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Kepler-102

Kepler-102 is a star 353 light-years (108 parsecs) away in the constellation of Lyra. Kepler-102 is less luminous than the Sun.[5] The star system does not contain any observable amount of dust.[6] Kepler-102 is suspected to be orbited by a binary consisting of two red dwarf stars, at projected separations of 591 and 627 AU.[7]

Kepler-102
Observation data
Epoch J2000      Equinox J2000
Constellation Lyra
Right ascension 18h 45m 55.85599s[1]
Declination +47° 12′ 28.8453″[1]
Apparent magnitude (V) 12.07[2]
Characteristics
Spectral type K3V[2]
Astrometry
Radial velocity (Rv)−28.51±0.37[1] km/s
Proper motion (μ) RA: −41.044 mas/yr[1]
Dec.: −43.267 mas/yr[1]
Parallax (π)9.2517 ± 0.0102 mas[1]
Distance352.5 ± 0.4 ly
(108.1 ± 0.1 pc)
Details
Mass0.803±0.021[3] M
Radius0.724±0.018[3] R
Temperature4909±98[3] K
Metallicity [Fe/H]0.11±0.04[3] dex
Rotation26.572±0.153 d[4]
Age1.1+3.6
−0.5
[3] Gyr
Other designations
Gaia DR2 2119583201145735808, KOI-82, KIC 10187017, TYC 3544-1383-1, 2MASS J18455585+4712289
Database references
SIMBADdata

Planetary system edit

In January 2014, a system of five planets around the star was announced, three of them being smaller than Earth. While 3 of the transit signals were discovered during the first year of the Kepler mission, their small size made them hard to confirm as possibilities of these being false positives were needed to be removed. Later, two other signals were detected. Follow-up radial velocity data helped to determine the mass of the two largest planets (Kepler-102d and Kepler-102e).[8]

By 2017, the search for additional planets utilizing the transit-timing variation method had yielded zero results,[9] although the presence of planets with semimajor axis beyond 10 AU cannot be excluded.[10]

The Kepler-102 planetary system[3]
Companion
(in order from star)
Mass Semimajor axis
(AU)
Orbital period
(days)
Eccentricity Inclination Radius
b <1.1 M🜨 0.05521±0.00049 5.286965(12) <0.100 89.78±0.22° 0.460±0.026 R🜨
c <1.7 M🜨 0.06702±0.00059 7.071392(22) <0.094 89.82±0.15° 0.567±0.028 R🜨
d 3.0±1.3 M🜨 0.08618±0.00076 10.3117670(41) <0.092 89.49±0.11° 1.154±0.058 R🜨
e 4.7±1.8 M🜨 0.1162±0.0010 16.1456994(22) <0.089 89.488±0.051° 2.17±0.11 R🜨
f <4.3 M🜨 0.1656±0.0015 27.453592(60) <0.10 89.320±0.037° 0.861±0.022 R🜨

See also edit

References edit

  1. ^ a b c d e Vallenari, A.; et al. (Gaia collaboration) (2023). "Gaia Data Release 3. Summary of the content and survey properties". Astronomy and Astrophysics. 674: A1. arXiv:2208.00211. Bibcode:2023A&A...674A...1G. doi:10.1051/0004-6361/202243940. S2CID 244398875. Gaia DR3 record for this source at VizieR.
  2. ^ a b "KOI-82". SIMBAD. Centre de données astronomiques de Strasbourg. Retrieved 29 January 2018.
  3. ^ a b c d e f Bonomo, A. S.; Dumusque, X.; et al. (April 2023). "Cold Jupiters and improved masses in 38 Kepler and K2 small-planet systems from 3661 high-precision HARPS-N radial velocities. No excess of cold Jupiters in small-planet systems". Astronomy & Astrophysics. arXiv:2304.05773. doi:10.1051/0004-6361/202346211. S2CID 258078829.
  4. ^ McQuillan, A.; Mazeh, T.; Aigrain, S. (2013). "Stellar Rotation Periods of The Kepler objects of Interest: A Dearth of Close-In Planets Around Fast Rotators". The Astrophysical Journal Letters. 775 (1). L11. arXiv:1308.1845. Bibcode:2013ApJ...775L..11M. doi:10.1088/2041-8205/775/1/L11. S2CID 118557681.
  5. ^ "Kepler-102". NASA Exoplanet Archive. Retrieved 21 April 2023.
  6. ^ Dusty phenomena in the vicinity of giant exoplanets
  7. ^ Kraus, Adam L.; Ireland, Michael J.; Huber, Daniel; Mann, Andrew W.; Dupuy, Trent J. (2016), "The Impact of Stellar Multiplicity on Planetary Systems. I. The Ruinous Influence of Close Binary Companions", The Astronomical Journal, 152 (1): 8, arXiv:1604.05744, Bibcode:2016AJ....152....8K, doi:10.3847/0004-6256/152/1/8, S2CID 119110229
  8. ^ Masses, radii, and orbits of small Kepler planets: the transition from gaseous to rocky planets accessdate=8 January 2014
  9. ^ Schmitt, Joseph R.; Jenkins, Jon M.; Fischer, Debra A. (2017), "A SEARCH FOR LOST PLANETS IN THE KEPLER MULTI-PLANET SYSTEMS AND THE DISCOVERY OF THE LONG-PERIOD, NEPTUNE-SIZED EXOPLANET KEPLER-150 f", The Astronomical Journal, 153 (4): 180, arXiv:1703.09229, Bibcode:2017AJ....153..180S, doi:10.3847/1538-3881/aa62ad, PMC 5783551, PMID 29375142
  10. ^ Becker, Juliette C.; Adams, Fred C. (2017), "Effects of Unseen Additional Planetary Perturbers on Compact Extrasolar Planetary Systems", Monthly Notices of the Royal Astronomical Society, 468 (1): 549–563, arXiv:1702.07714, Bibcode:2017MNRAS.468..549B, doi:10.1093/mnras/stx461, S2CID 119325005

kepler, star, light, years, parsecs, away, constellation, lyra, less, luminous, than, star, system, does, contain, observable, amount, dust, suspected, orbited, binary, consisting, dwarf, stars, projected, separations, observation, dataepoch, j2000, equinox, j. Kepler 102 is a star 353 light years 108 parsecs away in the constellation of Lyra Kepler 102 is less luminous than the Sun 5 The star system does not contain any observable amount of dust 6 Kepler 102 is suspected to be orbited by a binary consisting of two red dwarf stars at projected separations of 591 and 627 AU 7 Kepler 102 Observation dataEpoch J2000 Equinox J2000Constellation LyraRight ascension 18h 45m 55 85599s 1 Declination 47 12 28 8453 1 Apparent magnitude V 12 07 2 CharacteristicsSpectral type K3V 2 AstrometryRadial velocity Rv 28 51 0 37 1 km sProper motion m RA 41 044 mas yr 1 Dec 43 267 mas yr 1 Parallax p 9 2517 0 0102 mas 1 Distance352 5 0 4 ly 108 1 0 1 pc DetailsMass0 803 0 021 3 M Radius0 724 0 018 3 R Temperature4909 98 3 KMetallicity Fe H 0 11 0 04 3 dexRotation26 572 0 153 d 4 Age1 1 3 6 0 5 3 GyrOther designationsGaia DR2 2119583201145735808 KOI 82 KIC 10187017 TYC 3544 1383 1 2MASS J18455585 4712289Database referencesSIMBADdataPlanetary system editIn January 2014 a system of five planets around the star was announced three of them being smaller than Earth While 3 of the transit signals were discovered during the first year of the Kepler mission their small size made them hard to confirm as possibilities of these being false positives were needed to be removed Later two other signals were detected Follow up radial velocity data helped to determine the mass of the two largest planets Kepler 102d and Kepler 102e 8 By 2017 the search for additional planets utilizing the transit timing variation method had yielded zero results 9 although the presence of planets with semimajor axis beyond 10 AU cannot be excluded 10 The Kepler 102 planetary system 3 Companion in order from star Mass Semimajor axis AU Orbital period days Eccentricity Inclination Radiusb lt 1 1 M 0 05521 0 00049 5 286965 12 lt 0 100 89 78 0 22 0 460 0 026 R c lt 1 7 M 0 06702 0 00059 7 071392 22 lt 0 094 89 82 0 15 0 567 0 028 R d 3 0 1 3 M 0 08618 0 00076 10 3117670 41 lt 0 092 89 49 0 11 1 154 0 058 R e 4 7 1 8 M 0 1162 0 0010 16 1456994 22 lt 0 089 89 488 0 051 2 17 0 11 R f lt 4 3 M 0 1656 0 0015 27 453592 60 lt 0 10 89 320 0 037 0 861 0 022 R See also edit55 Cancri Kepler 37 Kepler 20 Kepler 33References edit a b c d e Vallenari A et al Gaia collaboration 2023 Gaia Data Release 3 Summary of the content and survey properties Astronomy and Astrophysics 674 A1 arXiv 2208 00211 Bibcode 2023A amp A 674A 1G doi 10 1051 0004 6361 202243940 S2CID 244398875 Gaia DR3 record for this source at VizieR a b KOI 82 SIMBAD Centre de donnees astronomiques de Strasbourg Retrieved 29 January 2018 a b c d e f Bonomo A S Dumusque X et al April 2023 Cold Jupiters and improved masses in 38 Kepler and K2 small planet systems from 3661 high precision HARPS N radial velocities No excess of cold Jupiters in small planet systems Astronomy amp Astrophysics arXiv 2304 05773 doi 10 1051 0004 6361 202346211 S2CID 258078829 McQuillan A Mazeh T Aigrain S 2013 Stellar Rotation Periods of The Kepler objects of Interest A Dearth of Close In Planets Around Fast Rotators The Astrophysical Journal Letters 775 1 L11 arXiv 1308 1845 Bibcode 2013ApJ 775L 11M doi 10 1088 2041 8205 775 1 L11 S2CID 118557681 Kepler 102 NASA Exoplanet Archive Retrieved 21 April 2023 Dusty phenomena in the vicinity of giant exoplanets Kraus Adam L Ireland Michael J Huber Daniel Mann Andrew W Dupuy Trent J 2016 The Impact of Stellar Multiplicity on Planetary Systems I The Ruinous Influence of Close Binary Companions The Astronomical Journal 152 1 8 arXiv 1604 05744 Bibcode 2016AJ 152 8K doi 10 3847 0004 6256 152 1 8 S2CID 119110229 Masses radii and orbits of small Kepler planets the transition from gaseous to rocky planets accessdate 8 January 2014 Schmitt Joseph R Jenkins Jon M Fischer Debra A 2017 A SEARCH FOR LOST PLANETS IN THE KEPLER MULTI PLANET SYSTEMS AND THE DISCOVERY OF THE LONG PERIOD NEPTUNE SIZED EXOPLANET KEPLER 150 f The Astronomical Journal 153 4 180 arXiv 1703 09229 Bibcode 2017AJ 153 180S doi 10 3847 1538 3881 aa62ad PMC 5783551 PMID 29375142 Becker Juliette C Adams Fred C 2017 Effects of Unseen Additional Planetary Perturbers on Compact Extrasolar Planetary Systems Monthly Notices of the Royal Astronomical Society 468 1 549 563 arXiv 1702 07714 Bibcode 2017MNRAS 468 549B doi 10 1093 mnras stx461 S2CID 119325005 Retrieved from https en wikipedia org w index php title Kepler 102 amp oldid 1177283791 Planetary system, wikipedia, wiki, book, books, library,

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