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AsteriaStar
Published prediction · NASA/GSFC

Eclipses

Solar and lunar eclipses for the year ahead, taken from NASA's Five Millennium Catalog exactly as published — including the delta-T that turns its dynamical time into the clock on your wall.

Times are UTC throughout, because an instant is the same everywhere and a local rendering would hide which day an event actually falls on for you. Nothing here knows or asks where you are. Every computed instant carries an uncertainty, and most of those are measurements rather than estimates: every build checks the lunar phases against NASA's own published table, the equinoxes, solstices and Earth's apsides against the US Naval Observatory's, and the planetary positions the remaining events are derived from against JPL Horizons. The Moon's perigee and apogee are the one family with no external table to check against, and their cards say so.

5 events

  • Annular solar eclipse

    Published prediction

    The Moon is too far from Earth to cover the Sun completely, leaving a bright ring. There is no safe moment to look without a filter, at any point of an annular eclipse. Never look at the Sun without a filter made for the purpose. Sunglasses, exposed film and smoked glass are not filters, and neither is a camera, binocular or telescope without one fitted in front of the objective.

    How exact: As published. Instants are quoted to the second in the catalogue; the conversion to UTC uses the catalogue's own ΔT, which is itself a prediction for future dates.

    Saros series
    131
    Gamma
    -0.2952
    Eclipse magnitude
    0.9281
    Duration of central eclipse
    7 min 51 s at greatest eclipse
    Greatest eclipse over
    31°S, 48°W
    ΔT applied
    76 s, from the catalogue, converting its Terrestrial Dynamical Time to UTC
    Where this date comes from

    Taken from an authority's own published prediction. AsteriaStar reproduces it and links the document; it does not recompute it.

    Source: NASA/GSFC Five Millennium Catalog of Solar Eclipses — Eclipse Predictions by Fred Espenak (NASA's GSFC)

    Uncertainty: As published. Instants are quoted to the second in the catalogue; the conversion to UTC uses the catalogue's own ΔT, which is itself a prediction for future dates.

    Where it applies: Greatest eclipse occurs over 31°S, 48°W. Which places see totality, and which see only a partial eclipse, is set by the shadow path — AsteriaStar does not compute it, and NASA publishes the maps.

  • Penumbral lunar eclipse

    Published prediction

    The Moon passes only through the faint outer shadow. The effect is a subtle shading across the disc, and a shallow one is genuinely hard to notice.

    How exact: As published. Instants are quoted to the second in the catalogue; the conversion to UTC uses the catalogue's own ΔT, which is itself a prediction for future dates.

    Saros series
    143
    Gamma
    -1.0480
    Umbral magnitude
    -0.0569
    Penumbral magnitude
    0.9266
    Penumbral phase lasts
    241 min 0 s
    Moon overhead at
    10°N, 15°E
    ΔT applied
    76 s, from the catalogue, converting its Terrestrial Dynamical Time to UTC
    Where this date comes from

    Taken from an authority's own published prediction. AsteriaStar reproduces it and links the document; it does not recompute it.

    Source: NASA/GSFC Five Millennium Catalog of Lunar Eclipses — Eclipse Predictions by Fred Espenak and Jean Meeus (NASA's GSFC)

    Uncertainty: As published. Instants are quoted to the second in the catalogue; the conversion to UTC uses the catalogue's own ΔT, which is itself a prediction for future dates.

    Where it applies: Visible from the whole night side of Earth at the time of greatest eclipse; the Moon is overhead at the point listed below and lower in the sky the farther you are from it.

  • Penumbral lunar eclipse

    Published prediction

    The Moon passes only through the faint outer shadow. The effect is a subtle shading across the disc, and a shallow one is genuinely hard to notice.

    How exact: As published. Instants are quoted to the second in the catalogue; the conversion to UTC uses the catalogue's own ΔT, which is itself a prediction for future dates.

    Saros series
    110
    Gamma
    -1.5758
    Umbral magnitude
    -1.0680
    Penumbral magnitude
    0.0014
    Penumbral phase lasts
    11 min 48 s
    Moon overhead at
    22°S, 121°E
    ΔT applied
    76 s, from the catalogue, converting its Terrestrial Dynamical Time to UTC
    Where this date comes from

    Taken from an authority's own published prediction. AsteriaStar reproduces it and links the document; it does not recompute it.

    Source: NASA/GSFC Five Millennium Catalog of Lunar Eclipses — Eclipse Predictions by Fred Espenak and Jean Meeus (NASA's GSFC)

    Uncertainty: As published. Instants are quoted to the second in the catalogue; the conversion to UTC uses the catalogue's own ΔT, which is itself a prediction for future dates.

    Where it applies: Visible from the whole night side of Earth at the time of greatest eclipse; the Moon is overhead at the point listed below and lower in the sky the farther you are from it.

  • Total solar eclipse

    Published prediction

    The Moon covers the Sun completely along a narrow path, where the corona becomes visible. Everywhere else in the region sees a partial eclipse. Never look at the Sun without a filter made for the purpose. Sunglasses, exposed film and smoked glass are not filters, and neither is a camera, binocular or telescope without one fitted in front of the objective.

    How exact: As published. Instants are quoted to the second in the catalogue; the conversion to UTC uses the catalogue's own ΔT, which is itself a prediction for future dates.

    Saros series
    136
    Gamma
    0.1421
    Eclipse magnitude
    1.0790
    Duration of central eclipse
    6 min 23 s at greatest eclipse
    Greatest eclipse over
    26°N, 33°E
    ΔT applied
    76 s, from the catalogue, converting its Terrestrial Dynamical Time to UTC
    Where this date comes from

    Taken from an authority's own published prediction. AsteriaStar reproduces it and links the document; it does not recompute it.

    Source: NASA/GSFC Five Millennium Catalog of Solar Eclipses — Eclipse Predictions by Fred Espenak (NASA's GSFC)

    Uncertainty: As published. Instants are quoted to the second in the catalogue; the conversion to UTC uses the catalogue's own ΔT, which is itself a prediction for future dates.

    Where it applies: Greatest eclipse occurs over 26°N, 33°E. Which places see totality, and which see only a partial eclipse, is set by the shadow path — AsteriaStar does not compute it, and NASA publishes the maps.

  • Penumbral lunar eclipse

    Published prediction

    The Moon passes only through the faint outer shadow. The effect is a subtle shading across the disc, and a shallow one is genuinely hard to notice.

    How exact: As published. Instants are quoted to the second in the catalogue; the conversion to UTC uses the catalogue's own ΔT, which is itself a prediction for future dates.

    Saros series
    148
    Gamma
    1.2797
    Umbral magnitude
    -0.5254
    Penumbral magnitude
    0.5456
    Penumbral phase lasts
    218 min 36 s
    Moon overhead at
    12°S, 108°W
    ΔT applied
    76 s, from the catalogue, converting its Terrestrial Dynamical Time to UTC
    Where this date comes from

    Taken from an authority's own published prediction. AsteriaStar reproduces it and links the document; it does not recompute it.

    Source: NASA/GSFC Five Millennium Catalog of Lunar Eclipses — Eclipse Predictions by Fred Espenak and Jean Meeus (NASA's GSFC)

    Uncertainty: As published. Instants are quoted to the second in the catalogue; the conversion to UTC uses the catalogue's own ΔT, which is itself a prediction for future dates.

    Where it applies: Visible from the whole night side of Earth at the time of greatest eclipse; the Moon is overhead at the point listed below and lower in the sky the farther you are from it.

Four kinds of date

Computed
Derived on this platform from published position series. The algorithm and its version are recorded, and the stated uncertainty is the real one.
Published prediction
Taken from an authority's own published prediction. AsteriaStar reproduces it and links the document; it does not recompute it.
Annual forecast
Recurs every year at approximately the same point in Earth's orbit. The date shown is the expected one; the exact hour and the strength vary from year to year.
Planned
A date somebody intends to meet. Planned dates move, often by months. The timestamp of the last confirmation is shown so you can judge how much the date is worth.

Take this away as a calendar file: subscribe or download the next year of events, or read it as JSON from the Open Data API. Both carry the basis, the method or source, and the uncertainty for every entry.

Provenance — gsfc:solar-eclipses

Forecast
Status
Forecast
Kind
Forecast
Provider
NASA Eclipse Web Site
Organisation
NASA Goddard Space Flight Center
Fetched
2026-09-17 04:34 UTC
Cached for
7 d
Treated as stale after
90 d
Licence
Public domain (US Government work), and NASA states that permission to reproduce the data is granted WHEN ACCOMPANIED BY an acknowledgment — “Eclipse Predictions by Fred Espenak (NASA’s GSFC)” for the solar catalogue and “Eclipse Predictions by Fred Espenak and Jean Meeus (NASA’s GSFC)” for the lunar one. The right acknowledgment travels with every eclipse AsteriaStar shows.

Source file: https://eclipse.gsfc.nasa.gov/SEcat5/SE2001-2100.html

Solar eclipses of the twenty-first century from NASA Eclipse Web Site, fetched from https://eclipse.gsfc.nasa.gov/SEcat5/SE2001-2100.html. The catalogue was computed once and published in 2007. A week is not a compromise between freshness and load — there is no freshness to trade, and re-parsing two hundred and twenty-four eclipses on every page view would be waste with no upside.

Circumstances of GREATEST eclipse only: the instant, the type, the Saros series, gamma, the magnitude, and the point on Earth the shadow axis passes closest to. It does not say what an eclipse looks like from any particular place, and neither does AsteriaStar — local circumstances need the Besselian elements, which NASA publishes separately and which are not read here.

Provenance — gsfc:lunar-eclipses

Forecast
Status
Forecast
Kind
Forecast
Provider
NASA Eclipse Web Site
Organisation
NASA Goddard Space Flight Center
Fetched
2026-09-17 04:34 UTC
Cached for
7 d
Treated as stale after
90 d
Licence
Public domain (US Government work), and NASA states that permission to reproduce the data is granted WHEN ACCOMPANIED BY an acknowledgment — “Eclipse Predictions by Fred Espenak (NASA’s GSFC)” for the solar catalogue and “Eclipse Predictions by Fred Espenak and Jean Meeus (NASA’s GSFC)” for the lunar one. The right acknowledgment travels with every eclipse AsteriaStar shows.

Source file: https://eclipse.gsfc.nasa.gov/LEcat5/LE2001-2100.html

Lunar eclipses of the twenty-first century from NASA Eclipse Web Site, fetched from https://eclipse.gsfc.nasa.gov/LEcat5/LE2001-2100.html. The same fixed catalogue as the solar table, on the same terms.

Circumstances of greatest eclipse and the published durations of the penumbral, partial and total phases. Contact times for a specific location are not in the table and are not derived here.