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공공누리This item is licensed Korea Open Government License

dc.contributor.author
LIGO Scientific Collaboration and Virgo Collaboration
dc.contributor.author
강궁원
dc.contributor.author
김정리
dc.contributor.author
김지웅
dc.contributor.author
장행진
dc.contributor.author
조희석
dc.date.accessioned
2019-08-28T07:42:01Z
dc.date.available
2019-08-28T07:42:01Z
dc.date.issued
2016-10-04
dc.identifier.issn
1521-3889
dc.identifier.uri
https://repository.kisti.re.kr/handle/10580/14603
dc.identifier.uri
http://www.ndsl.kr/ndsl/search/detail/article/articleSearchResultDetail.do?cn=NART77191340
dc.description.abstract
The first direct gravitational-wave detection was made bythe Advanced Laser Interferometer Gravitational Wave Observatoryon September 14, 2015. The GW150914 signal wasstrong enough to be apparent, without using any waveformmodel, in the filtered detector strain data. Here, featuresof the signal visible in the data are analyzed usingconcepts from Newtonian physics and general relativity, accessibleto anyone with a general physics background. Thesimple analysis presented here is consistent with the fullygeneral-relativistic analyses published elsewhere, in showingthat the signal was produced by the inspiral and subsequentmerger of two black holes. The black holes were eachof approximately 35Msun, still orbited each other as close as∼350 km apart and subsequently merged to form a singleblack hole. Similar reasoning, directly from the data, is usedto roughly estimate how far these black holes were fromthe Earth, and the energy that they radiated in gravitationalwaves.
dc.language
eng
dc.relation.ispartofseries
Annalen der Physik
dc.title
The basic physics of the binary black hole merger GW150914
dc.citation.endPage
17
dc.citation.startPage
1
dc.citation.volume
1
dc.subject.keyword
GW150914
dc.subject.keyword
Basic physics
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7. KISTI 연구성과 > 학술지 발표논문
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