Scientists discover a strange new form of ice that could help explain the interiors of Neptune and Uranus
Scientists have manufactured a bizarre material called superionic ice that stays solid at temperatures hotter than lava, simulating the extreme conditions inside Neptune and Uranus. This exotic substance helps researchers understand why ice giant planets feature unusual magnetic fields. Unlike standard household water, the interior water of Uranus functions as an electrically conductive fluid rather than conventional liquid or ice. Meanwhile, separate climate archives show that ancient ice cores from Tibet's Guliya Plateau successfully extend Earth's known glacial record by more than 100,000 years, preserving remnants from the last ice age.
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- ✓ Scientists created a bizarre form of ice called superionic ice that remains solid at temperatures hotter than lava.
- ✓ Superionic ice may help explain the strange magnetic fields of Uranus and Neptune.
- ✓ Ice cores from Tibet's Guliya Plateau extend Earth's glacial record by over 100,000 years.
What changed
Researchers have synthesized superionic ice in laboratories to replicate the conditions of ice giant interiors.
Live updates
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Scientists Synthesize Superionic Ice Resembling Ice Giant Interiors
Scientists have manufactured a bizarre material called superionic ice that stays solid at temperatures hotter than lava, simulating the extreme conditions inside Neptune and Uranus. This exotic substance helps researchers understand why ice giant planets feature unusual magnetic fields. Unlike standard household water, the interior water of Uranus functions as an electrically conductive fluid rather than conventional liquid or ice. Meanwhile, separate climate archives show that ancient ice cores from Tibet's Guliya Plateau successfully extend Earth's known glacial record by more than 100,000 years, preserving remnants from the last ice age.
Why it matters
Laboratory simulations of superionic ice offer crucial clues regarding the composition and magnetic behavior of distant planets like Uranus and Neptune. At the same time, glaciological research in Tibet pushes Earth's historical climate data further back in time. These planetary and terrestrial discoveries expand scientific understanding of water across vastly different cosmic and earthly environments.
What is confirmed
- Scientists created a bizarre form of ice called superionic ice that remains solid at temperatures hotter than lava.
- Superionic ice may help explain the strange magnetic fields of Uranus and Neptune.
- Ice cores from Tibet's Guliya Plateau extend Earth's glacial record by over 100,000 years.
Still unconfirmed
- Uranus's interior water is an exotic, electrically conductive fluid rather than common liquid or ice.
What to watch next
- Further laboratory analysis of superionic ice properties
- New findings regarding Uranus and Neptune interior compositions
confidence 100%Sources used for this update (4)
- www.popsci.com — There’s still ice leftover from the last ice age
- chinareporter.news — Scientists create ‘hot ice’ that may explain Uranus and ...
- biologyinsights.com — Is There Water on Uranus? - Biology Insights
- www.wionews.com — Neptune News - Latest Neptune News, Breaking Neptune ... - WION
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Scientists Create Hot Superionic Ice to Explain Ice Giants
Researchers have synthesized a bizarre new form of water ice that remains solid at temperatures hotter than lava. This material, designated as superionic ice, replicates the extreme environments found inside ice giant planets. Laboratory simulations of these intense pressures and temperatures could solve long-standing astrophysics mysteries regarding the unusual magnetic fields of Uranus and Neptune. While scientists continue to study these planetary interiors, separate earthly impacts show thawing permafrost in Arctic Alaska releasing acid and metals that turn river systems orange.
Why it matters
Ice behaves in strange ways under extreme physical and chemical modifications, ranging from reinforced BioPykrete materials to planetary phases forged at pressures of 219 Gigapascals. Understanding these diverse states helps researchers model the deep interiors of outer solar system worlds that were previously difficult to simulate. Meanwhile, environmental shifts closer to home demonstrate how terrestrial ice changes physical landscapes through thawing permafrost.
What is confirmed
- Scientists have created a bizarre form of ice that is hotter than lava yet remains solid, known as superionic ice.
- This new form of water ice could help solve an outstanding astrophysics mystery and explain the strange magnetic fields of Uranus and Neptune.
- Thawing permafrost in Arctic Alaska is releasing acid and metals that turn river systems orange.
Still unconfirmed
- The discovery will yield immediate practical applications for consumer technology outside of planetary science.
What to watch next
- Further publication of studies detailing the exact structural properties of superionic ice in peer-reviewed journals.
- Additional observations from space missions regarding the magnetic field mechanics of Neptune and Uranus.
confidence 95%Sources used for this update (7)
- www.earth.com — Thawing permafrost is changing entire river systems in Arctic Alaska
- www.yahoo.com — Scientists Discovered an Inexplicable New Kind of Ice. It ...
- news.cgtn.com — Scientists create 'hot ice' that may explain Uranus and ...
- news.ssbcrack.com — Discovery of New Dense, Warm Ice Could Explain Magnetic ...
- unitedworld.earth — Space - UNITED WORLD. EARTH
- sundayworld.co.za — Scientists create ‘hot ice’ that may explain Uranus’ magnetic ...
- www.itonline.ch — Eine neue Form exotischen Eises erklärt endlich die ...
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Superionic ice discovery aids understanding of Neptune and Uranus
Researchers identified a superionic ice phase that remains solid at temperatures over 2,000 degrees Celsius and pressures of 219 Gigapascals. This exotic material provides a model for the internal environments of ice giant planets, which were previously difficult to simulate. While this planetary ice exists under extreme conditions, separate material science developments have produced BioPykrete, a reinforced ice ten times stronger than ordinary ice designed to resist shattering. These distinct discoveries highlight the versatility of ice under different physical and chemical modifications.
Why it matters
Neptune and Uranus possess interiors that defy standard ice models. Understanding these high-pressure phases explains how planetary cores behave and distribute heat.
What is confirmed
- Superionic ice forms at pressures of 219 Gigapascals and temperatures exceeding 2,000 degrees Celsius.
- BioPykrete is approximately 10 times stronger than ordinary ice.
Still unconfirmed
- BioPykrete can absorb roughly 70 times more energy before breaking than ordinary ice.
- The Tara Polar Station reached its destination in the high Arctic on September 9.
What to watch next
- Peer review of BioPykrete energy absorption data
- Further planetary modeling using superionic ice parameters
confidence 90%Sources used for this update (2)
- Phys.org — Scientists create 'super ice' that is ten times stronger and far harder to shatter
- umaine.edu — A research station has begun drifting with Arctic sea ice. Here’s why scientists put it there.
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Scientists Discover New Form of Ice For Ice Giants
Researchers have discovered a strange new form of ice operating under ultrahigh pressure conditions that could explain the internal environments of Neptune and Uranus. This exotic ice phase forms at extreme pressures reaching 219 Gigapascals and stays solid at temperatures exceeding 2,000 degrees Celsius or more than 3,600 degrees Fahrenheit. Laboratory experiments successfully recreated these conditions to observe the phase transition, pointing to the existence of superionic ice deep within the ice giant planets. The discovery provides crucial insight into the physical makeup and behavior of planetary interiors that were previously difficult to model.
Why it matters
Ice giants such as Uranus and Neptune present extreme physical conditions that challenge standard terrestrial models. Understanding how water and other compounds behave under multi-gigapascal pressures helps scientists decode planetary magnetic fields and internal structures. This newly documented ultrahigh pressure phase transition expands our knowledge of extreme material science.
What is confirmed
- Scientists discovered a strange new form of ice operating under ultrahigh pressure conditions.
- The exotic ice forms at 219 Gigapascals.
- The ice stays solid at temperatures above 2,000 degrees Celsius or more than 3,600 degrees Fahrenheit.
- Superionic ice could be found inside Uranus and Neptune to help explain their interiors.
What to watch next
- Further laboratory experiments detailing the structural properties of the 219 Gigapascal ice phase
- Planetary modeling updates incorporating superionic ice to explain Uranus and Neptune magnetic fields
confidence 100%Sources used for this update (6)
- Phys.org — Scientists discover a strange new form of ice that could help explain the interiors of Neptune and Uranus
- heise online — At 219 Gigapascals: Exotic ice from the interior of ice giants
- gizmodo.com — Scientists Tried Recreating Uranian and Neptunian Ice. Here’s What Happened
- Nature — Ultrahigh pressure phase transition in ice
- ZME Science — Scientists Made Ice Stay Solid Above 2,000°C. The 'Superionic Ice' Could Be Found Inside Uranus and Neptune
- www.dexerto.com — Scientists discover a new type of ice that forms at more than 3,600°F
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