June 2029 lunar eclipse

June 2029 lunar eclipse
Total eclipse
The Moon's hourly motion shown right to left
DateJune 26, 2029
Gamma0.0124
Magnitude1.8452
Saros cycle130 (35 of 72)
Totality101 minutes, 53 seconds
Partiality219 minutes, 32 seconds
Penumbral335 minutes, 8 seconds
Contacts (UTC)
P10:34:34
U11:32:18
U22:31:18
Greatest3:22:05
U34:13:01
U45:11:50
P46:09:42

A total lunar eclipse will occur at the Moon’s ascending node of orbit on Tuesday, June 26, 2029,[1] with an umbral magnitude of 1.8452. It will be a central lunar eclipse, in which part of the Moon will pass through the center of the Earth's shadow. A lunar eclipse occurs when the Moon moves into the Earth's shadow, causing the Moon to be darkened. A total lunar eclipse occurs when the Moon's near side entirely passes into the Earth's umbral shadow. Unlike a solar eclipse, which can only be viewed from a relatively small area of the world, a lunar eclipse may be viewed from anywhere on the night side of Earth. A total lunar eclipse can last up to nearly two hours, while a total solar eclipse lasts only a few minutes at any given place, because the Moon's shadow is smaller. Occurring about 3.7 days before perigee (on June 22, 2029, at 11:30 UTC), the Moon's apparent diameter will be larger.[2]

Totality will last 1 hour, 41 minutes, and 53 seconds, the maximum duration for Saros series 130. The eclipse will plunge the full Moon into deep darkness, as it passes right through the center of the Earth's umbral shadow. While the visual effect of a total eclipse is variable, the Moon may be stained a deep orange or red color at maximum eclipse.

With an umbral eclipse magnitude of 1.84520, this is the largest lunar eclipse of the 21st century. Gamma has a value of only 0.01240. Due to the Moon's relatively large size as seen from Earth and greater speed in its elliptical orbit, totality will not last over 106 minutes. This is the darkest and greatest total lunar eclipse in the 21st century.

Visibility

The eclipse will be completely visible over eastern North America, South America, and west Africa, seen rising over western and central North America and the eastern Pacific Ocean and setting over Africa, Europe, and the Middle East.[3]

Eclipse details

Shown below is a table displaying details about this particular solar eclipse. It describes various parameters pertaining to this eclipse.[4]

June 26, 2029 Lunar Eclipse Parameters
Parameter Value
Penumbral Magnitude 2.82822
Umbral Magnitude 1.84520
Gamma 0.01240
Sun Right Ascension 06h21m03.1s
Sun Declination +23°20'50.2"
Sun Semi-Diameter 15'44.1"
Sun Equatorial Horizontal Parallax 08.7"
Moon Right Ascension 18h21m02.6s
Moon Declination -23°20'06.9"
Moon Semi-Diameter 16'00.4"
Moon Equatorial Horizontal Parallax 0°58'44.7"
ΔT 73.6 s

Eclipse season

This eclipse is part of an eclipse season, a period, roughly every six months, when eclipses occur. Only two (or occasionally three) eclipse seasons occur each year, and each season lasts about 35 days and repeats just short of six months (173 days) later; thus two full eclipse seasons always occur each year. Either two or three eclipses happen each eclipse season. In the sequence below, each eclipse is separated by a fortnight. The first and last eclipse in this sequence is separated by one synodic month.

Eclipse season of June–July 2029
June 12
Descending node (new moon)
June 26
Ascending node (full moon)
July 11
Descending node (new moon)
Partial solar eclipse
Solar Saros 118
Total lunar eclipse
Lunar Saros 130
Partial solar eclipse
Solar Saros 156

Eclipses in 2029

Metonic

Tzolkinex

Half-Saros

Tritos

Lunar Saros 130

Inex

Triad

Lunar eclipses of 2027–2031

This eclipse is a member of a semester series. An eclipse in a semester series of lunar eclipses repeats approximately every 177 days and 4 hours (a semester) at alternating nodes of the Moon's orbit.[5]

The penumbral lunar eclipses on February 20, 2027 and August 17, 2027 occur in the previous lunar year eclipse set, and the penumbral lunar eclipses on May 7, 2031 and October 30, 2031 occur in the next lunar year eclipse set.

Lunar eclipse series sets from 2027 to 2031
Ascending node   Descending node
Saros Date
Viewing
Type
Chart
Gamma Saros Date
Viewing
Type
Chart
Gamma
110 2027 Jul 18
Penumbral
−1.5759 115 2028 Jan 12
Partial
0.9818
120 2028 Jul 06
Partial
−0.7904 125 2028 Dec 31
Total
0.3258
130 2029 Jun 26
Total
0.0124 135 2029 Dec 20
Total
−0.3811
140 2030 Jun 15
Partial
0.7535 145 2030 Dec 09
Penumbral
−1.0732
150 2031 Jun 05
Penumbral
1.4732

Metonic series

The Metonic cycle repeats nearly exactly every 19 years and represents a Saros cycle plus one lunar year. Because it occurs on the same calendar date, the Earth's shadow will be in nearly the same location relative to the background stars.

Ascending node Descending node
  1. 1991 Jun 27 - penumbral (110)
  2. 2010 Jun 26 - partial (120)
  3. 2029 Jun 26 - total (130)
  4. 2048 Jun 26 - partial (140)
  5. 2067 Jun 27 - penumbral (150)
  1. 1991 Dec 21 - partial (115)
  2. 2010 Dec 21 - total (125)
  3. 2029 Dec 20 - total (135)
  4. 2048 Dec 20 - partial (145)

Saros 130

This eclipse is a part of Saros series 130, repeating every 18 years, 11 days, and containing 71 events. The series started with a penumbral lunar eclipse on June 10, 1416. It contains partial eclipses from September 4, 1560 through April 12, 1903; total eclipses from April 22, 1921 through September 11, 2155; and a second set of partial eclipses from September 21, 2173 through May 10, 2552. The series ends at member 71 as a penumbral eclipse on July 26, 2678.

The longest duration of totality will be produced by member 35 at 101 minutes, 53 seconds on June 26, 2029. All eclipses in this series occur at the Moon’s ascending node of orbit.[6]

Greatest First

The greatest eclipse of the series will occur on 2029 Jun 26, lasting 101 minutes, 53 seconds.[7]
Penumbral Partial Total Central
1416 Jun 10
1560 Sep 04
1921 Apr 22
1975 May 25
Last
Central Total Partial Penumbral
2083 Jul 29
2155 Sep 11
2552 May 10
2678 Jul 26

Eclipses are tabulated in three columns; every third eclipse in the same column is one exeligmos apart, so they all cast shadows over approximately the same parts of the Earth.

Tritos series

This eclipse is a part of a tritos cycle, repeating at alternating nodes every 135 synodic months (≈ 3986.63 days, or 11 years minus 1 month). Their appearance and longitude are irregular due to a lack of synchronization with the anomalistic month (period of perigee), but groupings of 3 tritos cycles (≈ 33 years minus 3 months) come close (≈ 434.044 anomalistic months), so eclipses are similar in these groupings.

Series members between 1801 and 2200
1811 Mar 10
(Saros 110)
1822 Feb 06
(Saros 111)
1833 Jan 06
(Saros 112)
1843 Dec 07
(Saros 113)
1854 Nov 04
(Saros 114)
1865 Oct 04
(Saros 115)
1876 Sep 03
(Saros 116)
1887 Aug 03
(Saros 117)
1898 Jul 03
(Saros 118)
1909 Jun 04
(Saros 119)
1920 May 03
(Saros 120)
1931 Apr 02
(Saros 121)
1942 Mar 03
(Saros 122)
1953 Jan 29
(Saros 123)
1963 Dec 30
(Saros 124)
1974 Nov 29
(Saros 125)
1985 Oct 28
(Saros 126)
1996 Sep 27
(Saros 127)
2007 Aug 28
(Saros 128)
2018 Jul 27
(Saros 129)
2029 Jun 26
(Saros 130)
2040 May 26
(Saros 131)
2051 Apr 26
(Saros 132)
2062 Mar 25
(Saros 133)
2073 Feb 22
(Saros 134)
2084 Jan 22
(Saros 135)
2094 Dec 21
(Saros 136)
2105 Nov 21
(Saros 137)
2116 Oct 21
(Saros 138)
2127 Sep 20
(Saros 139)
2138 Aug 20
(Saros 140)
2149 Jul 20
(Saros 141)
2160 Jun 18
(Saros 142)
2171 May 19
(Saros 143)
2182 Apr 18
(Saros 144)
2193 Mar 17
(Saros 145)

Inex series

The inex series repeats eclipses 20 days short of 29 years, repeating on average every 10571.95 days. This period is equal to 358 lunations (synodic months) and 388.5 draconic months. Saros series increment by one on successive Inex events and repeat at alternate ascending and descending lunar nodes.

This period is 383.6734 anomalistic months (the period of the Moon's elliptical orbital precession). Despite the average 0.05 time-of-day shift between subsequent events, the variation of the Moon in its elliptical orbit at each event causes the actual eclipse time to vary significantly. It is a part of Lunar Inex series 40.

All events in this series shown (from 1000 to 2500) are central total lunar eclipses.

Inex series from 1000–2500 AD
Descending node Ascending node Descending node Ascending node
Saros Date Saros Date Saros Date Saros Date
95 1016 May 24 96 1045 May 3 97 1074 Apr 14 98 1103 Mar 25
99 1132 Mar 3 100 1161 Feb 12 101 1190 Jan 23 102 1219 Jan 2
103 1247 Dec 13 104 1276 Nov 23 105 1305 Nov 2 106 1334 Oct 13
107 1363 Sep 23 108 1392 Sep 2 109 1421 Aug 13 110 1450 Jul 24
111 1479 Jul 4 112 1508 Jun 13
113 1537 May 24 114 1566 May 4
115 1595 Apr 24 116 1624 Apr 3 117 1653 Mar 14 118 1682 Feb 21
119 1711 Feb 3 120 1740 Jan 13 121 1768 Dec 23 122 1797 Dec 4
123 1826 Nov 14 124 1855 Oct 25 125 1884 Oct 4 126 1913 Sep 15
127 1942 Aug 26
128 1971 Aug 6
129 2000 Jul 16
130 2029 Jun 26
131 2058 Jun 6
132 2087 May 17
133 2116 Apr 27 134 2145 Apr 7
135 2174 Mar 18 136 2203 Feb 26 137 2232 Feb 7 138 2261 Jan 17
139 2289 Dec 27 140 2318 Dec 9 141 2347 Nov 19 142 2376 Oct 28
143 2405 Oct 8 144 2434 Sep 18 145 2463 Aug 29 146 2492 Aug 8

Half-Saros cycle

A lunar eclipse will be preceded and followed by solar eclipses by 9 years and 5.5 days (a half saros).[8] This lunar eclipse is related to two annular solar eclipses of Solar Saros 137.

June 21, 2020 July 2, 2038

See also

Notes

  1. ^ "June 25–26, 2029 Total Lunar Eclipse (Blood Moon)". timeanddate. Retrieved 20 November 2024.
  2. ^ "Moon Distances for London, United Kingdom, England". timeanddate. Retrieved 20 November 2024.
  3. ^ "Total Lunar Eclipse of 2029 Jun 26" (PDF). NASA. Retrieved 20 November 2024.
  4. ^ "Total Lunar Eclipse of 2029 Jun 26". EclipseWise.com. Retrieved 20 November 2024.
  5. ^ van Gent, R.H. "Solar- and Lunar-Eclipse Predictions from Antiquity to the Present". A Catalogue of Eclipse Cycles. Utrecht University. Retrieved 6 October 2018.
  6. ^ "NASA - Catalog of Lunar Eclipses of Saros 130". eclipse.gsfc.nasa.gov.
  7. ^ Listing of Eclipses of series 130
  8. ^ Mathematical Astronomy Morsels, Jean Meeus, p.110, Chapter 18, The half-saros

 

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