X-ray eruptions every 22 days from the nucleus of a nearby galaxy
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S. Gezari | S. Velzen | K. Gendreau | J. Miller-Jones | T. Wevers | F. Tombesi | M. Zajaček | S. van Velzen | D. Pasham | Elizabeth Ferrara | V. Witzany | M. Guolo | Yuhan Yao | V. Karas | Vojtěch Witzany | K. D. Alexander | Michal Zajavcek | Eric R. Coughlin | Petra Sukov'a | Kate D. Alexander | R. Arcodia | Vladimir Karas | Ronald Remillard | E. Coughlin | R. Remillard | E. Ferrara
[1] S. Gezari,et al. A systematic analysis of the X-ray emission in optically selected tidal disruption events: observational evidence for the unification of the optically and X-ray selected populations , 2023, 2308.13019.
[2] A. King. Why Are Quasiperiodic Eruptions Only Found in Low–Mass Galaxies? , 2023, Monthly Notices of the Royal Astronomical Society: Letters.
[3] Gopal-Krishna,et al. Precession-induced Variability in AGN Jets and OJ 287 , 2023, The Astrophysical Journal.
[4] E. Coughlin. The dynamics of debris streams from tidal disruption events: Exact solutions, critical stream density, and hydrogen recombination , 2023, Monthly Notices of the Royal Astronomical Society.
[5] Z. Haiman,et al. Flares from stars crossing active galactic nuclei disks on low-inclination orbits , 2023, 2304.03670.
[6] M. Giustini,et al. Quasi-periodic eruptions from impacts between the secondary and a rigidly precessing accretion disc in an extreme mass-ratio inspiral system , 2023, Astronomy & Astrophysics.
[7] B. Metzger,et al. EMRI + TDE = QPE: Periodic X-ray Flares from Star-Disk Collisions in Galactic Nuclei , 2023, 2303.16231.
[8] A. King. Angular momentum transfer in QPEs from galaxy nuclei , 2023, Monthly Notices of the Royal Astronomical Society: Letters.
[9] S. Smartt,et al. The Birth of a Relativistic Jet Following the Disruption of a Star by a Cosmological Black Hole , 2022, Nature Astronomy.
[10] R. Sari,et al. Unstable Mass Transfer from a Main-sequence Star to a Supermassive Black Hole and Quasiperiodic Eruptions , 2022, The Astrophysical Journal.
[11] N. Stone,et al. Magnetically Dominated Disks in Tidal Disruption Events and Quasi-Periodic Eruptions , 2022, Monthly Notices of the Royal Astronomical Society.
[12] A. Tchekhovskoy,et al. Radiation Transport Two-temperature GRMHD Simulations of Warped Accretion Disks , 2022, The Astrophysical Journal Letters.
[13] E. Quataert,et al. Quasi-periodic eruptions from mildly eccentric unstable mass transfer in galactic nuclei , 2022, Monthly Notices of the Royal Astronomical Society.
[14] A. Merloni,et al. Live to Die Another Day: The Rebrightening of AT 2018fyk as a Repeating Partial Tidal Disruption Event , 2022, The Astrophysical Journal Letters.
[15] J. Krolik,et al. Quasiperiodic Erupters: A Stellar Mass-transfer Model for the Radiation , 2022, The Astrophysical Journal.
[16] P. Evans,et al. A real-time transient detector and the living Swift-XRT point source catalogue , 2022, Monthly Notices of the Royal Astronomical Society.
[17] A. Merloni,et al. Deciphering the extreme X-ray variability of the nuclear transient eRASSt J045650.3-203750. A likely repeating partial tidal disruption event , 2022, Astronomy & Astrophysics.
[18] K. Alexander,et al. Repeating tidal disruptions in GSN 069: Long-term evolution and constraints on quasi periodic eruptions models , 2022, Astronomy & Astrophysics.
[19] D. Elbaz,et al. Compact and Variable Radio Emission from an Active Galaxy with Supersoft X-Ray Emission , 2022, The Astrophysical Journal.
[20] E. Ramirez-Ruiz,et al. Tidal Disruption Events from Eccentric Orbits and Lessons Learned from the Noteworthy ASASSN-14ko , 2022, The Astrophysical Journal.
[21] A. Mahabal,et al. The Tidal Disruption Event AT2021ehb: Evidence of Relativistic Disk Reflection, and Rapid Evolution of the Disk–Corona System , 2022, The Astrophysical Journal.
[22] C. Kochanek,et al. Chandra, HST/STIS, NICER, Swift, and TESS Detail the Flare Evolution of the Repeating Nuclear Transient ASASSN -14ko , 2022, The Astrophysical Journal.
[23] A. King. Quasi-Periodic Eruptions from Galaxy Nuclei , 2022, Monthly Notices of the Royal Astronomical Society.
[24] M. Gu,et al. A Disk Instability Model for the Quasi-periodic Eruptions of GSN 069 , 2022, The Astrophysical Journal Letters.
[25] A. Merloni,et al. The complex time and energy evolution of quasi-periodic eruptions in eRO-QPE1 , 2022, Astronomy & Astrophysics.
[26] C. Nixon,et al. Using the Hills Mechanism to Generate Repeating Partial Tidal Disruption Events and ASASSN-14ko , 2022, The Astrophysical Journal Letters.
[27] A. Drake,et al. The Final Season Reimagined: 30 Tidal Disruption Events from the ZTF-I Survey , 2022, The Astrophysical Journal.
[28] C. Nixon,et al. Stellar Revival and Repeated Flares in Deeply Plunging Tidal Disruption Events , 2022, The Astrophysical Journal Letters.
[29] T. Wevers,et al. Host galaxy properties of quasi-periodically erupting X-ray sources , 2022, Astronomy & Astrophysics.
[30] C. Nixon,et al. Stars Crushed by Black Holes. II. A Physical Model of Adiabatic Compression and Shock Formation in Tidal Disruption Events , 2021, The Astrophysical Journal.
[31] J. Salgado,et al. HILIGT, upper limit servers I - Overview , 2021, Astron. Comput..
[32] M. Giustini,et al. Possible X-Ray Quasi-periodic Eruptions in a Tidal Disruption Event Candidate , 2021, The Astrophysical Journal Letters.
[33] B. Metzger,et al. Interacting Stellar EMRIs as Sources of Quasi-periodic Eruptions in Galactic Nuclei , 2021, The Astrophysical Journal.
[34] E. Flesch. The Million Quasars (Milliquas) v7.2 Catalogue, now with VLASS associations. The inclusion of SDSS-DR16Q quasars is detailed , 2021, 2105.12985.
[35] Z. Arzoumanian,et al. An Empirical Background Model for the NICER X-Ray Timing Instrument , 2021, The Astronomical Journal.
[36] Zaven Arzoumanian,et al. Evidence for a compact object in the aftermath of the extragalactic transient AT2018cow , 2021, Nature Astronomy.
[37] A. Merloni,et al. SRG X-ray orbital observatory. Its telescopes and first scientific results , 2021, Astronomy & Astrophysics.
[38] S. Jha,et al. The Rapid X-Ray and UV Evolution of ASASSN-14ko , 2021, The Astrophysical Journal.
[39] J. Comparat,et al. X-ray quasi-periodic eruptions from two previously quiescent galaxies , 2021, Nature.
[40] M. Zajaček,et al. Stellar Transits across a Magnetized Accretion Torus as a Mechanism for Plasmoid Ejection , 2021, 2102.08135.
[41] A. Mahabal,et al. Tidal Disruption Event Hosts Are Green and Centrally Concentrated: Signatures of a Post-merger System , 2021, The Astrophysical Journal.
[42] Z. Arzoumanian,et al. Rapid Accretion State Transitions following the Tidal Disruption Event AT2018fyk , 2021, The Astrophysical Journal.
[43] Benjamin D. Johnson,et al. Stellar Population Inference with Prospector , 2020, The Astrophysical Journal Supplement Series.
[44] A. Tchekhovskoy,et al. Magnetohydrodynamics Simulations of Active Galactic Nucleus Disks and Jets , 2020, 2101.08839.
[45] A. Mahabal,et al. TDE Hosts are Green and Centrally Concentrated: Signatures of a Post-Merger System , 2020, 2010.10738.
[46] I. Lapshov,et al. The eROSITA X-ray telescope on SRG , 2020, Astronomy & Astrophysics.
[47] J. Prieto,et al. ASASSN-14ko is a Periodic Nuclear Transient in ESO 253-G003 , 2020, The Astrophysical Journal.
[48] A. T. Gallego-Calvente,et al. The Milky Way’s nuclear star cluster: Old, metal-rich, and cuspy , 2020, Astronomy & Astrophysics.
[49] E. Bon,et al. Possible mechanism for multiple changing-look phenomena in active galactic nuclei , 2020, Astronomy & Astrophysics.
[50] K. Auchettl,et al. X-Ray Properties of TDEs , 2020 .
[51] B. Metzger,et al. Variability in Short Gamma-Ray Bursts: Gravitationally Unstable Tidal Tails , 2020, The Astrophysical Journal.
[52] O. Graur,et al. The Host Galaxies of Tidal Disruption Events , 2020, Space Science Reviews.
[53] M. Giustini,et al. X-ray quasi-periodic eruptions from the galactic nucleus of RX J1301.9+2747 , 2020, Astronomy & Astrophysics.
[54] C. Nixon,et al. The Gravitational Instability of Adiabatic Filaments , 2020, The Astrophysical Journal Supplement Series.
[55] A. King. GSN 069 – A tidal disruption near miss , 2020, 2002.00970.
[56] R. Maiolino,et al. Universal bolometric corrections for active galactic nuclei over seven luminosity decades , 2020, Astronomy & Astrophysics.
[57] A. Mahabal,et al. Seventeen Tidal Disruption Events from the First Half of ZTF Survey Observations: Entering a New Era of Population Studies , 2020, The Astrophysical Journal.
[58] J. Hameury. A review of the disc instability model for dwarf novae, soft X-ray transients and related objects , 2019, 1910.01852.
[59] K. Alexander,et al. Nine-hour X-ray quasi-periodic eruptions from a low-mass black hole galactic nucleus , 2019, Nature.
[60] C. Nixon,et al. On the Diversity of Fallback Rates from Tidal Disruption Events with Accurate Stellar Structure , 2019, The Astrophysical Journal.
[61] D. Kasen,et al. Ultra-deep tidal disruption events: prompt self-intersections and observables , 2019, Monthly Notices of the Royal Astronomical Society.
[62] K. Maguire,et al. Evidence for rapid disc formation and reprocessing in the X-ray bright tidal disruption event candidate AT 2018fyk , 2019, Monthly Notices of the Royal Astronomical Society.
[63] K. Holley-Bockelmann,et al. Where are the Intermediate Mass Black Holes , 2019, 1903.08144.
[64] S. Coughlin,et al. The Fate of Binaries in the Galactic Center: The Mundane and the Exotic , 2019, The Astrophysical Journal.
[65] Chen Zhang,et al. Einstein Probe: a lobster-eye telescope for monitoring the x-ray sky , 2018, Astronomical Telescopes + Instrumentation.
[66] E. Kara,et al. Ultrafast outflow in tidal disruption event ASASSN-14li , 2017, 1711.06090.
[67] S. Gezari,et al. Erratum: Black hole masses of tidal disruption event host galaxies II , 2017, Monthly Notices of the Royal Astronomical Society.
[68] M. Brotherton,et al. Updating quasar bolometric luminosity corrections. III. [O III] bolometric corrections , 2017, 1703.03431.
[69] J. Guillochon,et al. The fine line between total and partial tidal disruption events , 2017, 1702.07730.
[70] M. Cappellari. Improving the full spectrum fitting method: accurate convolution with Gauss-Hermite functions , 2016, 1607.08538.
[71] P. Armitage,et al. On the structure of tidally-disrupted stellar debris streams , 2016, 1603.00873.
[72] J. Kaastra,et al. Optimal binning of X-ray spectra and response matrix design , 2016, 1601.05309.
[73] A. Tchekhovskoy,et al. Electron Thermodynamics in GRMHD Simulations of Low-Luminosity Black Hole Accretion , 2015, 1509.04717.
[74] C. Nixon,et al. VARIABILITY IN TIDAL DISRUPTION EVENTS: GRAVITATIONALLY UNSTABLE STREAMS , 2015, 1506.08194.
[75] James Guillochon,et al. A DARK YEAR FOR TIDAL DISRUPTION EVENTS , 2015, 1501.05306.
[76] A. Eckart,et al. Dust-enshrouded star near supermassive black hole: predictions for high-eccentricity passages near low-luminosity galactic nuclei , 2014, 1403.5792.
[77] J. Guillochon,et al. POSSIBLE ORIGIN OF THE G2 CLOUD FROM THE TIDAL DISRUPTION OF A KNOWN GIANT STAR BY SGR A* , 2014, 1401.2990.
[78] J. P. Osborne,et al. 1SXPS: A DEEP SWIFT X-RAY TELESCOPE POINT SOURCE CATALOG WITH LIGHT CURVES AND SPECTRA , 2013, 1311.5368.
[79] C. Matzner,et al. SHOCK EMERGENCE IN SUPERNOVAE: LIMITING CASES AND ACCURATE APPROXIMATIONS , 2013, 1306.6097.
[80] L. Ho,et al. Coevolution (Or Not) of Supermassive Black Holes and Host Galaxies , 2013, 1308.6483.
[81] A. Loeb,et al. Consequences of Strong Compression in Tidal Disruption Events , 2012, 1210.3374.
[82] Daniel J. Price,et al. TEARING UP THE DISK: HOW BLACK HOLES ACCRETE , 2012, 1209.1393.
[83] Enrico Ramirez-Ruiz,et al. HYDRODYNAMICAL SIMULATIONS TO DETERMINE THE FEEDING RATE OF BLACK HOLES BY THE TIDAL DISRUPTION OF STARS: THE IMPORTANCE OF THE IMPACT PARAMETER AND STELLAR STRUCTURE , 2012, 1206.2350.
[84] E. Wright,et al. MID-INFRARED SELECTION OF ACTIVE GALACTIC NUCLEI WITH THE WIDE-FIELD INFRARED SURVEY EXPLORER. I. CHARACTERIZING WISE-SELECTED ACTIVE GALACTIC NUCLEI IN COSMOS , 2012, 1205.0811.
[85] Chris Nixon,et al. Broken discs: Warp propagation in accretion discs , 2012, 1201.1297.
[86] R. Manuputy,et al. X-shooter, the new wide band intermediate resolution spectrograph at the ESO Very Large Telescope , 2011, 1110.1944.
[87] E. L. Wright,et al. NEOWISE OBSERVATIONS OF NEAR-EARTH OBJECTS: PRELIMINARY RESULTS , 2011, 1109.6400.
[88] Douglas P. Finkbeiner,et al. MEASURING REDDENING WITH SLOAN DIGITAL SKY SURVEY STELLAR SPECTRA AND RECALIBRATING SFD , 2010, 1012.4804.
[89] Martin G. Cohen,et al. THE WIDE-FIELD INFRARED SURVEY EXPLORER (WISE): MISSION DESCRIPTION AND INITIAL ON-ORBIT PERFORMANCE , 2010, 1008.0031.
[90] K. Menou,et al. White dwarfs stripped by massive black holes: sources of coincident gravitational and electromagnetic radiation , 2010, 1005.3987.
[91] Luth,et al. Alternative diagnostic diagrams and the 'forgotten' population of weak line galaxies in the SDSS , 2009, 0912.1643.
[92] Ralf Bender,et al. THE ASTROPHYSICAL JOURNAL Preprint typeset using L ATEX style emulateapj v. 10/09/06 THE M–σ AND M–L RELATIONS IN GALACTIC BULGES, AND DETERMINATIONS OF THEIR INTRINSIC SCATTER , 2008 .
[93] J. Gunn,et al. THE ASTROPHYSICAL JOURNAL Preprint typeset using LATEX style emulateapj v. 10/09/06 THE PROPAGATION OF UNCERTAINTIES IN STELLAR POPULATION SYNTHESIS MODELING I: THE RELEVANCE OF UNCERTAIN ASPECTS OF STELLAR EVOLUTION AND THE IMF TO THE DERIVED PHYSICAL PR , 2022 .
[94] S. Mineshige,et al. Black-Hole Accretion Disks: Towards a New Paradigm , 2008 .
[95] A. M. Read,et al. The first XMM-Newton slew survey catalogue: XMMSL1 , 2008, 0801.3732.
[96] B. Kelly. Some Aspects of Measurement Error in Linear Regression of Astronomical Data , 2007, 0705.2774.
[97] Jonathan C. McKinney,et al. WHAM : a WENO-based general relativistic numerical scheme -I. Hydrodynamics , 2007, 0704.2608.
[98] E. Wright. A Cosmology Calculator for the World Wide Web , 2006, astro-ph/0609593.
[99] L. Kewley,et al. The host galaxies and classification of active galactic nuclei , 2006, astro-ph/0605681.
[100] A. Merloni,et al. On the limit-cycle instability in magnetized accretion discs , 2006, astro-ph/0603159.
[101] C. Gammie,et al. Primitive Variable Solvers for Conservative General Relativistic Magnetohydrodynamics , 2005, astro-ph/0512420.
[102] R. Barlow. Asymmetric statistical errors , 2004, physics/0406120.
[103] Eric Emsellem,et al. Parametric Recovery of Line‐of‐Sight Velocity Distributions from Absorption‐Line Spectra of Galaxies via Penalized Likelihood , 2003, astro-ph/0312201.
[104] Wm. A. Wheaton,et al. 2MASS All Sky Catalog of point sources. , 2003 .
[105] Wm. A. Wheaton,et al. VizieR Online Data Catalog: 2MASS All-Sky Catalog of Point Sources (Cutri+ 2003) , 2003 .
[106] Robert Jedicke,et al. Pan-STARRS: A Large Synoptic Survey Telescope Array , 2002, SPIE Astronomical Telescopes + Instrumentation.
[107] A. Janiuk,et al. Radiation Pressure Instability Driven Variability in the Accreting Black Holes , 2002, astro-ph/0205221.
[108] H. Epps,et al. ESI, a New Keck Observatory Echellette Spectrograph and Imager , 2002, astro-ph/0204297.
[109] L. Kewley,et al. Theoretical Modeling of Starburst Galaxies , 2001, astro-ph/0106324.
[110] P. Prugniel,et al. A database of high and medium-resolution stellar spectra ?;?? , 2001, astro-ph/0101378.
[111] A. Kinney,et al. The Dust Content and Opacity of Actively Star-forming Galaxies , 1999, astro-ph/9911459.
[112] T. Boller,et al. THE ROSAT ALL-SKY SURVEY BRIGHT SOURCE CATALOGUE , 1996, astro-ph/9909315.
[113] David Burstein,et al. Old stellar populations. 5: Absorption feature indices for the complete LICK/IDS sample of stars , 1994 .
[114] A. Beloborodov,et al. Angular momentum of a supermassive black hole in a dense star cluster , 1992 .
[115] D. Burrows,et al. Determination of Confidence Limits for Experiments with Low Numbers of Counts , 1991 .
[116] Martin J. Rees,et al. Tidal disruption of stars by black holes of 106–108 solar masses in nearby galaxies , 1988, Nature.
[117] S. Baliunas,et al. A Prescription for period analysis of unevenly sampled time series , 1986 .
[118] G. V. Bicknell,et al. On tidal detonation of stars by massive black holes , 1983 .
[119] J. Scargle. Studies in astronomical time series analysis. II - Statistical aspects of spectral analysis of unevenly spaced data , 1982 .
[120] Charles H. Townes,et al. The nature of the central parsec of the Galaxy , 1982 .
[121] Nikolai I. Shakura,et al. A Theory of the Instability of disk Accretion on to Black Holes and the Variability of Binary X-ray Sources, Galactic Nuclei and Quasars⋆ , 1976 .
[122] R. Sunyaev,et al. Reprint of 1973A&A....24..337S. Black holes in binary systems. Observational appearance. , 1973 .
[123] A. Janiuk,et al. Modified models of radiation pressure instability in application to 10 , 10 5 , and 10 7 M accreting black holes , 2022 .
[124] S. Gezari,et al. Black hole masses of tidal disruption event host galaxies , 2020 .
[125] G. Torpier,et al. Preliminary results , 2007 .
[126] K. Arnaud. XSPEC: The First Ten Years , 1996 .
[127] Peter Predehl,et al. X-raying the interstellar medium: ROSAT observations of dust scattering halos , 1995 .
[128] E. Meyer-Hofmeister,et al. On the Elusive Cause of Cataclysmic Variable Outbursts , 1981 .
[129] F P Retief,et al. [The first ten years]. , 1979, South African medical journal = Suid-Afrikaanse tydskrif vir geneeskunde.
[130] J. Bardeen,et al. The Lense-Thirring Effect and Accretion Disks around Kerr Black Holes , 1975 .
[131] Douglas M. Eardley,et al. Black Holes in Binary Systems: Instability of Disk Accretion , 1974 .
[132] M. Nauenberg,et al. ANALYTIC APPROXIMATIONS TO THE MASS--RADIUS RELATION AND ENERGY OF ZERO- TEMPERATURE STARS. , 1972 .
[133] A. Sakurai. ON THE PROBLEM OF A SHOCK WAVE ARRIVING AT THE EDGE OF A GAS , 1960 .