During 2026, new legislation – the result of an agreement between the UK Government and the European Union – is planned to come into force for recreational pollack fishing that limits catches to three fish per angler per day. It will result in more fish being released after they are caught, but new research led by the University of Plymouth (UK) - and involving scientists and industry representatives across the UK - has suggested changing how that release happens could have a marked difference on the fisheries’ long-term sustainability.

A research team led by Professor Jinsung Park of the Department of Biomechatronics Engineering(co–first authors: Eugene Park, M.S.; Dr. Hyunjun Park; Dr. Woochang Kim) of Sungkyunkwan University has developed the world’s first AI-based optical diagnostic platform through a collaborative study with Dr. Minhee Kang of the Biomedical Engineering Research Center at Samsung Medical Center and Professor Gwanghui Ryu’s Otolaryngology team. This platform enables rapid and accurate differentiation—within minutes—between ordinary nasal secretion and cerebrospinal fluid (CSF) leaking from the nose.

A research team led by Prof. Kenward VONG, Assistant Professor from the Department of Chemistry at The Hong Kong University of Science and Technology (HKUST) has recently achieved a significant breakthrough by bioengineering a new type of glycan-targeting system known as “lectin-directed protein aggregation therapy (LPAT)”. Using this technology, they developed a therapy capable of preventing the onset and growth of metastatic breast cancers in mouse models.

A newly developed ceramic material shows record-high proton conductivity at intermediate temperatures while remaining chemically stable, report researchers from Japan. Efficient hydrogen-to-electricity conversion is critical for hydrogen-based clean energy technologies, but few materials combine chemical stability with efficient proton conductivity. Thanks to an innovative donor co-doping strategy, the proposed ceramic material features increased proton concentration and mobility, realizing exceptional conductivity and stability under CO₂, O₂, and H₂ environments.

The performance and stability of smartphones and artificial intelligence (AI) services depend on how uniformly and precisely semiconductor surfaces are processed. KAIST researchers have expanded the concept of everyday “sandpaper” into the realm of nanotechnology, developing a new technique capable of processing semiconductor surfaces uniformly down to the atomic level. This technology demonstrates the potential to significantly improve surface quality and processing precision in advanced semiconductor processes such as high-bandwidth memory (HBM).

KAIST (President Kwang Hyung Lee) announced on the 11th of February that a research team led by Professor Sanha Kim of the Department of Mechanical Engineering has developed a “nano sandpaper” that utilizes carbon nanotubes—tens of thousands of times thinner than a human hair—as abrasive materials. This technology enables more precise surface processing than existing semiconductor manufacturing processes, while also reducing environmental burdens generated during fabrication, presenting a new planarization technique.

POSTECH, the National Disaster Management Research Institute, and the Korea Research Institute for Human Settlements analyze society’s view of disasters using AI.