All-optical digital logic and neuromorphic intelligent computing based on wavelength auxiliary and competition in microring resonators
Peer-Reviewed Publication
Updates every hour. Last Updated: 14-Jan-2026 00:11 ET (14-Jan-2026 05:11 GMT/UTC)
An international research team led by UCL, Great Ormond Street Hospital, and KU Leuven is using 3D-printing and nanodiamonds to design treatments that could help babies repair their damaged lungs while still in the womb.
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.
Peptidyl-arginine deiminase 2 (PAD2) enzyme converts arginine amino acid residues in histone proteins into citrulline groups and promotes tumor cell proliferation in pancreatic ductal adenocarcinoma, report researchers from Institute of Science Tokyo, Japan. Administration of PAD inhibitors reduced PRUNE1 expression and suppressed tumor cell proliferation in both pancreatic cancer cell lines and mouse models. The study thus lays the foundation for future anticancer therapies targeting PAD2 enzymatic activity.
Hydrogel-based devices—such as hydrogel pores—are widely used in miniaturized applications ranging from drug delivery to flexible electronics and robotics. Yet conventional designs with simple geometries often suffer from slow, unpredictable actuation and offer limited control. In a recent study, researchers introduced an origami-inspired “facet-driven folding” strategy using polygonal hydrogel pores to deliver highly controlled, programmable actuation, opening new possibilities for selective drug delivery and information encryption.