Stowers Institute appoints first AI Fellow to help advance biological research with artificial intelligence
Grant and Award Announcement
Updates every hour. Last Updated: 7-Apr-2026 04:16 ET (7-Apr-2026 08:16 GMT/UTC)
Professor Wang's team and their collaborators have creatively combined the three-dimensional (3D) magic cube configuration with the design structure of metamaterials, opening up a channel connecting information science and mathematical physics. A new paradigm of mechanically reconfigurable metamaterials characterized by high information entropy and visual interactivity has been successfully established. Different magic cube architectures and variable meta-elements allow for complicated and precise customization of electromagnetic waves, holding potential applications in electromagnetic shielding, target camouflage, and holographic encryption. The results of this work were recently published in Science Bulletin.
In the high-altitude and extremely remote region of Dolpo in north-west Nepal, there are numerous Buddhist temples whose history dates back to the 11th century. The structures are threatened by earthquakes, landslides and planned infrastructure projects such as the Chinese Belt and Road Initiative. There is also a lack of financial resources for long-term maintenance. Researchers from the Institute of Architectural Theory, History of Art and Cultural Studies and the Institute of Engineering Geodesy and Measurement Systems at Graz University of Technology (TU Graz) want to prevent the loss of this cultural heritage, which has hardly been researched up to now. With the support of the Austrian Science Fund FWF, they have documented, analysed and measured buildings as part of several expeditions and preserved some of the temple complexes as 3D computer models – and could thus also have contributed to the preservation of the real buildings. The results have now been published in the journal “Heritage”.
Electrochemical water splitting holds promise for producing clean hydrogen at industrial scales, but current technologies often falter under large current densities. Recent advances in catalyst design and scalable synthesis strategies are bridging this gap, offering materials that maintain high efficiency, stability, and durability under harsh operational conditions. This review synthesizes progress in scalable electrocatalyst production, from electrodeposition and corrosion engineering to thermal treatment approaches, and further to their combinations. By addressing the key challenges of performance degradation, bubble management, and cost limitations, the study highlights emerging solutions that can accelerate the industrial adoption of green hydrogen production technologies.