The evolution of high-redshift massive black holes
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[1] Xiaohui Fan,et al. MOLECULAR GAS IN z ∼ 6 QUASAR HOST GALAXIES , 2010, Astronomy & Astrophysics.
[2] N. Battaglia,et al. The BlueTides simulation: first galaxies and reionization , 2015, 1504.06619.
[3] S. Glover,et al. New constraints on direct collapse black hole formation in the early Universe , 2015, 1504.04042.
[4] F. Mannucci,et al. The MAGNUM survey: Positive feedback in the nuclear region of NGC 5643 suggested by MUSE , 2015, 1508.04464.
[5] J. Greene,et al. A ∼50,000 M⊙ SOLAR MASS BLACK HOLE IN THE NUCLEUS OF RGG 118 , 2015, 1506.07531.
[6] M. Volonteri,et al. The growth efficiency of high-redshift black holes , 2015, 1506.04750.
[7] Alessandro Bressan,et al. The mass spectrum of compact remnants from the parsec stellar evolution tracks , 2015, 1505.05201.
[8] R. Teyssier,et al. Black hole evolution – I. Supernova-regulated black hole growth , 2015, 1504.00018.
[9] R. Brandenberger,et al. Cosmic string loops as the seeds of super-massive black holes , 2015, 1503.02317.
[10] Xiaohui Fan,et al. An ultraluminous quasar with a twelve-billion-solar-mass black hole at redshift 6.30 , 2015, Nature.
[11] L. Pentericci,et al. Faint AGNs at z > 4 in the CANDELS GOODS-S field: looking for contributors to the reionization of the Universe , 2015, 1502.02562.
[12] T. Quinn,et al. Off the beaten path: a new approach to realistically model the orbital decay of supermassive black holes in galaxy formation simulations , 2015, 1501.07609.
[13] A. Omont,et al. STAR FORMATION RATE AND DYNAMICAL MASS OF 108 SOLAR MASS BLACK HOLE HOST GALAXIES AT REDSHIFT 6 , 2015, 1501.07538.
[14] Astrophysics,et al. The systematic search for z ≳ 5 active galactic nuclei in the Chandra Deep Field South , 2015, 1501.06580.
[15] T. D. Matteo,et al. Scaling relations between black holes and their host galaxies: comparing theoretical and observational measurements, and the impact of selection effects , 2014, 1412.4133.
[16] Shy Genel,et al. The Illustris simulation: the evolving population of black holes across cosmic time , 2014, 1408.6842.
[17] S. Juneau,et al. THERMAL AND RADIATIVE ACTIVE GALACTIC NUCLEUS FEEDBACK HAVE A LIMITED IMPACT ON STAR FORMATION IN HIGH-REDSHIFT GALAXIES , 2014, 1405.7971.
[18] J. Silk,et al. THE CASE FOR SUPERCRITICAL ACCRETION ONTO MASSIVE BLACK HOLES AT HIGH REDSHIFT , 2014, 1401.3513.
[19] R. Meijerink,et al. SONGLINES FROM DIRECT COLLAPSE SEED BLACK HOLES: EFFECTS OF X-RAYS ON BLACK HOLE GROWTH AND STELLAR POPULATIONS , 2014, 1409.0543.
[20] J. Wise,et al. THE DIRECT COLLAPSE OF A MASSIVE BLACK HOLE SEED UNDER THE INFLUENCE OF AN ANISOTROPIC LYMAN–WERNER SOURCE , 2014, 1407.4472.
[21] A. Ferrara,et al. Initial mass function of intermediate-mass black hole seeds , 2014, 1406.6685.
[22] D. Sijacki,et al. Feedback from active galactic nuclei: energy- versus momentum-driving , 2014, Monthly Notices of the Royal Astronomical Society.
[23] M. Colpi,et al. Constraining the high-redshift formation of black hole seeds in nuclear star clusters with gas inflows , 2014, 1406.2325.
[24] F. Bournaud,et al. Active galactic nuclei-driven outflows without immediate quenching in simulations of high-redshift disc galaxies , 2014, 1402.4482.
[25] A. Tchekhovskoy,et al. Numerical simulations of super-critical black hole accretion flows in general relativity , 2013, 1311.5900.
[26] J. Trump,et al. The mean star-forming properties of QSO host galaxies , 2013, 1310.1922.
[27] R. Norris,et al. ACTIVE GALACTIC NUCLEUS FEEDBACK WORKS BOTH WAYS , 2013 .
[28] J. Greene,et al. DWARF GALAXIES WITH OPTICAL SIGNATURES OF ACTIVE MASSIVE BLACK HOLES , 2013, 1308.0328.
[29] R. Norris,et al. AGN feedback works both ways , 2013, 1306.6468.
[30] J. Silk. UNLEASHING POSITIVE FEEDBACK: LINKING THE RATES OF STAR FORMATION, SUPERMASSIVE BLACK HOLE ACCRETION, AND OUTFLOWS IN DISTANT GALAXIES , 2013, 1305.5840.
[31] W. Schmidt,et al. Black hole formation in the early Universe , 2013, 1304.0962.
[32] G. Bicknell,et al. ULTRAFAST OUTFLOWS: GALAXY-SCALE ACTIVE GALACTIC NUCLEUS FEEDBACK , 2012, 1211.5851.
[33] J. Silk,et al. Blowing cold flows away: the impact of early AGN activity on the formation of a brightest cluster galaxy progenitor , 2012, 1206.5838.
[34] J. Greene. Low-mass black holes as the remnants of primordial black hole formation , 2012, Nature Communications.
[35] M. Volonteri. The Formation and Evolution of Massive Black Holes , 2012, Science.
[36] M. Davies,et al. AN UPPER LIMIT TO THE VELOCITY DISPERSION OF RELAXED STELLAR SYSTEMS WITHOUT MASSIVE BLACK HOLES , 2012, 1206.6167.
[37] D. Elbaz,et al. THE HIDDEN “AGN MAIN SEQUENCE”: EVIDENCE FOR A UNIVERSAL BLACK HOLE ACCRETION TO STAR FORMATION RATE RATIO SINCE z ∼ 2 PRODUCING AN MBH–M* RELATION , 2012, 1204.2824.
[38] Z. Haiman. The Formation of the First Massive Black Holes , 2012, 1203.6075.
[39] M. Colpi,et al. High‐redshift formation and evolution of central massive objects – II. The census of BH seeds , 2012, 1201.3761.
[40] KwangHo Park,et al. ACCRETION ONTO BLACK HOLES FROM LARGE SCALES REGULATED BY RADIATIVE FEEDBACK. III. ENHANCED LUMINOSITY OF INTERMEDIATE-MASS BLACK HOLES MOVING AT SUPERSONIC SPEEDS , 2011, 1110.4634.
[41] A. Fontana,et al. Faint high-redshift AGN in the Chandra deep field south: the evolution of the AGN luminosity function and black hole demography , 2011, 1109.2888.
[42] D. Pogosyan,et al. Feeding compact bulges and supermassive black holes with low angular momentum cosmic gas at high redshift , 2011, 1112.2479.
[43] J. Silk,et al. Jet-induced star formation in gas-rich galaxies , 2011, 1111.4478.
[44] M. Volonteri,et al. Assessing the redshift evolution of massive black holes and their hosts , 2011, 1107.1946.
[45] R. Teyssier,et al. BLACK HOLE GROWTH AND ACTIVE GALACTIC NUCLEI OBSCURATION BY INSTABILITY-DRIVEN INFLOWS IN HIGH-REDSHIFT DISK GALAXIES FED BY COLD STREAMS , 2011, 1107.1483.
[46] Yu Feng,et al. COLD FLOWS AND THE FIRST QUASARS , 2011, 1107.1253.
[47] Richard G. McMahon,et al. A luminous quasar at a redshift of z = 7.085 , 2011, Nature.
[48] M. Davies,et al. SUPERMASSIVE BLACK HOLE FORMATION VIA GAS ACCRETION IN NUCLEAR STELLAR CLUSTERS , 2011, 1106.5943.
[49] J. Pel,et al. The High Road to Astronomical Photometric Precision: Differential Photometry , 2011 .
[50] T. Greif,et al. Accretion on to black holes formed by direct collapse , 2010, 1007.3849.
[51] A. Omont,et al. EDDINGTON-LIMITED ACCRETION AND THE BLACK HOLE MASS FUNCTION AT REDSHIFT 6 , 2010, 1006.1342.
[52] M. Volonteri,et al. Quasi‐stars and the cosmic evolution of massive black holes , 2010, 1003.5220.
[53] Marta Volonteri,et al. Formation of supermassive black holes , 2010, 1003.4404.
[54] A. Treves,et al. The quasar relation through cosmic time – II. Evidence for evolution from z = 3 to the present age , 2009, 0911.2988.
[55] J. Trump,et al. ON THE COSMIC EVOLUTION OF THE SCALING RELATIONS BETWEEN BLACK HOLES AND THEIR HOST GALAXIES: BROAD-LINE ACTIVE GALACTIC NUCLEI IN THE zCOSMOS SURVEY , 2009, 0910.4970.
[56] S. Couch,et al. ACCRETION ONTO INTERMEDIATE-MASS BLACK HOLES IN DENSE PROTOGALACTIC CLOUDS , 2008, 0812.2516.
[57] T. Abel,et al. ACCRETION ONTO THE FIRST STELLAR-MASS BLACK HOLES , 2007, 0811.0820.
[58] A. de Koter,et al. On the evolution and fate of super-massive stars , 2007, 0710.1181.
[59] Astronomy,et al. The mass function of high-redshift seed black holes , 2007, astro-ph/0702340.
[60] P. Hopkins,et al. Formation of z~6 Quasars from Hierarchical Galaxy Mergers , 2006, astro-ph/0608190.
[61] G. Kauffmann,et al. The many lives of active galactic nuclei: cooling flows, black holes and the luminosities and colour , 2005, astro-ph/0508046.
[62] National Radio Astronomy Observatory,et al. The Black Hole-Bulge Relationship for QSOs at High Redshift , 2005, astro-ph/0512418.
[63] M. Rees,et al. Rapid Growth of High-Redshift Black Holes , 2005, astro-ph/0506040.
[64] M. Valluri,et al. The Low End of the Supermassive Black Hole Mass Function: Constraining the Mass of a Nuclear Black Hole in NGC 205 via Stellar Kinematics , 2005, astro-ph/0502493.
[65] A. Sakharov,et al. Primordial structure of massive black hole clusters , 2004, astro-ph/0401532.
[66] J. Dunlop,et al. The cosmological evolution of quasar black hole masses , 2003, astro-ph/0405393.
[67] S. Shapiro,et al. Collapse of a Rotating Supermassive Star to a Supermassive Black Hole: Fully Relativistic Simulations , 2002, astro-ph/0205091.
[68] T. Lauer,et al. M33: A Galaxy with No Supermassive Black Hole , 2001, astro-ph/0107135.
[69] S. Mineshige,et al. Slim-Disk model for Soft X-Ray Excess and Variability of Narrow-Line Seyfert 1 Galaxies , 2000, astro-ph/0003017.
[70] S. Shapiro,et al. Evolution of Rotating Supermassive Stars to the Onset of Collapse , 1999, astro-ph/9909237.
[71] J. Lasota,et al. Slim Accretion Disks , 1988 .
[72] M. Rees. BLACK HOLE MODELS FOR ACTIVE GALACTIC NUCLEI , 1984 .
[73] M. Begelman. Can a spherically accreting black hole radiate very near the Eddington limit , 1979 .
[74] W. Fowler. The stability of supermassive stars. , 1966 .