Penn engineers send quantum signals with standard internet protocol
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Updates every hour. Last Updated: 7-Nov-2025 12:11 ET (7-Nov-2025 17:11 GMT/UTC)
When genetic testing reveals a rare DNA mutation, doctors and patients are frequently left in the dark about what it actually means. Now, researchers at the Icahn School of Medicine at Mount Sinai have developed a powerful new way to determine whether a patient with a mutation is likely to actually develop disease, a concept known in genetics as penetrance. The team set out to solve this problem using artificial intelligence (AI) and routine lab tests like cholesterol, blood counts, and kidney function. Details of the findings were reported in the August 28 online issue of Science. Their new method combines machine learning with electronic health records to offer a more accurate, data-driven view of genetic risk.
A research collaboration between Prof. Yayu Wang’s group at Tsinghua University and Prof. Chang Liu’s group at Renmin University of China (RUC) has recently published a paper in Science Bulletin, titled “Strongly enhanced topological quantum phases in dual-surface AlOx-encapsulated MnBi2Te4.” By developing a wax-assisted exfoliation method and constructing dual-surface AlOx encapsulation of MnBi2Te4, the team achieved enhanced topological quantum phases in both even and odd layer devices, providing a new approach for exploring novel topological quantum phenomena and potential applications in MnBi2Te4 and other two-dimensional materials.
Semantic communications have revolutionized wireless communication in this century. In a new study, SeoulTech researchers have investigated ConcreteSC, a novel digital communication framework that eliminates massive codebooks in semantic communication systems through temperature-controlled concrete distributions. The research demonstrates up to threefold improvements in image quality metrics and 39x faster processing speeds compared to traditional vector quantization methods in wireless communication systems.
Tuning magnetic properties in quasicrystals is limited by fixed elemental ratios set by stoichiometry. Now, researchers from Japan developed a “double hetero-valent elemental substitution” method, where atoms are replaced with others of different valency but similar size. Applying this to a Ga-based approximant crystal, they substituted gallium and platinum with gold, transforming the material’s magnetic state from spin-glass to ferromagnetic. The approach allows precise magnetic control, paving the way for advanced magnetocaloric materials.