{"id":790956,"date":"2026-10-03T19:04:10","date_gmt":"2026-10-03T19:04:10","guid":{"rendered":"https:\/\/www.newsbeep.com\/uk\/790956\/"},"modified":"2026-10-03T19:04:10","modified_gmt":"2026-10-03T19:04:10","slug":"common-metal-could-unlock-a-cheaper-path-to-quantum-materials","status":"publish","type":"post","link":"https:\/\/www.newsbeep.com\/uk\/790956\/","title":{"rendered":"Common Metal Could Unlock a Cheaper Path to Quantum Materials"},"content":{"rendered":"

\"Cobalt<\/a>Cobalt is a widely used transition metal valued for its magnetic properties, durability, and role in technologies ranging from batteries to superalloys. It is more abundant and generally less costly than other commonly used metals such as ruthenium and iridium. Credit: Shutterstock<\/p>\n

Researchers have created a cobalt-based thin film in which local honeycomb structures generate strong magnetic interactions linked to Kitaev-type quantum materials.<\/p>\n

A common metal may offer a cheaper route to materials used in quantum research. Scientists created a thin film in which cobalt atoms form local honeycomb patterns and generate strong magnetic interactions linked to Kitaev materials.<\/p>\n

The material is based on sodium antimonate (NaSbO3), which already has a layered honeycomb structure. Adding about 4% cobalt produced localized CoO6 honeycomb motifs without disrupting the larger crystal.<\/p>\n

Replacing Rare Metals<\/p>\n

Kitaev materials are studied because some may support quantum spin liquids, unusual states in which atomic spins remain dynamic instead of settling into conventional magnetic order. Research has often relied on compounds containing scarce metals such as ruthenium and iridium.<\/p>\n

\u201cPrevious work in this area has largely been limited to rare metals like ruthenium and iridium,\u201d says lead author Hao-Bo Li. \u201cWe asked whether cobalt, one of the most common transition metals on Earth, could be made to form the same honeycomb structure and display the same intriguing physics.\u201d<\/p>\n

\"Cobalt<\/a>Cobalt honeycomb structure is stabilized within a known oxide possessing a honeycomb structure. Furthermore, a ferromagnetic ground state has been discovered while the interlayer coupling is antiferromagnetic. Credit: Reprinted with permission from H.-B. Li, et al. Ferromagnetic-like behavior emerging from local CoO6 honeycomb motifs in Co-doped NaSbO3 thin films. Phys. Rev. M 10, 054418 (2026). \u00a9 2026 American Physical Society.Cobalt Forms the Structure Naturally<\/p>\n

Microscopy confirmed that the cobalt atoms clustered into the predicted honeycomb motifs without creating unwanted secondary phases.<\/p>\n

\u201cWhat excites us is that these cobalt honeycombs appear to form naturally, without any special coaxing,\u201d explains senior author Hidekazu Tanaka. \u201cThey even produce a clear magnetic signal that matches what theory predicts for this type of structure.\u201d<\/p>\n

Magnetic measurements showed a ferromagnetic-like state near 88 K, or about minus 301 degrees Fahrenheit. Calculations indicate that this behavior comes from the local arrangement of cobalt atoms within the CoO6 structures.<\/p>\n

A More Accessible Quantum Material<\/p>\n

The material has not been shown to host a quantum spin liquid, but it provides a cobalt-based system for studying Kitaev-type magnetism without relying on rare metals.<\/p>\n

\u201cCobalt is relatively cheap, widely available, and already used in semiconductor manufacturing,\u201d remarks Li. \u201cThis approach could eventually lead to quantum computing components that are far more practical to produce at scale.\u201d<\/p>\n

The researchers are now working to further engineer the material and test its quantum properties in greater detail.<\/p>\n

Reference: \u201cFerromagnetic-like behavior emerging from local honeycomb motifs in Co-doped thin films\u201d by Hao-Bo Li, Weitao Yan, Shunsuke Kobayashi, Kousuke Ooe, Takahiro Ozawa, Hidefumi Takahashi, Shintaro Ishiwata, Chengchao Zhong, Tong Zhu, Wei-Hua Wang, Hiroshi Takatsu, Hiroshi Kageyama and Hidekazu Tanaka, 22 May 2026, Physical Review Materials.
DOI: 10.1103\/54cx-6r5s<\/a><\/p>\n

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