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MIT researchers have developed an air-stable, ultrathin superconducting film of niobium diselenide by growing it encapsulated beneath a graphene layer, solving the critical issue of rapid oxidation that previously limited scalability. This breakthrough enables the integration of monolayer-thick superconductors into large-scale microwave circuits with high kinetic inductance, a key requirement for practical quantum devices. The ability to produce continuous films exceeding one inch marks a significant step toward manufacturing viable quantum hardware without requiring ultra-high vacuum environments for every fabrication stage.
Source coveringQuantum Zeitgeist
What this isA model's reading of the article and related coverage, written for aiqbench. Not the publisher's words.

Quantum Ultrathin Superconductors No Longer Limited by Air

Quantum Zeitgeist6 min read

MIT researchers created stable, air-resistant niobium diselenide—an ultrathin superconducting material—by growing it under graphene.

Researchers have created an air-stable superconductor only one or a few atoms thick, overcoming a major hurdle in the development of scalable quantum technologies. The team “grew” niobium diselenide underneath a protective layer of carbon-based graphene, preventing rapid degradation from oxidation while enabling large-scale production. This advance allowed them to successfully integrate the material into a superconducting microwave circuit, demonstrating high kinetic inductance essential for many quantum devices. “Emerging superconductors that are only a monolayer thick have a lot of potential,” says Xudong Sheldon Zheng, a graduate student at MIT’s Department of Electrical Engineering and Computer Science; “Thanks to our new process, they are no longer materials that can only be made at a very small scale.” The resulting niobium diselenide film,…

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