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Showing posts from November, 2026

Unusual quantum states in six-layer graphene offer clues to superconductivity

https://phys.org/news/2026-10-unusual-quantum-states-layer-graphene.html Summary:Unconventional correlated electronic states identified within stacked 6-layer rhombohedral graphene, shedding light on high-temperature superconductivity's microscopic origins. Spontaneous symmetry breaking/ exotic electronic phases observed tuning displacement electric fields across multilayer atomic structure. Tunable multi-layer graphene platforms provide clean experimental systems for investigating condensed matter flat-band superconductivity/ correlated electron dynamics.

UTe₂ reveals two flavors of superconductivity under extreme pressure

https://phys.org/news/2026-10-ute-reveals-flavors-superconductivity-extreme.html Summary: Uranium ditelluride exhibits 2 distinct superconducting phases under extreme hydrostatic pressure, with novel pairing mechanisms in heavy-fermion materials. High-pressure measurements reveal competing superconducting states characterized by distinct order parameters/ symmetry properties. Unraveling multi-flavor pairing interactions furthers unconventional superconductivity, guiding the design of robust topological quantum materials for advanced electronic applications.

Four superconducting cables link two large quantum processors into one

https://phys.org/news/2026-10-superconducting-cables-link-large-quantum.html Summary: 2 independent superconducting quantum processors linked using 4 specialized superconducting microwave cables create modular multi-chip architecture. Establishing reliable inter-chip quantum state transfer channels overcomes the physical scale limitations of monolithic quantum chips. This modular interconnect strategy provides hardware developers with a practical blueprint to construct fault-tolerant, large-scale distributed quantum computers without requiring single massive dies.