Total solar eclipse of 13 July 2037
A total solar eclipse crosses the Earth on 13 July 2037. Along a track 138 km wide the Moon blocks the Sun completely, and totality lasts up to 3 min 58 s. The central line runs across Australia and New Zealand. From Gold Coast the central phase runs 3 min 01 s, with the Sun 36° above the horizon.
The numbers
- Type
- Total solar eclipse
- Date
- 13 July 2037
- Greatest eclipse
- 02:39:15 UTC
- Eclipse magnitude
- 1.041
- Gamma
- 0.7246
- Central duration
- 3 min 58 s
- Path width
- 138 km at greatest eclipse
- Greatest eclipse at
- 24.8°S 139.1°E
See it in 3D
The simulator places the Sun, Earth and Moon at their true relative positions for this date and draws the shadow cones at real scale. You can scrub through the eclipse, drop an observer anywhere, and watch the umbra sweep the surface.
Loads about 300 KB on demand — nothing is downloaded until you press it.
Local circumstances
All times are UTC. Contact times are computed for each city from the Besselian elements against the WGS84 ellipsoid, at sea level and without refraction.
| Place | C1 | C2 | Max | C3 | C4 | Central | Obscured | Sun alt. |
|---|---|---|---|---|---|---|---|---|
| Gold CoastAustralia | 01:43:32 | 03:16:22 | 03:17:55 | 03:19:23 | 04:43:12 | 3 min 01 s | 100.0% | 36° |
| Logan CityAustralia | 01:42:32 | 03:16:05 | 03:17:15 | 03:18:17 | 04:42:51 | 2 min 12 s | 100.0% | 37° |
| BrisbaneAustralia | 01:42:16 | — | 03:16:55 | — | 04:42:47 | — | 100.0% | 37° |
| Manukau CityNew Zealand | 02:31:33 | — | 03:49:15 | — | 04:58:01 | — | 98.6% | 14° |
| AucklandNew Zealand | 02:31:25 | — | 03:48:55 | — | 04:58:05 | — | 98.4% | 15° |
| North ShoreNew Zealand | 02:31:26 | — | 03:49:15 | — | 04:58:07 | — | 98.3% | 15° |
| WellingtonNew Zealand | 02:28:57 | — | 03:45:15 | — | 04:53:54 | — | 95.2% | 12° |
| PerthAustralia | 00:29:30 | — | 01:46:35 | — | 03:13:41 | — | 94.0% | 25° |
C1 and C4 are first and last contact, when the Moon's disc touches the Sun's. C2 and C3 bracket the central phase. 83 of the 2,250 cities in the database see at least a 3% partial eclipse.
How these figures were produced
Positions come from astronomy-engine, a VSOP87/ELP implementation. From the geocentric Sun and Moon vectors the site computes Besselian elements — x, y, d, μ, l1, l2, tan f1 and tan f2 — and solves the observer's position on the fundamental plane against the WGS84 ellipsoid. Central durations agree with NASA's Five Millennium Canon to within about half a second. Full method and validation.