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This Utrecht-led study identifies a critical pathway toward room-temperature superconductivity by demonstrating that electron pairing occurs at ambient temperatures, with phase coherence remaining the primary barrier. By resolving this specific mechanism using novel measurement equipment, the research provides essential theoretical grounding for future high-efficiency quantum computing and power transmission applications.
Utrecht study suggests superconducting materials may work at room temperature

Research led by scientists from Utrecht, Leiden, & Munich reveals a key condition for room-temperature superconductivity can be met.
Photo: UU – Harold van de Kamp · uu.nl Scientists from Utrecht, Leiden, and Munich report a key condition for achieving superconductivity at room temperature can be met without extreme cooling. The research, published in the journal Science, addresses a longstanding mystery surrounding high-temperature superconductivity, where materials become superconducting at considerably higher…
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