All articles tagged with #solar eclipse
On August 12, 2026, a daytime total solar eclipse will be visible in parts of Europe and Greenland (with a partial eclipse elsewhere in Europe and North America), followed by the Perseid meteor shower at night; the guide explains where to watch, safety tips for viewing the Sun with certified eclipse glasses, and how to observe meteors under dark skies to enjoy both events in one evening.
Artemis II’s photos taken with a Nikon Z9 during the lunar flyby allowed researchers to measure the Sun’s F-corona and zodiacal light, demonstrating that consumer cameras in space can yield meaningful solar science and supporting future lunar-orbit coronal studies.
Summer 2026 offers a string of sky events: a partial solar eclipse visible across much of eastern Canada on Aug 12; the Perseid meteor shower peaks that night under a New Moon; a predawn Mercury–Jupiter conjunction mid-August; followed by a partial lunar eclipse later in August, with dark skies and the Milky Way visible on clear summer nights.
On Aug 12, 2026 a total solar eclipse will sweep across Greenland, Iceland, northern Russia, the Atlantic, Spain, and a corner of Portugal, with a wide swath of the Northern Hemisphere seeing a partial eclipse. Totality lasts up to about two to two-and-a-half minutes near the center; before and after, eye protection is essential. A NASA map provides location-based times for total and partial phases across cities in Europe, North America, and beyond, plus safety guidance and viewing options such as eclipse glasses, solar filters, or indirect methods like pinhole projectors.
On August 12 a narrow path of totality will sweep across Greenland, Iceland, northern Spain and northeastern Portugal, giving skywatchers a rare moment when the Sun is completely obscured. Spain will see totality on its mainland for the first time since 1905, with observers in Greenland experiencing just over two minutes of darkness and those in northern Spain about 20 seconds, weather permitting. Scientists plan to study the Sun’s corona, launch high‑altitude balloons, and even recreate a 1919 experiment testing General Relativity, with ESA coordinating citizen science and a livestream available for people outside the path. For safe viewing, eclipse glasses or solar viewers are essential until totality begins, and should not be used with optical devices. The next total solar eclipse is expected in 2027 over southern Spain and North Africa, with the contiguous U.S. next seeing one in 2044.”,
The Moon is receding from Earth at about 3.8 cm per year due to tidal interactions, a rate precisely measured by lunar laser ranging using Apollo and Lunokhod reflectors. As the Moon moves farther away, its apparent size will eventually be too small to fully cover the Sun, ending total solar eclipses within roughly 500–800 million years. Until then, upcoming total eclipses seen from Earth occur within this narrow, finite window, making the current era temporarily unique in cosmic terms.
NASA confirms the Aug. 2, 2027 total solar eclipse as the century’s longest, with totality lasting up to 6 minutes 23 seconds along a narrow track from southern Spain through North Africa (Morocco, Algeria, Tunisia, Libya, Egypt) to Saudi Arabia and Yemen. Prime viewing spots include Luxor and Tarifa, aided by near-perigee geometry and mostly cloudless desert skies. Observers must wear solar viewing glasses except during totality; about 88.9 million people live within the path, and the next total eclipse occurs on July 22, 2028.
A 12 August 2026 total solar eclipse will travel across the Arctic region with totality visible in Spain and northern Portugal, while the UK, Ireland and parts of North America will see deep partial eclipses. Spain offers prime viewing near sunset in cities like Bilbao, Valladolid, Zaragoza and Valencia, with Madrid and Barcelona seeing about 99% partial eclipse. The UK and Ireland will experience high obscuration (about 90%+ in many areas), and Alaska and eastern Canada/US will see partials that vary by location. Observers should wear certified solar eclipse glasses or use approved solar telescopes/filters, and may opt for safe indirect viewing methods like solar projections (e.g., via a colander). Timings and local viewing details are provided for major cities, along with safety guidance and tips for capturing the event.
Artemis II’s four-person crew recalled an overwhelming, “otherworldly” moment when the Moon passed between their Orion spacecraft and the Sun during a solar eclipse on the far side, a rare view encountered on a mission that took humans farther from Earth than any before. They described the unknown as scarier than the known, and the experience underscores NASA’s broader plans to land astronauts on the Moon and eventually establish a sustained lunar presence, including Artemis III’s docking in lunar orbit ahead of future surface missions.
NASA's Artemis II crew captured dramatic images from the Moon's far side, including an Earthset and a total solar eclipse, during a flyby that extended more than 4,000 miles beyond the Moon; two new craters were named Integrity and Carroll, and Orion is set to splash down near San Diego on April 10 as the mission continues.
ESA says its Proba-3 Coronagraph spacecraft has reconnected with Earth after a month of silence; an anomaly in February disrupted attitude control and prevented safe-mode entry, and the spacecraft is now in safe mode with its solar panels powering the systems while health checks are conducted to assess possible damage as the Coronagraph and its Occulter continue their formation to study the solar corona by creating artificial eclipses.
Solar eclipses aren’t evenly distributed: NASA’s 5,000-year heat map and a Time and Date study show that orbital geometry and a notable 'latitude effect' make polar regions more likely to experience total eclipses, while the overall timing of eclipses depends on long-term cycles of Earth’s orbit (aphelion/perihelion) and the Moon’s gradual recession. Annular eclipses are more frequent than total ones, and while total eclipses can occur anywhere on Earth over millennia, the interval at any given location is highly irregular—on the order of centuries—until a distant future where total eclipses end as the Moon moves farther away.
A decade of eclipse-era observations by researchers at the University of Hawai'i reveals turbulent structures in the Sun's outer atmosphere that originate from prominences and survive as they travel outward with the solar wind, providing new clues to coronal heating and space-weather effects on Earth.
The year’s first solar eclipse is an annular “ring of fire” visible only from 13 locations along a narrow path that starts over western Antarctica and sweeps across the Davis Sea coastline and the Southern Ocean on Feb 17 at about 7:10am; the UK isn’t in the path, Antarctica watchers will see the full eclipse while other locations may witness partial views, and a lunar eclipse follows on March 3–4.
The 12 August 2026 total solar eclipse will sweep across the Iberian Peninsula, with Spain in the main path of totality (lasting up to about 1 minute 40 seconds in places like León and Palencia) and a small section of northeastern Portugal seeing only a partial view. Viewers should plan ahead, monitor weather forecasts, choose west-facing, unobstructed viewing spots, and use proper eye protection. This rare celestial event—the first total eclipse visible from mainland Europe in about 27 years—offers a memorable spectacle for observers in northern Spain and nearby areas, if skies cooperate.