Scientists have made several advancements in quantum technology and materials science. Researchers have unlocked room-temperature quantum circuits using magnetic graphene, a development that could significantly impact quantum computing. A new class of magnons, quasiparticles crucial for spintronics, has been directly observed, paving the way for high-speed spintronic devices. Additionally, a major breakthrough in graphene research demonstrated the possibility of magnet-free spin currents, which could enhance quantum computing performance. Other innovations include the construction of an 11-mile-long quantum communication channel using photons and the development of a tunable quantum system that suppresses broadband noise, improving sensitivity for applications such as biomedical diagnostics and gravitational wave detection. Furthermore, entropy engineering has opened new possibilities for achieving a robust quantum anomalous Hall effect in two-dimensional magnets. These findings collectively advance the understanding and practical application of quantum phenomena in various technologies.
Entropy engineering opens new avenue for robust quantum anomalous Hall effect in 2D magnets https://t.co/pr5nSLSFla
A new study reports direct observation of a new class of magnons, quasiparticles important for spintronics applications. This finding paves the way for high-speed spintronic devices. @Tsinghua_Uni https://t.co/kk5BG1Vh3P https://t.co/tKM8QhPUP3
#A new tunable quantum system enables broadband noise suppression, enhancing sensitivity in applications from biomedical diagnostics to #GravitationalWaveDetection, all within a compact tabletop device. @uni_copenhagen @nature https://t.co/jlwbaGytBC https://t.co/aVzOBZlaxw