Accretion disks, quasars and cosmology:meandering towards understanding.
Author:
Czerny Bozena1, Cao Shulei2, Jaiswal Vikram Kumar1, Karas Vladimír3, Khadka Narayan4, Martínez-Aldama Mary Loli5, Naddaf Mohammad Hassan1, Panda Swayamtrupta6, Nuñez Francisco Pozo7, Prince Raj1, Ratra Bharat2, Sniegowska Marzena8, Yu Zhefu9, Zajaček Michal10
Affiliation:
1. Center for Theoretical Physics, Polish Academy of Sciences 2. Department of Physics, Kansas State University, 3. Astronomical Institute, Czech Academy of Sciences, 4. Department of Physics, Bellarmine University, 5. Departamento de Astronomía, Universidad de Chile, 6. Laboratório Nacional de Astrofísica, MCTIC, 7. Astroinformatics, Heidelberg Institute for Theoretical Studies, 8. Copernicus Astronomical Center, Polish Academy of Sciences, 9. Department of Astronomy, Ohio State University, 10. Department of Theoretical Physics and Astrophysics, Faculty of Science, Masaryk University,
Abstract
AbstractAs Setti & Woltjer noted back in 1973, quasars could be used to construct the Hubble diagram but the actualapplication was not that straightforward. It took years to implement the idea successfully. Most of the ways to use quasars for cosmology now require an advanced understanding of their structure, step by step. We briefly review this progress, with unavoidable personal bias, and concentrate on bright unobscured sources. We will mention the problem of the gas flow character close to the innermost stable circular orbit close to the black hole, discussed 50 years ago, which later led to the development of the slim disk scenario, but was recently revived in the context of Magnetically Arrested Disks (MAD) and Standard and Normal Evolution (SANE) disk models. We also discuss the hot/warm corona issue, which is still under discussion and complicates the analysis of the X-ray reflection. We present the scenario of the formation of the low ionization part of the Broad Line Region as a mostly failed wind powered by radiation pressure acting on dust (FRADO - Failed Radiatively Driven Dusty Outflow model). Next, we discuss the cosmological constraints that are currently achievable with quasars, mostly concentrating on light echo methods (continuum time delays and spectral line time delays with respect to the continuum) which are (or should be) incorporating the progress mentioned above. Finally, we briefly mention future prospects in this direction.
Publisher
Research Square Platform LLC
Reference139 articles.
1. {Abdalla}, Elcio and {Abell{\'a}n}, Guillermo Franco and {Aboubrahim}, Amin and {Agnello}, Adriano and {Akarsu}, {\"O}zg{\"u}r and {Akrami}, Yashar and {Alestas}, George and {Aloni}, Daniel and {Amendola}, Luca and {Anchordoqui}, Luis A. and {Anderson}, Richard I. and {Arendse}, Nikki and {Asgari}, Marika and {Ballardini}, Mario and {Barger}, Vernon and {Basilakos}, Spyros and {Batista}, Ronaldo C. and {Battistelli}, Elia S. and {Battye}, Richard and {Benetti}, Micol and {Benisty}, David and {Berlin}, Asher and {de Bernardis}, Paolo and {Berti}, Emanuele and {Bidenko}, Bohdan and {Birrer}, Simon and {Blakeslee}, John P. and {Boddy}, Kimberly K. and {Bom}, Clecio R. and {Bonilla}, Alexander and {Borghi}, Nicola and {Bouchet}, Fran{\c{c}}ois R. and {Braglia}, Matteo and {Buchert}, Thomas and {Buckley-Geer}, Elizabeth and {Calabrese}, Erminia and {Caldwell}, Robert R. and {Camarena}, David and {Capozziello}, Salvatore and {Casertano}, Stefano and {Chen}, Geoff C. -F. and {Chluba}, Jens and {Chen}, Angela and {Chen}, Hsin-Yu and {Chudaykin}, Anton and {Cicoli}, Michele and {Copi}, Craig J. and {Courbin}, Fred and {Cyr-Racine}, Francis-Yan and {Czerny}, Bo{\.z}ena and {Dainotti}, Maria and {D'Amico}, Guido and {Davis}, Anne-Christine and {de Cruz P{\'e}rez}, Javier and {de Haro}, Jaume and {Delabrouille}, Jacques and {Denton}, Peter B. and {Dhawan}, Suhail and {Dienes}, Keith R. and {Di Valentino}, Eleonora and {Du}, Pu and {Eckert}, Dominique and {Escamilla-Rivera}, Celia and {Fert{\'e}}, Agn{\`e}s and {Finelli}, Fabio and {Fosalba}, Pablo and {Freedman}, Wendy L. and {Frusciante}, Noemi and {Gazta{\ n}aga}, Enrique and {Giar{\`e}}, William and {Giusarma}, Elena and {G{\'o}mez-Valent}, Adri{\`a} and {Handley}, Will and {Harrison}, Ian and {Hart}, Luke and {Hazra}, Dhiraj Kumar and {Heavens}, Alan and {Heinesen}, Asta and {Hildebrandt}, Hendrik and {Hill}, J. Colin and {Hogg}, Natalie B. and {Holz}, Daniel E. and {Hooper}, Deanna C. and {Hosseininejad}, Nikoo and {Huterer}, Dragan and {Ishak}, Mustapha and {Ivanov}, Mikhail M. and {Jaffe}, Andrew H. and {Jang}, In Sung and {Jedamzik}, Karsten and {Jimenez}, Raul and {Joseph}, Melissa and {Joudaki}, Shahab and {Kamionkowski}, Marc and {Karwal}, Tanvi and {Kazantzidis}, Lavrentios and {Keeley}, Ryan E. and {Klasen}, Michael and {Komatsu}, Eiichiro and {Koopmans}, L{\'e}on V. E. and {Kumar}, Suresh and {Lamagna}, Luca and {Lazkoz}, Ruth and {Lee}, Chung-Chi and {Lesgourgues}, Julien and {Levi Said}, Jackson and {Lewis}, Tiffany R. and {L'Huillier}, Benjamin and {Lucca}, Matteo and {Maartens}, Roy and {Macri}, Lucas M. and {Marfatia}, Danny and {Marra}, Valerio and {Martins}, Carlos J. A. P. and {Masi}, Silvia and {Matarrese}, Sabino and {Mazumdar}, Arindam and {Melchiorri}, Alessandro and {Mena}, Olga and {Mersini-Houghton}, Laura and {Mertens}, James and {Milakovi{\'c}}, Dinko and {Minami}, Yuto and {Miranda}, Vivian and {Moreno-Pulido}, Cristian and {Moresco}, Michele and {Mota}, David F. and {Mottola}, Emil and {Mozzon}, Simone and {Muir}, Jessica and {Mukherjee}, Ankan and {Mukherjee}, Suvodip and {Naselsky}, Pavel and {Nath}, Pran and {Nesseris}, Savvas and {Niedermann}, Florian and {Notari}, Alessio and {Nunes}, Rafael C. and {{\'O} Colg{\'a}in}, Eoin and {Owens}, Kayla A. and {{\"O}z{\"u}lker}, Emre and {Pace}, Francesco and {Paliathanasis}, Andronikos and {Palmese}, Antonella and {Pan}, Supriya and {Paoletti}, Daniela and {Perez Bergliaffa}, Santiago E. and {Perivolaropoulos}, Leandros and {Pesce}, Dominic W. and {Pettorino}, Valeria and {Philcox}, Oliver H. E. and {Pogosian}, Levon and {Poulin}, Vivian and {Poulot}, Gaspard and {Raveri}, Marco and {Reid}, Mark J. and {Renzi}, Fabrizio and {Riess}, Adam G. and {Sabla}, Vivian I. and {Salucci}, Paolo and {Salzano}, Vincenzo and {Saridakis}, Emmanuel N. and {Sathyaprakash}, Bangalore S. and {Schmaltz}, Martin and {Sch{\"o}neberg}, Nils and {Scolnic}, Dan and {Sen}, Anjan A. and {Sehgal}, Neelima and {Shafieloo}, Arman and {Sheikh-Jabbari}, M. M. and {Silk}, Joseph and {Silvestri}, Alessandra and {Skara}, Foteini and {Sloth}, Martin S. and {Soares-Santos}, Marcelle and {Sol{\`a} Peracaula}, Joan and {Songsheng}, Yu-Yang and {Soriano}, Jorge F. and {Staicova}, Denitsa and {Starkman}, Glenn D. and {Szapudi}, Istv{\'a}n and {Teixeira}, Elsa M. and {Thomas}, Brooks and {Treu}, Tommaso and {Trott}, Emery and {van de Bruck}, Carsten and {Vazquez}, J. Alberto and {Verde}, Licia and {Visinelli}, Luca and {Wang}, Deng and {Wang}, Jian-Min and {Wang}, Shao-Jiang and {Watkins}, Richard and {Watson}, Scott and {Webb}, John K. and {Weiner}, Neal and {Weltman}, Amanda and {Witte}, Samuel J. and {Wojtak}, Rados{\l}aw and {Yadav}, Anil Kumar and {Yang}, Weiqiang and {Zhao}, Gong-Bo and {Zumalac{\'a}rregui}, Miguel (2022) {Cosmology intertwined: A review of the particle physics, astrophysics, and cosmology associated with the cosmological tensions and anomalies}. Journal of High Energy Astrophysics 34: 49-211 https://doi.org/10.1016/j.jheap.2022.04.002, Provided by the SAO/NASA Astrophysics Data System, https://ui.adsabs.harvard.edu/abs/2022JHEAp..34...49A, astro-ph.CO, 2203.06142, arXiv, June, Astrophysics - Cosmology and Nongalactic Astrophysics, High Energy Physics - Phenomenology 2. {Janiuk}, A. (2020) {GLADIS: GLobal Accretion Disk Instability Simulation}. Provided by the SAO/NASA Astrophysics Data System, https://ui.adsabs.harvard.edu/abs/2020mbhe.confE..48J, astro-ph.HE, 1911.05357, arXiv, 48, 48, December, Multifrequency Behaviour of High Energy Cosmic Sources - XIII. 3-8 June 2019. Palermo, Astrophysics - High Energy Astrophysical Phenomena 3. {Pringle}, J. E. and {Rees}, M. J. and {Pacholczyk}, A. G. (1973) {Accretion onto Massive Black Holes}. Astronomy & Astrophysics 29: 179 Provided by the SAO/NASA Astrophysics Data System, https://ui.adsabs.harvard.edu/abs/1973A &A....29..179P, December 4. {Narayan}, Ramesh and {Igumenshchev}, Igor V. and {Abramowicz}, Marek A. (2003) {Magnetically Arrested Disk: an Energetically Efficient Accretion Flow}. \pasj 55: L69-L72 https://doi.org/10.1093/pasj/55.6.L69, Provided by the SAO/NASA Astrophysics Data System, https://ui.adsabs.harvard.edu/abs/2003PASJ...55L..69N, astro-ph, astro-ph/0305029, arXiv, December, accretion, accretion disks, black hole physics, galaxies: active, galaxies: nuclei, galaxies: quasars: general, magnetic fields, magnetohydrodynamics: MHD, Astrophysics, General Relativity and Quantum Cosmology 5. {Goodrich}, Robert W. (1989) {Spectropolarimetry and Variability of Seyfert 1.8 and 1.9 Galaxies}. \apj 340: 190 https://doi.org/10.1086/167384, Provided by the SAO/NASA Astrophysics Data System, https://ui.adsabs.harvard.edu/abs/1989ApJ...340..190G, May, Active Galactic Nuclei, Astronomical Spectroscopy, Polarimetry, Seyfert Galaxies, Forbidden Transitions, H Alpha Line, H Beta Line, Infrared Astronomy Satellite, Interstellar Extinction, Optical Thickness, Astrophysics, GALAXIES: SEYFERT, POLARIZATION
|
|