Eclipses 2026

In 2026, there will be four eclipses: two solar eclipses and two lunar eclipses

Date Type Visibility
17 February 2026 Annular solar eclipse Not visible in Belgium
3 March 2026 Total lunar eclipse Not visible in Belgium
12 August 2026 Total solar eclipse In one part of Belgium visible as a partial eclipse.
In one part of Belgium partially visible as a partial eclipse.
28 August 2026 Partial lunar eclipse Partially visible in Belgium

I – 17 February 2026 – Annular solar eclipse, not visible in Belgium

Phase Universal time Longitude Latitude
Start eclipse 09h56.4 079 53 W 62 14 S
Start annular eclipse 11h43.0 144 56 E 73 38 S
Start central eclipse 11h48.3 136 35 E 71 56 S
Maximum of the eclipse 12h13.5 086 23 E 63 56 S
End central eclipse 12h36.1 099 03 E 50 08 S
End annular eclipse 12h41.4 096 50 E 47 33 S
End eclipse 14h27.7 059 29 E 12 24 S

The map below shows the region where the eclipse is observable. The explanation of the codes used can be found at the bottom of the page.

Maximum size of the eclipse: 0.964, the diameter of the solar disc being taken as the unit.

II – 3 March 2026 – Total lunar eclipse, not visible in Belgium

Phase Universal time Longitude Latitude Position angle Altitude at Uccle/Ukkel
Start penumbral eclipse 08h42.8 129 12 W 07 08 N 104 E
Start partial lunar eclipse 09h49.7 145 25 W 06 51 N 096 E
Start total lunar eclipse 11h04.0 163 26 W 06 32 N 064 E
Maximum of the eclipse 11h33.7 170 37 W 06 24 N 028 E
End total lunar eclipse 12h03.3 177 49 W 06 16 N 353 E
End partial lunar eclipse 13h17.6 164 11 E 05 57 N 320 E
End penumbral eclipse 14h24.7 147 55 E 05 40 N 312 E

The longitude and the latitude refer to the point on Earth where the Moon is at that time at its zenith. The position angle is defined from the imaginary line that connects the center of the lunar disc to the center of the Earth’s shadow. It is measured at the center of the lunar disc, from the North, in an anti-clockwise direction. At the beginning and at the end of the penumbra and shadow phases, it is the position angle of the contact point. The altitude and times of the Moon’s rise and fall are calculated for its center, without taking refraction into account.

Magnitude of the eclipse: 1.155, the diameter of the lunar disk being taken as the unit.

The map below shows the region where the eclipse is observable. The explanation of the codes used can be found at the bottom of the page.

III – 12 August 2026 – Total solar eclipse, in one part of Belgium visible as a partial eclipse, in one part of Belgium partially visible as a partial eclipse

Phase Universal time Longitude Latitude
Start of the eclipse 15h34.2 166 25 W 56 31 N
Start of the total eclipse 16h58.1 117 54 E 75 11 N
Start of the central eclipse 17h00.1 113 29 E 75 05 N
Maximum of the eclipse 17h03.9 105 17 E 85 06 N
Central eclipse at local apparent noon 17h44.4 025 35 W 65 59 N
End of the central eclipse 18h32.2 005 24 E 38 40 N
End of the total eclipse 18h34.2 004 11 E 37 51 N
End of the eclipse 19h58.0 024 56 W 11 21 N

The map below shows the region where the eclipse is observable. The explanation of the codes used can be found at the bottom of the page.

The duration of the totality phase along the centrality line will reach a maximum of 2m 21s at a point located at 26° of longitude west and 66° of latitude north.

Phases in Uccle/Ukkel – Brussels (Observatory)

Phase Universal time Position angle relative to the pole Position angle relative to the zenith Altitude at Uccle/Ukkel
First contact 17h18min53s 292 251 +16
Maximum of the eclipse 18h13min41s 207 168 +7
Sunset 19h03min13s 122 086 0

Magnitude of the eclipse: 0.911, the diameter of the solar disk being taken as the unit.

The position angle relative to the pole, resp. the zenith, is the angle formed by the direction of the centre of the lunar disc with the direction of the pole, resp. the zenith. Both angles are measured at the centre of the solar disc in an anti-clockwise direction. At the beginning and at the end of the eclipse, they correspond to the position angles of the contact points.

The altitude of the Sun is that of a reference point, which is located during the eclipse in the eclipsed part of the Sun, and which coincides with the times of contact with the point of contact of the Sun and Moon. Refraction is not taken into account.

The table below gives the phases for some representative Belgian sites.

In Brussels and Wallonia

LocationStart in universal timeMaximum in universal timeEnd in universal timeMagnitudeLocal circumstances
Brussels17h18min48s18h13min36s19h03min22s (*)0.9112
Nivelles/Nijvel17h19min14s18h14min01s19h02min48s (*)0.9122
Jodoigne/Geldenaken17h19min02s18h13min41s19h00min57s (*)0.9102
Tournai/Doornik17h19min12s18h14min13s19h06min21s0.9161
Mons/Bergen17h19min29s18h14min20s19h03min54s (*)0.9152
Charleroi17h19min34s18h14min18s19h01min48s (*)0.9132
Chimay17h20min12s18h14min55s19h01min21s (*)0.9162
Philippeville17h19min56s18h14min38s19h00min48s (*)0.9142
Namur/Namen17h19min30s18h14min08s19h00min16s (*)0.9112
Dinant17h19min50s18h14min26s18h59min31s (*)0.9122
Gedinne17h20min19s18h14min53s18h58min40s (*)0.9142
Huy/Hoei17h19min23s18h13min56s18h58min54s (*)0.9092
Liège/Luik17h19min10s18h13min39s18h57min54s (*)0.9072
Werbomont17h19min37s18h14min03s18h56min43s (*)0.9092
Eupen17h19min11s18h13min33s18h56min01s (*)0.9062
Sankt Vith17h19min47s18h14min06s18h54min40s (*)0.9082
Marche-en-Famenne17h19min53s18h14min23s18h57min41s (*)0.9112
Bastogne/Bastenaken17h20min17s18h14min39s18h55min33s (*)0.9112
Libramont17h20min26s18h14min53s18h56min42s (*)0.9132
Bouillon17h20min39s18h15min09s18h57min38s (*)0.9142
Virton17h21min02s18h15min25s18h55min09s (*)0.9142
Arlon/Aarlen17h20min50s18h15min09s18h54min21s (*)0.9122

In Flanders:

LocationStart in universal timeMaximum in universal timeEnd in universal timeMagnitudeLocal circumstances
Veurne17h18min20s18h13min35s19h05min56s0.9161
Oostende/Ostende17h18min05s18h13min17s19h05min37s0.9141
Brugge/Bruges17h18min07s18h13min14s19h05min30s0.9131
Poperinge17h18min43s18h13min56s19h06min15s0.9171
Kortrijk/Courtrai17h18min48s18h13min52s19h06min04s0.9151
Gent/Gand17h18min25s18h13min24s19h05min32s0.9121
Oudenaarde/Audenarde17h18min47s18h13min46s19h05min54s0.9141
Geraardsbergen/Grammont17h18min55s18h13min49s19h05min01s (*)0.9132
Aalst/Alost17h18min38s18h13min31s19h04min53s (*)0.9112
Sint-Niklaas/Saint-Nicolas17h18min14s18h13min07s19h05min08s (*)0.9102
Mechelen/Malines17h18min29s18h13min16s19h03min22s (*)0.9092
Antwerpen/Anvers17h18min08s18h12min58s19h04min13s (*)0.9082
Essen17h17min42s18h12min33s19h04min36s0.9071
Turnhout17h17min58s18h12min41s19h02min19s (*)0.9062
Geel17h18min15s18h12min56s19h01min41s (*)0.9072
Neerpelt17h18min08s18h12min43s19h00min06s (*)0.9052
Hasselt17h18min40s18h13min14s18h59min38s (*)0.9072
Tongeren/Tongres17h18min55s18h13min27s18h58min43s (*)0.9072
Maaseik17h18min22s18h12min51s18h58min16s (*)0.9042
Leuven/Louvain17h18min45s18h13min28s19h02min03s (*)0.9092
Diest17h18min34s18h13min13s19h00min57s (*)0.9072

The local circumstances are given as follows:

1 Eclipse visible as partial eclipse.

2 Eclipse partially visible as partial eclipse.

Data marked as (*) concerns the sunset.

IV – 28 August 2026 – Partial lunar eclipse, partially visible in Belgium

Phase Universal time Longitude Latitude Position angle Altitude at Uccle/Ukkel
Start penumbral eclipse 01h22.2 021 42 W 09 59 S 081 E +24
Start partial eclipse 02h33.5 038 59 W 09 42 S 092 E +18
Maximum of the eclipse 04h12.9 063 06 W 09 18 S 153 E +06
Moonset at Uccle/Ukkel 04h52.6 072 44 W 09 09 S 188 E 0
End partial eclipse 05h52.3 087 14 W 08 54 S 213 E
End penumbral eclipse 07h03.4 104 29 W 08 37 S 225 E

The longitude and the latitude refer to the point on Earth where the Moon is at that time at its zenith. The position angle is defined from the imaginary line that connects the center of the lunar disc to the center of the Earth’s shadow. It is measured at the center of the lunar disc, from the North, in an anti-clockwise direction. At the beginning and at the end of the penumbra and shadow phases, it is the position angle of the contact point. The altitude and times of the Moon’s rise and fall are calculated for its center, without taking refraction into account.

Magnitude of the eclipse: 0.935, the diameter of the lunar disk being taken as the unit.

The map below shows the region where the eclipse is observable. The explanation of the codes used can be found at the bottom of the page.

Explanations :

The codes used on the maps to indicate the moon eclipse visibility are: entry into the darkness is visible in regions 1 to 6, entry into the darkness in regions 2 to 7, the beginning of the totality in regions 3 to 8. The exits of the totality, the shadow and the penumbra are respectively observable in regions 4 to 9, 5 to 10, and 6 to 11. In region 6, the entire eclipse can be observed, in regions 5 to 7 the umbral phases are observable; in regions 4 to 8 the totality is fully visible.

On solar eclipse visibility maps, the following codes are used:
“P”: Partial eclipse of the Sun, visible.
“p”: Partial eclipse of the Sun, partly visible.
“R”: Annular eclipse, whose annular phase is fully observable.
“r”: Annular eclipse, whose annular phase is partially observable.
“T”: Total eclipse, whose totality phase is fully observable.
“t”: Total eclipse, whose totality phase is partially observable.

The basic data used to write the eclipse chapter were borrowed from the DE440 digital integration, kindly provided by the Jet Propulsion Laboratory. To move from Terrestrial Time (TT) to Universal Time (UT), the following provisional relationship was used:

UT = TT – 69.0 s