Pre-cooked seafood-based meals can absorb chemical contaminants during packaging and processing
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Updates every hour. Last Updated: 26-Oct-2026 22:16 ET (27-Oct-2026 02:16 GMT/UTC)
Researchers show how epithelial tissues exhibit slow-moving glass-like behaviour despite their fast-paced biological activity, resolving a long-standing mystery.
Collaboration with the Max Planck Society: The Max Planck Society and its institutes have long-standing research partnerships in the field of quantum materials and engage in active collaboration with industry and startups.
Innovative AI platform: Alqem AI's platform combines extensive databases of material predictions with high-quality training data and laboratory synthesis to turn digital predictions into real materials.
Partnership with Alqem AI: Alqem AI is launching a project to identify new magnetic materials that do not contain rare earth elements. The company is receiving support for this subproject from Prof. Claudia Felser, director at the Max Planck Institute for Chemical Physics of Solids.
LMU researchers develop a method for quality analysis of individual nanocrystals – a key step toward reliable large-scale production.
Helimagnetic q-orientation can be reversibly and polarity-selectively controlled by electric current in the presence of an applied magnetic field, report researchers from Institute of Science Tokyo. In Co8.5Zn8.5Mn3, they combine symmetry analysis with in situ Lorentz transmission electron microscopy to show a new framework for electrically controlling complex magnetic orders, with potential implications for future magnetic memory and spintronic devices.
ETH Zurich physicist Yiwen Chu and her colleagues have developed a new approach to quantum computing. For the first time, it combines vibrating memory devices – known as mechanical resonators – with the central computing units; superconducting qubits. The computer architecture differs from previous quantum computing approaches. Information is stored in a working memory in the form of vibrations, thereby significantly increasing the system's storage capacity. Chu and her team also demonstrate that their approach can successfully perform both fundamental computational operations and more advanced quantum calculations. In so doing, they provide proof of feasibility and lay the groundwork for a fully programmable quantum computer that is, in principle, capable of carrying out any quantum computation.