QSO J1436+5007 , the SIMBAD biblio

QSO J1436+5007 , the SIMBAD biblio (33 results) C.D.S. - SIMBAD4 rel 1.8 - 2026.10.18CEST08:46:10

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Bibcode/DOI Score in Title|Abstract|
Keywords 		in a table in teXt, Caption, ... Nb occurence Nb objects in ref Citations
(from ADS) 		Title First 3 Authors
2006A&A...455..773V viz 108223 628 A catalogue of quasars and active nuclei: 12th edition. VERON-CETTY M.-P. and VERON P.
2006AJ....131.1203F 17 7 367 A survey of z>5.7 quasars in the Sloan Digital Sky Survey. IV. Discovery of seven additional quasars. FAN X., STRAUSS M.A., RICHARDS G.T., et al.
2006AJ....132..117F 20 19 1180 Constraining the evolution of the ionizing background and the epoch of reionization with z∼6 quasars. II. A sample of 19 quasars. FAN X., STRAUSS M.A., BECKER R.H., et al.
2006ARA&A..44..415F 83             C       1 23 675 Observational constraints on cosmic reionization. FAN X., CARILLI C.L. and KEATING B.
2006MmSAI..77..635F 18 4 Evolution of high-redshift quasars. FAN X.
2006NewAR..50..665F 2 19 128 Evolution of high-redshift quasars. FAN X.-H.
2007AJ....134..617W 1 19 70 Millimeter and radio observations of z ∼ 6 quasars. WANG R., CARILLI C.L., BEELEN A., et al.
2008MNRAS.386..359G 40           X         1 7 50 Glimpsing through the high-redshift neutral hydrogen fog. GALLERANI S., FERRARA A., FAN X., et al.
2008ApJ...687..848W 17       D               1 35 143 Thermal emission from warm dust in the most distant quasars. WANG R., CARILLI C.L., WAGG J., et al.
2009MNRAS.395.1925M 165       D     X   F     4 15 17 Interpreting the transmission windows of distant quasars. MASELLI A., FERRARA A. and GALLERANI S.
2010ApJ...714..834C 16       D               1 27 74 Ionization near zones associated with quasars at z ∼ 6. CARILLI C.L., WANG R., FAN X., et al.
2010A&A...518A..10V viz 15       D               1 168913 597 A catalogue of quasars and active nuclei: 13th edition. VERON-CETTY M.-P. and VERON P.
2013MNRAS.428..226P viz 15       D               1 23 10 Finding new high-redshift quasars by asking the neighbours. POLSTERER K.L., ZINN P.-C. and GIESEKE F.
2014MNRAS.438.2765C 15       D               1 60 42 The dust content of QSO hosts at high redshift. CALURA F., GILLI R., VIGNALI C., et al.
2014ApJ...785..154L 93       D       C       6 69 108 Spectral energy distributions of QSOs at z > 5: common active galactic nucleus-heated dust and occasionally strong star-formation. LEIPSKI C., MEISENHEIMER K., WALTER F., et al.
2014AJ....148...14B 16       D               2 44 128 Discovery of eight z ∼ 6 quasars from Pan-STARRS1. BANADOS E., VENEMANS B.P., MORGANSON E., et al.
2015ApJ...804..118B 16       D               1 56 88 Constraining the radio-loud fraction of quasars at z > 5.5. BANADOS E., VENEMANS B.P., MORGANSON E., et al.
2016ApJ...816...85L 16       D               1 136 22 The contribution of host galaxies to the infrared energy output of z≳5.0 quasars. LYU J., RIEKE G.H. and ALBERTS S.
2016ApJ...819...24W viz 16       D               1 796 79 A survey of luminous high-redshift quasars with SDSS and WISE. I. Target selection and optical spectroscopy. WANG F., WU X.-B., FAN X., et al.
2016ARA&A..54..313M 83             C       1 25 230 The evolution of the intergalactic medium. McQUINN M.
2016ApJS..227...11B viz 16       D               1 173 283 The Pan-STARRS1 distant z > 5.6 quasar survey: more than 100 quasars within the first Gyr of the Universe. BANADOS E., VENEMANS B.P., DECARLI R., et al.
2016ApJ...833..222J 57       D     X         2 52 233 The final SDSS high-redshift quasar sample of 52 quasars at z>5.7. JIANG L., McGREER I.D., FAN X., et al.
2018ApJ...864...53E 42           X         1 49 104 The opacity of the intergalactic medium measured along quasar sightlines at z ∼ 6. EILERS A.-C., DAVIES F.B. and HENNAWI J.F.
2018MNRAS.479.1055B 98       D         F     2 60 137 New constraints on Lyman-α opacity with a sample of 62 quasars at z > 5.7. BOSMAN S.E.I., FAN X., JIANG L., et al.
2018ApJ...866..159V 16       D               1 98 72 Dust emission in an accretion-rate-limited sample of z >= 6 quasars. VENEMANS B.P., DECARLI R., WALTER F., et al.
2019ApJ...873...35S viz 18       D               1 50 118 Gemini GNIRS near-infrared spectroscopy of 50 quasars at z >= 5.7. SHEN Y., WU J., JIANG L., et al.
2019MNRAS.490.2542P viz 16       D               1 2245 ~ Unveiling the weak radio quasar population at z≥4. PERGER K., FREY S., GABANYI K.E., et al.
2020MNRAS.494..789R viz 16       D               1 489 25 The near and mid-infrared photometric properties of known redshift z >= 5 quasars. ROSS N.P. and CROSS N.J.G.
2021A&A...656A.137G viz 17       D               1 493 12 Low frequency radio properties of the z > 5 quasar population. GLOUDEMANS A.J., DUNCAN K.J., ROTTGERING H.J.A., et al.
2022ApJ...925..121W 17       D               2 34 13 Metallicity in Quasar Broad-line Regions at Redshift ∼ 6. WANG S., JIANG L., SHEN Y., et al.
2023ApJ...943...67S viz 17       D               1 130 7 The Pan-STARRS1 z > 5.6 Quasar Survey. III. The z ≈ 6 Quasar Luminosity Function. SCHINDLER J.-T., BANADOS E., CONNOR T., et al.
2023ApJ...944..159F 17       D               1 168 2 In Situ Star Formation in Accretion Disks and Explanation of Correlation between the Black Hole Mass and Metallicity in Active Galactic Nuclei. FAN X. and WU Q.
2025MNRAS.536.3177A 47           X         1 93 ~ Deciphering the origins and growth of supermassive black holes. AGGARWAL Y.

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