ComputingResearchScience

Scientists Achieve Record-Breaking Coherence Times in Solid-State Nuclear Spin Qubits

Researchers have demonstrated individual nuclear spin qubits with coherence times exceeding one second, a major advancement for quantum computing. The breakthrough enables high-fidelity quantum operations using stimulated Raman transitions in solid-state systems.

Record-Breaking Quantum Coherence Achieved

Scientists have reportedly achieved a major breakthrough in quantum computing with individual solid-state nuclear spin qubits demonstrating coherence times exceeding seconds, according to research published in Nature Physics. Sources indicate this represents more than an order of magnitude improvement over previous records and positions nuclear spins as promising candidates for quantum memory and processing applications.

ResearchScience

Researchers Achieve Ultrastrong Light-Matter Coupling in Van der Waals Heterostructures

Researchers have demonstrated ultrastrong light-matter interactions in van der Waals heterostructures, according to a Nature Physics study. The findings reveal how built-in plasmonic cavities in graphite gates can control quantum phenomena in these layered materials, opening new pathways for quantum material engineering.

Breakthrough in Quantum Material Control

Scientists have achieved a significant advancement in controlling quantum phenomena through built-in light cavities in van der Waals heterostructures, according to reports published in Nature Physics. Researchers have observed ultrastrong coupling between graphene and graphite plasmonic modes, demonstrating how intrinsic cavity effects can shape the electrodynamics of these layered materials. The findings reportedly provide new pathways for engineering quantum phases and developing novel functionality in two-dimensional material systems.