Квазар (Bulgarian Wikipedia)

Analysis of information sources in references of the Wikipedia article "Квазар" in Bulgarian language version.

refsWebsite

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20doi.org

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5nature.com

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5web.archive.org

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4caltech.edu

887^th place

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3eso.org

3,034^th place

909^th place

3hubblesite.org

6,632^nd place

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2books.google.com

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2archive.org

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2google.com.au

2,205^th place

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2ua.edu

6,019^th place

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2nasa.gov

75^th place

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1space.com

936^th place

642^nd place

1aquaphoenix.com

low place

1esa.int

1,482^nd place

963^rd place

1dtic.mil

833^rd place

3,609^th place

1man.ac.uk

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3,144^th place

1galaxydynamics.org

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1harvard.edu

18^th place

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1kb.dk

9,948^th place

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1spacetelescope.org

8,860^th place

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aquaphoenix.com

neutrino.aquaphoenix.com

7. HIGH-ENERGY ASTROPHYSICS ELECTROMAGNETIC RADIATION // Neutrino.aquaphoenix.com. Архивиран от оригинала на 2011-07-07. Посетен на 1 юли 2011.

archive.org

Schmidt Maarten. 3C 273: a star-like object with large red-shift // Nature 197 (4872). 1963. DOI:10.1038/1971040a0. с. 1040.
Limin Lu. The Metal Contents of Very Low Column Density Lyman-alpha Clouds: Implications for the Origin of Heavy Elements in the Intergalactic Medium. 1998.

books.google.com

Physics: Imagination and Reality. 1991. ISBN 9789971509293.
Lambourne, Robert J. A. Relativity, Gravitation and Cosmology. Illustrated. Cambridge University Press, 2010. ISBN 978-0521131384. с. 222.

caltech.edu

ned.ipac.caltech.edu

Shields, Gregory A. A BRIEF HISTORY OF AGN // The Publications of the Astronomical Society of the Pacific 111 (760). 1999. DOI:10.1086/316378. с. 661 – 678. Посетен на 3 октомври 2014.
A Brief History of AGN – G. Shields
ned.ipac.caltech.edu
ned.ipac.caltech.edu, Martin Rees: Black hole models for active galactic nuclei, 1984.

doi.org

dx.doi.org

Wu, Xue-Bing. An ultraluminous quasar with a twelve-billion-solar-mass black hole at redshift 6.30 // Nature 518 (7540). 2015. DOI:10.1038/nature14241. с. 512 – 5. Посетен на 5 март 2017.
Bahcall, J. N. Hubble Space Telescope Images of a Sample of 20 Nearby Luminous Quasars // The Astrophysical Journal 479 (2). 1997. DOI:10.1086/303926. с. 642 – 658.
Schmidt, Maarten и др. Spectroscopic CCD Surveys for Quasars at Large Redshift.IV.Evolution of the Luminosity Function from Quasars Detected by Their Lyman-Alpha Emission // The Astronomical Journal 110. 1995. DOI:10.1086/117497. с. 68.
Bañados, Eduardo et al. An 800-million-solar-mass black hole in a significantly neutral Universe at a redshift of 7.5 // Nature 553 (7689). 6 март 2018. DOI:10.1038/nature25180. с. 473 – 476. Посетен на 6 декември 2017.
Shields, Gregory A. A BRIEF HISTORY OF AGN // The Publications of the Astronomical Society of the Pacific 111 (760). 1999. DOI:10.1086/316378. с. 661 – 678. Посетен на 3 октомври 2014.
Matthews, Thomas A. Optical Identification of 3c 48, 3c 196, and 3c 286 with Stellar Objects // Astrophysical Journal 138. 1963. DOI:10.1086/147615. с. 30 – 56. Архивиран от оригинала на 2017-09-26.
Schmidt Maarten. 3C 273: a star-like object with large red-shift // Nature 197 (4872). 1963. DOI:10.1038/1971040a0. с. 1040.
Maarten Schmidt. 3C 273: a star-like object with large red-shift // Nature 197 (4872). 1963. DOI:10.1038/1971040a0. с. 1040.
Shields, G. A. A Brief History of Active Galactic Nuclei // Publications of the Astronomical Society of the Pacific 111 (760). 1999. DOI:10.1086/316378. с. 661.
S. Chandrasekhar. The Dynamic Instability of Gaseous Masses Approaching the Schwarzschild Limit in General Relativity // Astrophysical Journal 140 (2). 1964. DOI:10.1086/147938. с. 417 – 433.
J. Greenstein. The Quasi-Stellar Radio Sources 3C 48 and 3C // Astrophysical Journal 140 (1). 1964. DOI:10.1086/147889. с. 1 – 34.
Thomsen, D. E. End of the World: You Won't Feel a Thing // Science News 131 (25). Jun 20, 1987. DOI:10.2307/3971408. с. 391.
de Swart, J. G. и др. How dark matter came to matter // Nature Astronomy 1 (59). 2017. DOI:10.1038/s41550-017-0059. с. 0059.
Tiziana Di Matteo, et al. Energy input from quasars regulates the growth and activity of black holes and their host galaxies // Nature 433 (7026). 10 февруари 2005. DOI:10.1038/nature03335. с. 604 – 607.
Greenstein, Jesse L. и др. The Quasi-Stellar Radio Sources 3C 48 and 3C 273 // The Astrophysical Journal 140. 1964. DOI:10.1086/147889. с. 1.
Nickolay Gnedin. Reionization of the Universe and the Early Production of Metals // Astrophysical Journal 486 (2). 1997. DOI:10.1086/304548. с. 581 – 598.
R.J.Bouwens. Lower-luminosity Galaxies Could Reionize the Universe: Very Steep Faint-end Slopes to the UV Luminosity Functions at z >= 5 – 8 from the HUDF09 WFC3/IR Observations // The Astrophysical Journal Letters 752 (1). 2012. DOI:10.1088/2041-8205/752/1/L5. с. L5.
Piero Madau. Radiative Transfer in a Clumpy Universe. III. The Nature of Cosmological Ionizing Source // The Astrophysical Journal 514 (2). 1999. DOI:10.1086/306975. с. 648 – 659.
Paul Shapiro. Cosmological H II regions and the photoionization of the intergalactic medium // The Astrophysical Journal 321. 1987. DOI:10.1086/185015. с. 107 – 112.
Xiaohu Fan. A Survey of z>5.8 Quasars in the Sloan Digital Sky Survey. I. Discovery of Three New Quasars and the Spatial Density of Luminous Quasars at z~6 // The Astronomical Journal 122 (6). 2001. DOI:10.1086/324111. с. 2833 – 2849.

dtic.mil

Matthews, Thomas A. Optical Identification of 3c 48, 3c 196, and 3c 286 with Stellar Objects // Astrophysical Journal 138. 1963. DOI:10.1086/147615. с. 30 – 56. Архивиран от оригинала на 2017-09-26.

esa.int

Our Activities // European Space Agency. Посетен на 3 октомври 2014.

eso.org

Most Distant Quasar Found // ESO Science Release. Посетен на 4 юли 2011.
MUSE spies accreting giant structure around a quasar // www.eso.org. Посетен на 20 ноември 2017.
Bright halos around distant quasars // www.eso.org. Посетен на 26 октомври 2016.

galaxydynamics.org

Galaxy für Dehnungsstreifen // Архивиран от оригинала на 2008-12-17. Посетен на 30 декември 2009.

google.com.au

books.google.com.au

Lynch, Kendall Haven; illustrated by Jason. That's weird! : awesome science mysteries. Golden, Colo., Fulcrum Resources, 2001. ISBN 9781555919993. с. 39 – 41.
Santilli, Ruggero Maria. Isodual theory of antimatter : with applications to antigravity, grand unification and cosmology. Dordrecht, Springer, 2006. ISBN 978-1-4020-4517-2. с. 304.

harvard.edu

cfa.harvard.edu

Archived copy // Архивиран от оригинала на 2010-02-02. Посетен на 1 юли 2011.

hubblesite.org

Hubble Surveys the „Homes“ of Quasars // HubbleSite, 19 ноември 1996. Посетен на 1 юли 2011.
Hubble Surveys the „Homes“ of Quasars Hubblesite News Archive, 1996 – 35
Hubble Uncovers a Hidden Quasar in a Nearby Galaxy (Cygnus A) // HubbleSite, 21 септември 1994. Посетен на 1 юли 2011.

kb.dk

adsabs.harvard.edu.ep.fjernadgang.kb.dk

Peter J. Barthel, Is every Quasar beamed?, The Astrophysical Journal, 336:606 – 611, 1989 // Adsabs.harvard.edu. Посетен на 1 юли 2011.

man.ac.uk

jb.man.ac.uk

The MKI and the discovery of Quasars // Jodrell Bank Observatory. Посетен на 23 ноември 2006.

nasa.gov

jpl.nasa.gov

Found: Most Distant Black Hole // NASA. 6 декември 2017. Посетен на 6 декември 2017.

science.nasa.gov

Dooling D. BATSE finds most distant quasar yet seen in soft gamma rays Discovery will provide insight on formation of galaxies // Архивиран от оригинала на 2009-07-23. Посетен на 2019-02-08.

nature.com

Wu, Xue-Bing. An ultraluminous quasar with a twelve-billion-solar-mass black hole at redshift 6.30 // Nature 518 (7540). 2015. DOI:10.1038/nature14241. с. 512 – 5. Посетен на 5 март 2017.
Bañados, Eduardo et al. An 800-million-solar-mass black hole in a significantly neutral Universe at a redshift of 7.5 // Nature 553 (7689). 6 март 2018. DOI:10.1038/nature25180. с. 473 – 476. Посетен на 6 декември 2017.
nature.com
de Swart, J. G. и др. How dark matter came to matter // Nature Astronomy 1 (59). 2017. DOI:10.1038/s41550-017-0059. с. 0059.
Tiziana Di Matteo, et al. Energy input from quasars regulates the growth and activity of black holes and their host galaxies // Nature 433 (7026). 10 февруари 2005. DOI:10.1038/nature03335. с. 604 – 607.

space.com

Choi, Charles Q. Oldest Monster Black Hole Ever Found Is 800 Million Times More Massive Than the Sun // Space.com. 6 декември 2017. Посетен на 6 декември 2017.

spacetelescope.org

Gravitationally lensed quasar HE 1104 – 1805 // ESA/Hubble Press Release. Посетен на 4 ноември 2011.

ua.edu

astr.ua.edu

Keel, William C. Alternate Approaches and the Redshift Controversy // The University of Alabama, октомври 2009. Посетен на 27 септември 2010.
Active Galaxies and Quasars – Double Quasar 0957+561 // Astr.ua.edu. Посетен на 1 юли 2011.

web.archive.org

7. HIGH-ENERGY ASTROPHYSICS ELECTROMAGNETIC RADIATION // Neutrino.aquaphoenix.com. Архивиран от оригинала на 2011-07-07. Посетен на 1 юли 2011.
Matthews, Thomas A. Optical Identification of 3c 48, 3c 196, and 3c 286 with Stellar Objects // Astrophysical Journal 138. 1963. DOI:10.1086/147615. с. 30 – 56. Архивиран от оригинала на 2017-09-26.
Galaxy für Dehnungsstreifen // Архивиран от оригинала на 2008-12-17. Посетен на 30 декември 2009.
Archived copy // Архивиран от оригинала на 2010-02-02. Посетен на 1 юли 2011.
Dooling D. BATSE finds most distant quasar yet seen in soft gamma rays Discovery will provide insight on formation of galaxies // Архивиран от оригинала на 2009-07-23. Посетен на 2019-02-08.