aiqbench analysis
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.
Quantum Ultrathin Superconductors No Longer Limited by Air

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,…
Excerpt shown under the publisher's RSS terms · 122 words · full text and figures are on the publisher's site
Related coverage

Twisted materials unlock new quantum states, hinting at superconductors
Quantum Zeitgeist · Sep 21, 2026
News Archive 2026
Quantum Computing Report · Jul 25, 2026

Non-Gaussian Noise Magnetometry Using Local Spin Qubits
Quantum Journal · Aug 27, 2026

Fisica Team Quantifies Decay Rates in Majorana Qubits
Quantum Zeitgeist · Sep 11, 2026