONS?

IS THERE ANY EVIDENCE OF BLACK HOLE FORMATION BY DIRECT COLLAPSE? CORE COLLAPSE MODELS: DELEYED VERSUS DIRECT COLLAPSE AS A FUNCTION OF THE MASS OF THE CORE: Massive black holes (M>10 M  ) should form without luminous SNe & energetic kicks (Fryer & Kalogera; Woosley & Heger; Nomoto et al.) USE THE KINEMATICS OF  QSOs TO TEST THE CORE COLLAPSE MODELS Mirabel & Irapuan Rodrigues ( ) Credit S&T

JETS IN MICROQUASARS Mirabel & Rodríguez 1994 VLA 3.6 cm Mirabel, Rodriguez COMPACT JETS STEADY JETS TRANSIENT JETS Dhawan, Mirabel, Rodríguez (2007) In low hard state. Size ~ 100 AU. Same PA USED TO DETERMINE PROPER MOTIONS (with VLBI to get sub-miliarc sec precision)

THREE BLACK HOLES OF >10 M  FORMED BY DIRECT COLLAPSE Cygnus X-1 V p < 9+/-2 km/s   < 1 M  ejected in a SN confirmed by Gou, McClintock+ (2011) Otherwise it would have been shot out from the parent stellar association THE ~10 M  BH IN Cyg X-1 WAS FORM BY DIRECT COLLAPSE Mirabel & Rodrigues (Science, 2003) GRS : Vp=50-80 km/s & W=7+/-3 km/s (Dhawan,Mirabel,Rodríguez 2001) V404 Cyg: Vp= km/s & W = 0.2+/-3 km/s (Miller-Jones et al. 2009) BHs with > 10 M  form with no energetic SNe Proper motion by Lestrade et al. (1999)  AT LOW Zs BINARIES CAN REMAIN BOUND AFTER BH FORMATION

ULTRALUMINOUS X-RAY SOURCES: MOST ARE BH-HMXBs THE OCCURRENCE RATE OF ULXs PER UNIT GALAXY MASS IS A DECREASING FUNCTION OF METALLICITY (Zampieri & Roberts) X-ray (Chandra) Antennae Fabbiano et al.

ULXs IN THE CLOSEST TEMPLATES OF HIGH z GALAXIES The ULXs luminosity of ~10 42 erg s -1 in the Cartwheel rivals that of AGN (Gao+ 2003)

BH-HMXBs IN LOW METAL-STAR-FORMING GALAXIES Figures from Feng & Soria (2011) Spectra Massive outflows shock & photonionized bubbles of > 100 pc size H  images E > erg BH-HMXB Pakull et al. Nature (2011)

Because massive stars with low Z end as black holes by direct collapse THE COSMIC EVOLUTION OF METALLICITY  A COSMIC EVOLUTION OF BH-HMXBs THE FRACTION OF BLACK HOLES/NEUTRON STARS THE FRACTION OF BINARY/SINGLE BLACK HOLES SHOULD INCREASE WITH REDSHIFT Beyond the theoretical uncertainties (e.g. mixing due to rotation in Pop III stars), the observation of ULXs in the Local Universe support this hypothesis WHAT ARE THE COSMOLOGICAL IMPLICATIONS OF LARGE POPULATIONS OF BH-HMXRBs DURING THE DARK AGES THAT LASTED FROM 4x10 4 up to 10 9 yr?

Ionizing power of  QSOs versus ionizing power of massive stars Counting ionizing photons Mirabel, Diskra, Laurent, Loeb, Pritchard (2011) f edd = fraction of Eddington luminosity for a time t acc N phot = number of ionizing photons emitted per atom of H nucleus   = mean photon energy emitted by the accreting BH f esc,* (f esq,BH ) = fraction of ionizing photons that escape For fiducial values of the model parameters: THE ACCRETING BLACK HOLE EMITS A TOTAL NUMBER OF IONIZING PHOTONS THAT IS COMPARABLE TO THAT OF ITS PROGENITOR STAR But in a fully neutral medium N sec* = 25 (E  /1 keV), where E  is the photon energy However, not all stars will be massive and lead to the formation of BH-HMXBs…

BH-HMXBs LIMITED THE MASS OF DWARF GALAXIES From Loeb (2010): T vir = 1.04 x 10 4 (     ) 2/3 [(1+z)/10] K M min ~ 10 9 (  c ) -1/2 (        z)/10] -3/2    c = critical mass density for a flat universe, r = mass density in the galaxy m = mean molecular weight, z = redshift, T = temperature of the IGM X-ray and UV heating of the diffuse IGM during reionization resulted in an additional increase of the minimum galaxy mass. Once the IGM was heated to ~10 4 K by the UV and X-rays from BH-HMXBs, dark matter haloes with masses below a certain mass (10 x M  ) could not accrete gas from IGM. THE THERMAL HISTORY OF THE IGM DETERMINED BY ACCRETING BLACK HOLES HAD A DIRECT IMPACT ON THE PROPERTIES OF THE FAINTEST GALAXIES AT HIGH REDSHIFTS AND THE SMALLEST GALAXIES IN THE LOCAL UNIVERSE

CONCLUSION Theory and observations suggest a cosmic evolution of HMXBs  During the reionization epoch large populations of HMXBs are form. HMXBs determine the early thermal history of the universe, and maintain the IGM ionized over large volumes of space. HMXBs have a direct impact on the properties of the faintest galaxies at high redshift, the smallest galaxies in the local universe, and on the future surveys of HI in the early universe. This has implications on observational constraints to the Cold Dark Matter model of the universe