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- As a general rule objects discovered when they are currently farther from the Sun will have greater u <!-- The following objects are listed in descending order of their discovery distance from the Sun. -- ...9 KB (1,335 words) - 19:00, 9 February 2025
- ...], which is used to determine the impact risk associated with [[near-Earth objects]]. Just as the Torino scale takes into account how significant an object's ...2011 to include a consideration of whether contact was achieved through an interstellar message or a physical extraterrestrial artifact, including all indications ...6 KB (789 words) - 17:51, 6 November 2024
- ...osmic]] stream of [[charged particle]]s that can push [[Interstellar cloud|interstellar dust clouds]] of low density into [[intergalactic space]]. Although it easi [[Category:Interstellar media]] ...5 KB (791 words) - 05:22, 17 November 2024
- ...[[Extinction (astronomy)|interstellar absorption factor]] of 0.033 due to interstellar dust.<ref name=Ryon2009/> [[Category:Bayer objects|Geminorum, Pi]] ...8 KB (940 words) - 02:22, 23 August 2024
- ...code=2018ApJ...866...75W |issn=0004-637X}}</ref> The [[Interstellar medium|interstellar matter]] in Z 229-15 gets so hot that it releases a large amount of energy [[Category:Principal Galaxies Catalogue objects|62756]] ...5 KB (709 words) - 23:01, 9 November 2024
- ...httime, [[albedo]] describes solar reflections from other [[Solar System]] objects, including [[moonlight]], [[planetshine]], and [[zodiacal light]]. ...artially [[linearly polarized]] by scattering from elongated [[Cosmic dust|interstellar dust]] grains whose long axes tend to be oriented perpendicular to the gala ...14 KB (2,006 words) - 04:06, 17 July 2024
- ...a close approach to Jupiter. In the 43 years since its discovery only two objects with higher eccentricities have been identified, [[1I/ʻOumuamua]] (1.2) and |title=Pole, Pericenter, and Nodes of the Interstellar Minor Body A/2017 U1 ...11 KB (1,477 words) - 02:33, 9 November 2024
- ...ecause of [[Extinction (astronomy)|extinction]] from [[interstellar medium|interstellar gas and dust]].<ref name=aaa430_165/> [[Category:Bayer objects|Equulei, Zeta]] ...9 KB (1,056 words) - 13:16, 22 August 2024
- Because of its location in the galactic disk, σ Cyg is obstructed by interstellar dust and is reddened by around 0.2 magnitudes and loses about 0.6 magnitude [[Category:Bayer objects|Cygni, Sigma]] ...6 KB (790 words) - 03:45, 17 July 2024
- ...f the [[Logarithmic scale|logarithmic magnitude scale]], in which brighter objects have smaller (more negative) magnitudes than dimmer ones. For comparison, t ...than those of closer stars. The amount of reddening is characterized by [[Interstellar reddening|color excess]], defined as the difference between the '''observed ...11 KB (1,552 words) - 17:36, 12 January 2025
- ...there is currently a large amount of [[star formation]] in the galaxies. [[Interstellar dust]] can be seen between the areas of star formation. Two bright stars ca [[Category:Arp objects|274]] ...5 KB (765 words) - 18:38, 5 December 2024
- ...he nearest discrete relative concentration of sparse [[interstellar medium|interstellar matter]] instead forms a massive wave.<ref name="theguardian-sample"/><ref ...cite web|first1=Bennett|last1=McIntosh|access-date=7 January 2020|title=An Interstellar Ribbon of Clouds in the Sun's Backyard|url=https://harvardmagazine.com/2020 ...10 KB (1,415 words) - 21:58, 30 September 2024
- ...] to characterize the width of observed [[spectral lines]] of astronomical objects. It is defined as * {{cite book|first= Bruce|last= Draine|title=Physics of the Interstellar and Intergalactic Medium|publisher=Princeton University Press|year=2011|isb ...3 KB (432 words) - 03:32, 20 August 2024
- Most of the [[interstellar medium]] is not at rest, but is in supersonic motion due to [[Supernova|sup ...gravitation|self-gravity]] if it is large enough; however, in the ordinary interstellar medium this can only happen if the cloud has a mass of several thousands of ...11 KB (1,746 words) - 18:28, 6 August 2024
- ...onomy]], known as a pioneer of [[astrochemistry]] and the co-discoverer of interstellar [[trihydrogen cation]] ({{chem|H|3|+}}).<ref>{{cite journal |author1=Mitchi ...dynamics of fundamental molecular ions and their behavior in astronomical objects.<ref name="Chic"/> ...13 KB (1,633 words) - 17:25, 30 December 2024
- ...pective of Earth. The Lockman Hole is a relatively clear window on distant objects, which makes it an attractive area of the sky for observational astronomy s ...reme ultraviolet]] and [[soft x-ray]] [[radiation]] from [[extragalactic]] objects to a greater degree than other areas of the sky. ...10 KB (1,475 words) - 15:10, 23 November 2024
- ...astronomy)|extinction factor]] of 0.06<ref name=Groenewegen2012/> due to [[interstellar dust]]. [[Category:Bayer objects|Ursae Majoris, Sigma]] ...9 KB (1,080 words) - 09:49, 18 August 2024
- ...is diminished by an [[extinction (astronomy)|extinction]] of 0.1 due to [[interstellar dust]].<ref name=Famaey2005/> [[Category:Bayer objects|Corona Borealis, Mu]] ...9 KB (1,033 words) - 09:23, 23 August 2024
- ...019.tif|thumb|upright=1.5|right|[[2I/Borisov]] comet, the second confirmed interstellar object, photographed in late-2019 beside a distant galaxy]] ...''.<ref>{{cite journal|first1=Dimitri|last1=Veras|title=Creating the first interstellar interloper|journal=Nature Astronomy|date=13 April 2020|volume=4|issue=9|iss ...54 KB (7,198 words) - 07:42, 6 January 2025
- ...[extinction (astronomy)|extinction factor]] of {{Val|0.063|0.10}} due to [[interstellar dust]].<ref name=vanBelle2009/> [[Category:Bayer objects|Draconis, Pi]] ...9 KB (1,060 words) - 02:36, 23 August 2024