Our latest press releases and news

Researchers at the Helmholtz-Zentrum Dresden-Rossendorf (HZDR) have uncovered previously unobserved oscillation states – so-called Floquet states – in tiny magnetic vortices. Unlike earlier experiments, which required energy-intensive laser pulses to create such states, the team in Dresden discovered that a subtle excitation with magnetic waves is sufficient.

Researchers at the Helmholtz-Zentrum Dresden-Rossendorf (HZDR) have partnered with NTNU, the Norwegian University of Science and Technology in Trondheim, and the Institute of Nuclear Physics in the Polish Academy of Sciences to develop a method that facilitates the manufacture of particularly efficient magnetic nanomaterials in a relatively simple process based on inexpensive raw materials.

In einer neuen Podcast-Folge des detektor.fm-Forschungsquartetts spricht Prof. Anton Wallner vom Helmholtz-Zentrum Dresden-Rossendorf (HZDR) über die Spuren vergangener Supernova-Explosionen und darüber, wie sich diese kosmischen Ereignisse noch heute auf der Erde nachweisen lassen.

Highspeed Internet, autonomous driving, the Internet of Things: data streams are proliferating at enormous speed. But classic radio technology is reaching its limits: the higher the data rate, the faster the signals need to be transmitted. Researchers at the Helmholtz-Zentrum Dresden-Rossendorf (HZDR) have now demonstrated (DOI: 10.1038/s42005-025-02273-0) that weak radio signals can be efficiently converted into significantly higher frequencies using this material that is just several tens of nanometers thick.

The Helmholtz-Zentrum Dresden-Rossendorf (HZDR) has achieved double success in the EU Regional Development Fund (ERDF) funding call “InfraProNet” conducted by the Saxon State Ministry for Science, Culture and Tourism (SMWK). With the two projects MagKI and Magnon4KI, the HZDR is further strengthening its leading position in magnetic AI research. Combined, the projects will receive around €3.75 million in funding from the EU and the Free State of Saxony. Their aim is to lay the groundwork for a novel and highly energy-efficient hardware platform for artificial intelligence – a technology designed to operate more sustainably than today’s AI systems.

Starting October 2, 2025, the COSMO Science Forum will present the exhibition “Mensch, Roboter! – Robotics from Dresden science.” Until February 27, 2026, visitors can explore how robotics is being researched in Dresden – and how it is already part of everyday life. The HZDR is participating in the exhibition together with five other research institutions.

A Danish-German research collaboration with participation of the Helmholtz-Zentrum Dresden-Rossendorf (HZDR) aims to develop new quantum light sources and technology for scalable quantum networks based on the rare-earth element erbium. The project EQUAL (Erbium-based silicon quantum light sources) is funded by the Innovation Fund Denmark with 40 million Danish crowns (about 5.3 million euros). It started in May of 2025 and will run for five years.

Imagine navigating a virtual reality with contact lenses or operating your smartphone under water: This and more could soon be a reality thanks to innovative e-skins. A research team led by the HZDR has developed an electronic skin that detects and precisely tracks magnetic fields with a single global sensor. This artificial skin is not only light, transparent and permeable, but also mimics the interactions of real skin and the brain, as the team reports in the journal Nature Communications.

Die neue Ausgabe des Magazins beleuchtet, wie sich radioaktive Substanzen präzise und gezielt in der Diagnose und Therapie von Tumoren nutzen lassen, um neue Wege im Kampf gegen den Krebs zu eröffnen. Darüber hinaus gibt es wie gewohnt auch Einblicke in andere Bereiche der aktuellen Forschung an unserem Zentrum.

Today, a single modern hard drive can store several million megabytes – providing enough storage for hundreds of thousands of photos. These multi-terabyte hard drives rely on tiny magnetic structures. However, with data rates of only a few hundred megabytes per second, access to this digital information remains relatively slow. Initial experiments have already shown a promising new strategy: Magnetic states can be read out by short current pulses, whereby recently discovered spintronic effects in purpose-built material systems could remove previous speed restrictions.