
Why Two Islands Will See A Total Solar Eclipse On Different Days
The Diomede Islands in the Bering Strait are separated by the International Date Line with Big ... More Diomede Island (Russia) 21 hours ahead of Little Diomede (United States). (Photo by Orbital Horizon/Copernicus Sentinel Data 2018/)
When is the next eclipse in the U.S.? On March 30, 2033 — exactly eight years from today — a total solar eclipse will occur in Alaska and the Bering Strait.
It will bring a dark totality for up to two minutes and 37 seconds, with the maximum close to Barrow/Utqiagvikill in Alaska. However, two islands close to each other in the Bering Strait will experience a totality theoretically 21 hours apart. How can that be?
Here's everything you need to know about the next total solar eclipse in the U.S. — the 'Great Bering Strait''eclipse.
New supermoons cause all total solar eclipses, and this one is no different. At 7:10 UTC, when a new moon is just 11 hours after swinging closest to Earth — so appearing big enough to block the sun in the sky — its dark umbral shadow will forge a path of totality across Provideniya, Anadyr and Uelen in far eastern Russia and Nome, Utqiaġvik (Barrow) and Kotzebue in Alaska in mid-morning. Fairbanks, Anchorage and Juneau in Alaska will see a big partial solar eclipse.
This is one of the more remote eclipses — just 67,600 will see totality, according to Timeanddate. A partial solar eclipse will be seen in 45 U.S. states.
Big Diomede and Little Diomede — three miles apart in the Bering Strait between Alaska and the U.S. and Siberia in Russia — are known as Tomorrow Island and Yesterday Island, respectively.
They're split by the International Date Line, putting Big Diomede in Russia (Tomorrow Island) and Little Diomede in the U.S. (Yesterday Island). Big Diomede is almost one day ahead of Little Diomede.
This total solar eclipse— which brings a brief darkness in the day — occurs during peak viewing season for the aurora borealis, offering a potential double celestial event. A lack of light pollution in Alaska and the fact that auroras are twice as likely close to the March equinox make it a possibility.
The four main places in Alaska where eclipse chasers will gather are likely to be:
Totality: 09:59 a.m. (Eclipse 11 degrees above the horizon, 2 minutes 35 seconds)
The most northerly settlement in the U.S. at 71.2° N at the extreme northern edge of Alaska is close to the point of maximum eclipse.
Totality: 10:00 a.m. (Eclipse 13.9 degrees above the horizon, 1 minute 36 seconds)
The eclipse will occur highest in the sky here, so will be easier to see. It's close to Deadhorse at the end of Alaska's famous Dalton Highway.
Totality: 09:50 a.m. (Eclipse 9.3 degrees above the horizon, 2 minutes 31 seconds)
This Inupiat town at 66 degrees north is on the Baldwin Peninsula in Kotzebue Sound, 26 miles above the Arctic Circle.
Totality: 09:46 a.m. (Eclipse 8.1 degrees above the horizon, 2 minutes 28 seconds)
Reachable only by plane, Nome at 64 degrees north, the end of the annual long-distance Iditarod Trail Sled Dog Race each March.
Wishing you clear skies and wide eyes.
Hashtags

Try Our AI Features
Explore what Daily8 AI can do for you:
Comments
No comments yet...
Related Articles


Newsweek
10 hours ago
- Newsweek
Map Reveals Blackout Over US States After 'Extreme' Solar Flare
Based on facts, either observed and verified firsthand by the reporter, or reported and verified from knowledgeable sources. Newsweek AI is in beta. Translations may contain inaccuracies—please refer to the original content. Large parts of the United States faced a radio blackout on Thursday following a strong solar flare from the sun. The "extreme ultraviolet flash" was captured by NASA's Solar Dynamics Observatory satellite. The solar flare, categorized as X-class in scale—the highest scale, was triggered by an active region of a sunspot on June 19 at 11:50 p.m. UTC. Radiation from the X1.9 blast caused a shortwave radio blackout over the Pacific Ocean, leading to a loss of signal at frequencies below 25 Megahertz (MHz). Amateur radio operators, especially in Hawaii, may have noticed the signal loss. Solar flares are intense bursts of radiation from the sun. The most powerful explosions in the solar system, they can can contain as much energy as a billion hydrogen bombs, according to NASA. Solar flares are classified according to their intensity, with X being the highest on the scale. X-class solar flares can cause planet-wide radio blackouts and long-lasting radiation storms. A map showing the areas affected by the solar flare, including large parts of the United States. Inset, an image of the solar flare. A map showing the areas affected by the solar flare, including large parts of the United States. Inset, an image of the solar flare. NOAA/SWPC/NASA The latest solar flare follows an M-class one, the second-highest on the scale, that occurred days earlier on June 15. It caused a shortwave radio blackout across North America, with a loss of signal seen at frequencies below 20 Megahertz (MHz). Unlike the M8.3 solar flare on Sunday, the solar flare on Thursday did not launch a Coronal Mass Ejection (CME)—a massive burst of plasma and magnetic field lines—into space. However, the explosion has apparently destabilized a magnetic filament in the sun's southern hemisphere. This massive filament, which is erupting now, may produce a CME, which could lead to geomagnetic storms. A solar flare erupting on June 19, causing the radio blackout. A solar flare erupting on June 19, causing the radio blackout. NASA / Solar Dynamics Observatory "When a CME arrives at Earth, it can produce some of the biggest geomagnetic storms and thus, some of the brightest and most active auroras that extend furthest toward the equator," explained NOAA. Geomagnetic storms caused by CMEs can lead to aurora borealis, also known as the northern lights. The northern lights are formed from electrons colliding with the upper reaches of Earth's atmosphere. During these collisions, "the electrons transfer their energy to the atmosphere thus exciting the atoms and molecules to higher energy states" and "when they relax back down to lower energy states, they release their energy in the form of light," explains the Space Weather Prediction Center. Stronger solar cycles produce more solar storms with greater intensity, which drives geomagnetic activity. "If the geomagnetic field is active, then the aurora will be brighter and further from the poles," where the northern lights are typically most visible, says the Space Weather Prediction Center. This means that the aurora borealis may be viewed from lower latitudes than usual. Last year, strong solar activity allowed northern lights enthusiasts to catch a rare viewing of the natural display in parts of the world where they're normally not seen, such as in Japan. Do you have a tip on a science story that Newsweek should be covering? Do you have a question about space? Let us know via science@


Forbes
16 hours ago
- Forbes
Get Ready For The Shortest Day Since Records Began As Earth Spins Faster
Earth could be about to record its fastest-ever rotation. Since 2020, Earth has been rotating faster than at any point since records began in 1973, with each successive year producing the shortest day. Last year, the shortest day was recorded on July 5, and Earth is expected to get close to this again on or close to July 9, July 22 and August 5, according to "Rapidly spinning globe. Symbolic of time passing, travel and other metaphors of space and time." Earth takes a nominal 24 hours to rotate once on its access, which is equal to 86,400 seconds. Until 2020, Earth's rotation had been gradually slowing down, and the shortest ever day recorded was just 1.05 milliseconds under 86,400 seconds. However, on July 19, 2020, Earth rotated 1.47 milliseconds less than 86,400 seconds. Last year, on July 5, it was even shorter at 1.66 milliseconds. Since 2020, Earth has seen 28 of its fastest days and predictions from International Earth Rotation and Reference Systems Service and U.S. Naval Observatory indicate that Earth will again rotate faster on July 9, July 22 or August 5. The uncertainty comes from the exact position of the moon, which acts as a drag factor, particularly when it's close to the equator. In the long-term, the moon is gradually slowing down the Earth's rotation, its gravitational pull causing tides and making Earth's orbital path around the sun slightly elliptical. Precise measurements of the length of a day come from atomic clocks and monitoring by the IERS. Scientists do not know why Earth's rotation has been speeding up since 2020. various factors are likely at play, including the motion of Earth's core and mantle, a shifting of mass due to the melting of ice sheets and glaciers, and variations in ocean currents and air movement. All of these could influence the day length by milliseconds. It could also be down to the 'Chandler wobble' — the movement of Earth's geographical poles across its surface. Historically, international timekeepers have added leap seconds to keep atomic time aligned with Earth's spin. However, since Earth is now rotating faster, not slower, so leap seconds are redundant. Instead, negative leap seconds— i.e., removing a second) — are being considered. IERS confirmed earlier this month that no leap second would be added in 2025. The last leap second was positive and used at the end of December 2016. Scientists are unsure what to do because the current speeding-up may be a blip in a longer trend of Earth's rotation slowing. It may seem trivial, but the fact that Earth is spinning faster in 2025, shaving milliseconds off the day, is critical for maintaining time accuracy worldwide. Maintaining alignment between Earth time and atomic time is crucial for GPS and satellite navigation, financial systems reliant on precise timestamps and synchronizing networks across the world.


Forbes
17 hours ago
- Forbes
Summer Solstice 2025: The Exact Time For Every U.S. State
The 2025 solstice — the longest day of the year in the Northern Hemisphere and the shortest in the Southern Hemisphere — will occur at 02:42 UTC on Saturday, June 21. However, in North America, it happens the previous day. People watch the sun rise, as they take part in the Summer Solstice at Stonehenge in Wiltshire, ... More Friday, June 21, 2024. (Andrew Matthews/PA Wire/PA via AP) June's solstice marks the longest day of the year and the beginning of astronomical summer in the Northern Hemisphere. It's not only the longest day but also the point when daylight begins to shorten. The solstice occurs at a specific global time (02:42 UTC on June 21), so its local time varies across U.S. time zones. The 2025 summer solstice occurs at 10:42 p.m. EDT, 9:42 p.m. CDT, 8:42 p.m. MDT, 7:42 p.m. PDT, 6:42 p.m. AKDT and 4:42 p.m. HST on Friday, June 20. At that precise moment, the sun will be directly overhead at the Tropic of Cancer at noon somewhere on Earth. It's the northernmost point of the sun at noon. Solstice is from the Latin solstitium, sol meaning sun and stit being stationary. That's because, as a consequence of the sun reaching its highest in the sky in the Northern Hemisphere, its rise and set points are at their extreme northeast and northwest, respectively. To the observer, the sun appears to rise farther northeast until June's solstice, when it appears to stand still for a few mornings before rising farther east and south. Although Stonehenge is traditionally associated with the solstice (it's aligned with the rising sun on the solstice), there are other ancient monuments with a solstice link. Egypt's Nabta Playa stone circle, the oldest known astronomical site, tracks the solstice, with no shadows cast by its stones at noon on the date of the solstice. According to Astronomy magazine, Nabta Playa was constructed by a cattle-worshiping cult of nomadic people to mark the summer solstice and the arrival of the monsoons. At 7,000 years old, it's older than Stonehenge. The 2025 solstice will occur at 02:42 UTC on Saturday, June 21, 2025. The Tropic of Cancer is a line 23.4 degrees north of the Earth's equator through The Bahamas, Mexico, Egypt, Libya, Niger, Algeria, Mauritania, Mali, Chad, Saudi Arabia, United Arab Emirates, Oman, India, Myanmar, China and Taiwan. It reflects the tilt of the Earth's axis, which explains why the planet has solstices, equinoxes and seasons. The beginning of astronomical seasons is marked by solstices and equinoxes (equinox means equal night when there are 12 hours of daylight and 12 hours of darkness). The spring or vernal equinox occurs between March 19-21, the June solstice June 20 and 22, the September equinox September 21-24 and the December solstice is December 20-23, according to In 2025, they occur on March 20, June 20, Sept. 22 and Dec. 21, respectively.