566:
580:
686:
from the ring, the 6:1 Weywot mean-motion resonance is thought to help prevent the ring from accreting into a solid body. It is unknown which of these two resonances plays a more dominant role in maintaining the ring, as the underlying parameters necessary to calculate their effects are poorly known. The ring is likely coplanar with Weywot's orbit within a relative inclination of
685:
with Weywot that lies slightly interior to the ring at 4,021 km (2,499 mi). This near-coincidence suggests Weywot could play a role in perturbing the ring by producing irregularities in the ring's width and density. Together with Quaoar's 1:3 spin-orbit resonance that lies slightly farther
745:
of about 0.04, considerably darker than Quaoar's albedo of 0.12. Weywot was previously thought to have a diameter of 81 ± 11 km (50 ± 7 mi), about half that of the occultation measurement, because researchers based this estimate only on Weywot's relative brightness and
740:
As of 2023, Weywot is thought to be about 200 km (120 mi) in diameter, based on multiple observations of a stellar occultation by Weywot on 22 June 2023. Occultations by Weywot have been observed previously on 4 August 2019, 11 June 2022, and 26 May 2023, which all gave similar diameter
780:
wavelengths. The apparent magnitude of Weywot by itself is the sum of this magnitude difference and Quaoar's apparent magnitude of 19.0. Likewise, the absolute magnitude of Weywot is the sum of this magnitude difference and Quaoar's absolute magnitude of
659:
change in its projected orbital plane. That is, it could not be recognized whether Weywot orbited prograde or retrograde with respect to the ecliptic. The discontinuity of known observations of Weywot at the time also resulted in a 0.39-day
447:
billions of years ago. The moon is nearly 200 km (120 mi) in diameter and it orbits Quaoar every 12.4 days at an average distance of 13,300 km (8,300 mi). Weywot is thought to play a role in maintaining Quaoar's outer
510:
To determine Weywot's orbit, Brown reobserved Weywot with Hubble in March 2007 and March 2008. Together with his colleague Wesley Fraser, Brown published the first preliminary orbit of Weywot in May 2010. Fraser and Brown were unable to
47:
664:
in its orbital period, which allowed for even more possible orbit solutions with different orbital periods. These issues were eventually resolved when astronomers obtained a precise measurement of Weywot's position from a
632:
by other massive bodies. Of these scenarios, Weywot most likely formed as a fragment of Quaoar that was ejected into an initially eccentric orbit by a major impact event billions of years ago. Weywot's orbit must have
592:
Weywot orbits Quaoar at an average distance of 13,300 km (8,300 mi) and takes 12.4 days to complete one revolution. Its orbit is likely coplanar with Quaoar's equator, while the entire Quaoar system is
1559:
1363:
721:. Combined with its close proximity to Quaoar, Weywot's faintness makes observations difficult, leaving it resolvable only to the most sensitive telescopes such as the
1949:
1944:
1645:
990:
Fraser, Wesley C.; Batygin, Konstantin; Brown, Michael E.; Bouchez, Antonin (January 2013). "The mass, orbit, and tidal evolution of the Quaoar-Weywot system".
741:
estimates of about 170 km (110 mi). Given Weywot's magnitude difference from Quaoar, this occultation-derived diameter suggests Weywot has low
504:
1396:
C. L. Pereira; B. Sicardy; B. E. Morgado; F. Braga-Ribas; E. Fernández-Valenzuela; D. Souami; et al. (2023). "The two rings of (50000) Quaoar".
1939:
655:
for Weywot were complicated by the issue of mirror ambiguity, where two possible inclinations could equally fit Weywot's orbit due to the lack of
503:. After Brown's Hubble survey concluded in late 2006, he and his colleague Terry-Ann Suer reported their newly discovered TNO satellites to the
1551:
1575:"TNOs are Cool: A survey of the trans-Neptunian region. VIII. Combined Herschel PACS and SPIRE observations of nine bright targets at 70-500
620:, where its rotation period is an integer ratio of its orbital period. Several possible explanations for Weywot's high eccentricity include
1638:
146:
637:
very slowly for it to remain eccentric today, which would mean its orbit has changed very little since it had formed. The trans-Neptunian
1934:
1371:
829:
519:
Hubble images of Quaoar from 2002, either because the satellite was obscured by Quaoar or it was too faint in ultraviolet light.
66:
1631:
286:
495:. Consecutive images from that date showed that Weywot appeared stationary relative to Quaoar and was visibly separated at an
1658:
177:
1130:
Fernandez-Valenzuela, E.; Holler, B.; Ortiz, J. L.; Vachier, F.; Braga-Ribas, F.; Rommel, F.; et al. (October 2023).
492:
1398:
1131:
1059:
946:
625:
453:
608:
of 0.14, which challenges theoretical expectations that Weywot could have formed out of a disk of material in
1231:
669:
on 4 August 2019, which allowed researchers to unambiguously settle on a prograde 12.4-day orbit for Weywot.
910:
528:
481:
403:
339:
565:
1573:
Fornasier, S.; Lellouch, E.; Müller, T.; Santos-Sanz, P.; Panuzzo, P.; Kiss, C.; et al. (July 2013).
942:
730:
722:
469:
428:
414:
52:
1328:
1293:
1187:
1929:
773:
714:
682:
634:
304:
1155:
507:, which published their discovery of Weywot alongside three other TNO satellites on 22 February 2007.
1600:
1533:
1481:
1413:
1336:
1301:
1256:
1195:
1077:
1009:
821:
616:
to Quaoar, Weywot's high eccentricity may subject it to a spin-orbit resonance similar to the planet
605:
210:
681:
orbiting Quaoar at a distance of 4,148 km (2,577 mi), which nearly coincides with the 6:1
1685:
666:
652:
594:
579:
544:
264:
1590:
1499:
1471:
1403:
1274:
1246:
1025:
999:
703:
540:
436:
376:
364:
31:
855:
1893:
1768:
1746:
1654:
1429:
1093:
813:
629:
477:
457:
410:
321:
164:
1608:
1604:
1489:
1437:
1421:
1417:
1264:
1101:
1085:
1068:
1017:
742:
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496:
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424:
157:
115:
74:
1779:
1757:
1736:
1720:
1695:
1680:
882:
645:
641:
624:
with other bodies, an origin as a collisionally-ejected fragment of Quaoar, gravitational
440:
1537:
1485:
1340:
1305:
1260:
1199:
1081:
1013:
825:
1817:
1675:
1269:
726:
678:
613:
609:
449:
237:
1923:
1871:
1741:
1705:
1503:
777:
718:
536:
1278:
1136:. 55th Annual DPS Meeting Joint with EPSC. Vol. 55. San Antonio, Texas. 202.04.
1029:
1860:
1844:
1822:
1807:
1725:
638:
621:
444:
417:
326:
1613:
1574:
1425:
1021:
1812:
1710:
1623:
734:
516:
1552:"2022 Asteroidal Occultation Preliminary Results – 50000(1) Weywot 2022 Jun 11"
1494:
1459:
1089:
1715:
539:, whose creator-god Quaoar had been named after. The Tongva chose the sky god
168:
1460:"Tidal Evolution of the Eccentric Moon around Dwarf Planet (225088) Gonggong"
1433:
1097:
17:
1828:
1458:
Arakawa, Sota; Hyodo, Ryuki; Shoji, Daigo; Genda, Hidenori (December 2021).
1441:
1105:
729:. For these reasons, most of Weywot's physical properties such as its mass,
512:
500:
1882:
1064:"A dense ring of the trans-Neptunian object Quaoar outside its Roche limit"
648:, and it is inferred to have formed and evolved in the same way as Weywot.
1690:
661:
656:
598:
277:
439:, Weywot is thought to be a fragment of Quaoar that was ejected into an
46:
1518:
432:
420:
353:
1595:
543:, son of Quaoar. The name of Weywot was officially announced by the
1476:
1408:
677:
In
February 2023, astronomers announced the discovery of a distant
1251:
1004:
1133:
Weywot: the darkest known satellite in the trans-Neptunian region
1063:
1627:
1558:. International Occultation Timing Association. 11 June 2022.
943:"JPL Small-Body Database Browser: 50000 Quaoar (2002 LM60)"
124:
1532:(1). International Occultation Timing Association: 24–31.
1125:
1123:
1121:
1119:
1117:
1115:
130:
814:"Satellites of 2003 AZ_84, (50000), (55637), and (90482)"
612:
around Quaoar. Instead of having a synchronous rotation
30:
This article is about the moon. For the Tongva god, see
1062:; H. Salo; F. Vachier; et al. (8 February 2023).
820:(8812). Central Bureau for Astronomical Telegrams: 1.
127:
121:
133:
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209:
175:
156:
144:
118:
109:
99:
94:
86:
65:
60:
1230:Fraser, Wesley C.; Brown, Michael E. (May 2010).
920:(67220). Minor Planet Center: 134. 4 October 2009
51:Quaoar and Weywot (left of Quaoar) imaged by the
1453:
1451:
1391:
1389:
1639:
1364:"Heavenly Bodies and the People of the Earth"
1225:
1223:
1221:
1219:
1217:
1149:
1147:
1145:
1143:
1053:
1051:
1049:
1047:
1045:
1043:
1041:
1039:
985:
983:
427:and Terry-Ann Suer using images taken by the
8:
1335:. Space Telescope Science Institute: 11169.
1300:. Space Telescope Science Institute: 10860.
1194:. Space Telescope Science Institute: 10545.
981:
979:
977:
975:
973:
971:
969:
967:
965:
963:
644:hosts a similarly eccentric satellite named
535:. Brown left the choice of a name up to the
39:
1181:
1179:
1177:
1058:B. E. Morgado; B. Sicardy; F. Braga-Ribas;
746:assumed it had a similar albedo as Quaoar.
1803:
1798:
1671:
1666:
1646:
1632:
1624:
1188:"Icy planetoids of the outer solar system"
905:
903:
854:Johnston, Wm. Robert (21 September 2014).
849:
847:
807:
805:
803:
801:
799:
797:
761:
759:
558:Orbit diagrams of the Quaoar–Weywot system
45:
1612:
1594:
1493:
1475:
1407:
1268:
1250:
1003:
937:
935:
547:in a notice published on 4 October 2009.
505:Central Bureau for Astronomical Telegrams
812:Green, Daniel W. E. (22 February 2007).
585:Viewed top-down over Quaoar's north pole
1950:Objects observed by stellar occultation
1945:Astronomical objects discovered in 2006
793:
755:
651:Prior to further observations in 2019,
1562:from the original on 12 February 2023.
1370:. Heldref Publications. Archived from
38:
1333:Mikulski Archive for Space Telescopes
1298:Mikulski Archive for Space Telescopes
1192:Mikulski Archive for Space Telescopes
1156:"Quaoar and Weywot (50000 2002 LM60)"
431:on 14 February 2006. Named after the
287:Longitude of ascending node
7:
1232:"Quaoar: A Rock in the Kuiper Belt"
527:Upon discovery, Weywot was given a
443:around the dwarf planet by a major
860:Asteroids with Satellites Database
25:
1526:Journal for Occultation Astronomy
1519:"Beyond Jupiter – (50000) Quaoar"
1294:"The largest Kuiper belt objects"
832:from the original on 19 July 2011
702:Weywot is extremely dim, with an
597:by about 16° with respect to the
578:
564:
114:
1940:Discoveries by Michael E. Brown
1329:"Collisions in the Kuiper belt"
468:Weywot was first imaged by the
1517:Kretlow, Mike (January 2020).
1154:Grundy, Will (21 March 2022).
1:
683:mean-motion orbital resonance
1399:Astronomy & Astrophysics
1362:Street, Nick (August 2008).
1327:Brown, Michael (July 2007).
1292:Brown, Michael (July 2006).
1270:10.1088/0004-637X/714/2/1547
1186:Brown, Michael (July 2005).
1022:10.1016/j.icarus.2012.11.004
472:on 14 February 2006, during
1614:10.1051/0004-6361/201321329
1556:www.asteroidoccultation.com
1426:10.1051/0004-6361/202346365
856:"(50000) Quaoar and Weywot"
493:Advanced Camera for Surveys
454:gravitationally influencing
27:Moon of dwarf planet Quaoar
1966:
1935:Trans-Neptunian satellites
1583:Astronomy and Astrophysics
1090:10.1038/S41586-022-05629-6
305:Argument of periapsis
29:
1801:
1797:
1669:
1665:
1239:The Astrophysical Journal
947:Jet Propulsion Laboratory
737:have yet to be measured.
389:
238:Orbital period (sidereal)
163:
44:
1495:10.3847/1538-3881/ac1f91
1464:The Astronomical Journal
698:Physical characteristics
377:Absolute magnitude
333:Physical characteristics
1605:2013A&A...555A..15F
1418:2023A&A...673L...4P
776:fainter than Quaoar in
717:fainter than Quaoar in
529:provisional designation
482:trans-Neptunian objects
423:. It was discovered by
404:provisional designation
158:Orbital characteristics
918:Minor Planet Circulars
723:Hubble Space Telescope
470:Hubble Space Telescope
429:Hubble Space Telescope
53:Hubble Space Telescope
1659:likely dwarf planets
1162:. Lowell Observatory
862:. Johnston's Archive
653:orbit determinations
606:orbital eccentricity
398:(formal designation
1538:2020JOA....10a..24K
1486:2021AJ....162..226A
1341:2007hst..prop11169B
1306:2006hst..prop10860B
1261:2010ApJ...714.1547F
1200:2005hst..prop10545B
1082:2023Natur.614..239M
1014:2013Icar..222..357F
826:2007IAUC.8812....1B
667:stellar occultation
545:Minor Planet Center
435:sky god and son of
87:Discovery date
41:
704:apparent magnitude
604:Weywot has a high
515:Weywot in earlier
491:s high-resolution
365:Apparent magnitude
67:Discovered by
32:Weywot (mythology)
1917:
1916:
1913:
1912:
1908:
1907:
1793:
1792:
1788:
1787:
1769:S/2015 (136472) 1
1076:(7947): 239–243.
881:Suer, Terry-Ann.
706:of 24.7—that is,
571:Viewed from Earth
458:orbital resonance
411:natural satellite
393:
392:
322:Satellite of
147:Alternative names
16:(Redirected from
1957:
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1836:
1834:
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1804:
1799:
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1667:
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1348:
1324:
1318:
1317:
1315:
1313:
1289:
1283:
1282:
1272:
1254:
1245:(2): 1547–1550.
1236:
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1212:
1211:
1209:
1207:
1183:
1172:
1171:
1169:
1167:
1151:
1138:
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1127:
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1034:
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1007:
987:
958:
957:
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939:
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929:
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915:
911:"M. P. C. 67220"
907:
898:
897:
895:
893:
887:sites.google.com
878:
872:
871:
869:
867:
851:
842:
841:
839:
837:
809:
782:
772:
770:
763:
743:geometric albedo
713:
711:
693:
691:
582:
568:
534:
533:S/2006 (50000) 1
497:angular distance
490:
407:S/2006 (50000) 1
400:(50000) Quaoar I
348:
316:
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298:
296:
275:
273:
258:
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230:
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152:S/2006 (50000) 1
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105:(50000) Quaoar I
90:14 February 2006
75:Michael E. Brown
49:
42:
21:
1965:
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1377:
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1368:Search Magazine
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1160:www2.lowell.edu
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845:
835:
833:
811:
810:
795:
791:
786:
785:
768:
766:
764:
757:
752:
727:Keck Telescopes
709:
707:
700:
689:
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675:
642:225088 Gonggong
635:tidally evolved
590:
589:
588:
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586:
583:
574:
573:
572:
569:
560:
559:
553:
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525:
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441:eccentric orbit
415:trans-Neptunian
413:or moon of the
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178:Semi-major axis
167:23 March 2008 (
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82:
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35:
28:
23:
22:
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11:
5:
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1509:
1447:
1385:
1374:on 18 May 2009
1354:
1319:
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1139:
1111:
1035:
998:(1): 357−363.
959:
931:
899:
883:"Publications"
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790:
787:
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783:
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671:
614:tidally locked
610:circular orbit
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476:'s survey for
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79:Terry-Ann Suer
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719:visible light
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673:Ring dynamics
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626:perturbations
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484:(TNOs) using
483:
480:around large
479:
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474:Michael Brown
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340:Mean diameter
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257:0.0002 d
248:0.0015 d
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110:Pronunciation
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19:
18:Weywot (moon)
1930:50000 Quaoar
1849:
1586:
1582:
1576:
1568:
1555:
1546:
1529:
1525:
1512:
1467:
1463:
1397:
1376:. Retrieved
1372:the original
1367:
1357:
1345:. Retrieved
1332:
1322:
1310:. Retrieved
1297:
1287:
1242:
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1204:. Retrieved
1191:
1164:. Retrieved
1159:
1132:
1073:
1067:
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991:
950:. Retrieved
922:. Retrieved
917:
890:. Retrieved
886:
876:
864:. Retrieved
859:
834:. Retrieved
818:IAU Circular
817:
739:
701:
676:
650:
639:dwarf planet
603:
591:
526:
509:
485:
467:
445:impact event
418:dwarf planet
406:
399:
395:
394:
378:
327:50000 Quaoar
259: (2013)
250: (2023)
231: (2013)
222: (2023)
211:Eccentricity
205: (2013)
193: (2023)
95:Designations
36:
1596:1305.0449v2
1206:11 February
1166:11 February
1060:J. L. Ortiz
952:11 February
924:12 February
892:11 February
735:light curve
657:parallactic
517:ultraviolet
347:200 km
265:Inclination
191:189 km
171:2454549.42)
101:Designation
1924:Categories
1477:2108.08553
1442:Q117802048
1409:2304.09237
1343:. Cycle 16
1308:. Cycle 15
1202:. Cycle 14
1106:Q116754015
789:References
774:magnitudes
765:Weywot is
715:magnitudes
630:resonances
622:collisions
501:arcseconds
478:satellites
1504:237213381
1470:(6): 29.
1434:0004-6361
1378:8 January
1252:1003.5911
1098:1476-4687
1005:1211.1016
464:Discovery
456:it in an
61:Discovery
1780:Xiangliu
1758:Dysnomia
1721:Kerberos
1696:Gonggong
1691:Makemake
1560:Archived
1438:Wikidata
1347:27 April
1312:27 April
1279:17386407
1102:Wikidata
1030:17196395
830:Archived
725:and the
646:Xiangliu
599:ecliptic
595:inclined
513:precover
499:of 0.35
278:ecliptic
1895:2013 FY
1829:2013 FY
1818:Salacia
1747:Hiʻiaka
1601:Bibcode
1534:Bibcode
1482:Bibcode
1414:Bibcode
1337:Bibcode
1302:Bibcode
1257:Bibcode
1196:Bibcode
1078:Bibcode
1010:Bibcode
822:Bibcode
778:visible
618:Mercury
601:plane.
409:) is a
253:12.4314
244:12.4311
55:in 2006
1883:Ilmarë
1872:Actaea
1850:Weywot
1808:Quaoar
1742:Namaka
1706:Charon
1681:Haumea
1589:: 22.
1506:. 226.
1502:
1440:
1432:
1277:
1104:
1096:
1069:Nature
1028:
992:Icarus
866:26 May
836:5 July
733:, and
541:Weywot
537:Tongva
486:Hubble
437:Quaoar
433:Tongva
421:Quaoar
396:Weywot
358:≈ 0.04
354:Albedo
40:Weywot
1861:Vanth
1845:rings
1823:Varda
1813:Orcus
1726:Hydra
1676:Pluto
1655:Moons
1591:arXiv
1522:(PDF)
1500:S2CID
1472:arXiv
1404:arXiv
1275:S2CID
1247:arXiv
1235:(PDF)
1026:S2CID
1000:arXiv
914:(PDF)
781:2.74.
750:Notes
731:color
662:alias
628:, or
551:Orbit
489:'
385:≈ 8.3
270:15.8°
229:0.006
225:0.137
220:0.093
216:0.056
165:Epoch
1737:ring
1711:Styx
1686:Eris
1430:ISSN
1380:2020
1349:2023
1314:2023
1208:2023
1168:2023
1094:ISSN
954:2023
926:2023
894:2023
868:2009
838:2011
679:ring
523:Name
450:ring
370:24.7
315:0.7°
311:335°
297:0.7°
293:1.0°
276:(to
274:0.7°
1716:Nix
1657:of
1609:doi
1587:555
1490:doi
1468:162
1422:doi
1265:doi
1243:714
1086:doi
1074:614
1018:doi
996:222
771:0.2
767:5.6
712:0.2
708:5.6
452:by
379:(H)
203:200
198:900
186:289
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1832:27
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692:7°
688:5°
531:,
460:.
402:;
345:≈
196:13
184:13
169:JD
125:eɪ
1900:I
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134:t
131:ɒ
128:w
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119:ˈ
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