Scientists remain uncertain about why ice is slippery

A thin watery layer on ice's surface makes it slick, but the exact reason for this layer's formation remains unclear despite centuries of scientific inquiry. This longstanding puzzle continues to intrigue researchers in materials science. The explanation highlights the complexities of everyday phenomena like weather and water behavior.

For generations, scientists have theorized about the slipperiness of ice, yet a definitive answer eludes them. The key factor appears to be a thin, watery coating on the ice's surface, which reduces friction and causes the slick sensation underfoot or on skates.

Despite extensive study, the precise mechanism behind this quasi-liquid layer is not fully understood. Theories have abounded over the centuries, but none fully explain why it forms at temperatures where ice should remain solid. This mystery touches on broader questions in physics and chemistry, particularly how water behaves at interfaces.

The topic gained renewed attention through an article in Quanta Magazine, republished by WIRED on January 25, 2026. As noted in the piece, the slippery nature of ice affects everything from winter safety to sports, underscoring the practical implications of unresolved scientific questions.

Researchers continue to explore this phenomenon using advanced tools in materials science, hoping to clarify the molecular interactions at play. Until then, the watery layer remains a slippery concept in both literal and figurative senses.

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Lab scene depicting contactless magnetic friction discovery: hovering metallic blocks with magnetic fields and graphs breaking Amontons' law.
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Researchers discover contactless magnetic friction

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Scientists at the University of Konstanz have identified a new type of sliding friction that occurs without physical contact, driven by magnetic interactions. This phenomenon breaks Amontons' law, a 300-year-old physics principle, by showing friction peaks at certain distances rather than increasing steadily with load. The findings appear in Nature Materials.

수세기에 걸친 경기에 최근 올림픽 성공에도 불구하고, 컬링 뒤의 물리학은 여전히 불완전하게 이해되고 있다. 물리학 교수 토마스 헤링 박사가 이 스포츠의 얼음 마찰과 스톤 움직임의 복잡성을 설명한다. 1511년 스코틀랜드에서 유래한 컬링은 물결 모양 얼음과 스위핑 기술로 과학자들을 도전한다.

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A viral challenge involves trapping people in a carved-out ice bowl, testing their ability to climb out on a highly slippery surface. An article explains three physics-based methods using frictional forces to overcome the slope. The bowl's spherical shape makes escape increasingly difficult as one ascends.

A city-sized Antarctic iceberg known as A23a has formed a vast pool of meltwater on its surface, raising concerns it may soon break apart. Satellite imagery reveals an unusual raised ice rim holding billions of litres of water, resembling an oversized swimming pool. Scientists suggest this pooling could accelerate the berg's fragmentation in warmer waters.

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Researchers have created a method to manage electronic friction in devices, potentially leading to more efficient technology. By using specific materials and applying pressure or voltage, they can reduce or eliminate this hidden energy loss. The breakthrough focuses on electron interactions in smooth surfaces.

중국 연구팀이 달 남극의 물 얼음 고유 특성으로 인해 수집이 도전적일 수 있다고 경고했다. 이 얼음은 극한의 추위와 진공에 의해 얼어붙은 토양에 갇혀 있다. 이 통찰은 창어-7 임무를 앞두고 나왔다.

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Researchers have pinpointed a region on Mars where water ice lies just beneath the surface, potentially ideal for future human missions. The site in Amazonis Planitia balances sunlight for power with cold temperatures to preserve the ice. This discovery could support astronauts' needs for water, oxygen, and fuel without relying on Earth resupplies.

 

 

 

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