NEWSROOM

A novel magnetic material with an extraordinary electronic structure might allow for the production of smaller and more efficient computer chips in the future: the p-wave magnet. Researchers from Karlsruhe Institute of Technology (KIT) were involved in its development. The magnetic behavior in the interior of this material results from the way the electron spins arrange themselves – in the shape of a helix. Therefore, the electric current flowing through is deflected laterall

For a long time, the two areas of strong-field physics and quantum optics were considered independent areas of physics research without any significant overlaps. Whilst strong-field physics focuses on the behavior of material, such as atomic gases, in intense light fields, quantum optics focuses on researching special quantum properties of light that cannot be described within the framework of classical physics. Strong-field physics requires intense laser rays, in other words

Graphene’s enduring appeal lies in its remarkable combination of lightness, flexibility, and strength. Now, researchers have shown that under pressure, it can briefly take on the traits of one of its more glamorous carbon cousins. By introducing nitrogen atoms and applying pressure, a team of scientists has coaxed bilayer graphene grown through chemical vapor deposition (CVD) into a diamond-like phase — without the need for extreme heat. The finding, reported in Advanced Mate

The group demonstrated that shining three self-trapped light beams into a specially engineered hydrogel can execute a NAND logic operation, one of the most fundamental building blocks of computing. Because all other digital logic gates can be built from NAND, the achievement establishes soft, photoresponsive materials as a realistic platform for autonomous, computation-capable systems.

The team’s breakthrough, reported in Nature on 19 November 2025, emerged from reimagining how light is generated. Instead of forcing current through insulating nanocrystals, the researchers wrapped them in specially-designed organic semiconductor molecules. These tailored ligands acted as molecular intermediaries, capturing electrons and holes under an electric field and transferring their energy to the lanthanide ions inside the crystal. The result was bright, stable light e

Researchers at the Cavendish Laboratory, University of Cambridge have developed a new method to electrically power insulating nanoparticles, a feat previously thought impossible under normal conditions. By attaching organic molecules that act as tiny antennas, they have created the first-ever light-emitting diodes (LEDs) from these materials. The breakthrough, published in Nature, opens the door to a new generation of devices with applications ranging from deep-tissue biomedi

The formation of metal hydrides is important to a wide range of energy technologies, from hydrogen storage to fusion materials. Researchers used palladium (Pd) nanoparticles, which have a high hydrogen affinity and can be precisely synthesized, as a model system for studying the insertion of hydrogen into a metal. They synthesized Pd nanoparticles, interconnected into assemblies with a high density of Σ3(111) grain boundaries (GBs), to probe the role of GBs in hydridation. Th

In magnetic materials with antisymmetric exchange interactions, novel particle-like spin textures called magnetic skyrmions can appear and be manipulated by electrons. First observed in 2009, they have been created and controlled at room temperature in many materials. Skyrmions, as nonvolatile information carriers, are key in electronic and spintronic devices. Their size can be just a few nanometers, enabling high storage densities. They require low current to move, are topol

The blue-green lab-grown crystals look like solid rocks, but their atomic states are constantly changing. A team of researchers at the Department of Energy’s SLAC National Accelerator Laboratory and Stanford University recently discovered a new example of a quantum spin liquid – a unique state of matter that may one day be used in qubits, the information-storing quantum computer components analogous to classical computer bits.

Drugs are often only needed at a specific site in the body. That is why medical research has long been trying to deliver them precisely to where they are needed – in the case of a stroke, directly to the vicinity of the blood clot. A team from ETH Zurich has now achieved decisive breakthroughs on several levels in pursuit of this goal. The results have been published in the prestigious journal Science. The authors of the publication include Professor Tessa Lühmann from the In

JASCO Corporation Introduces the Advanced IRT-5X Infrared Microscope   Tokyo, Japan – JASCO Corporation is proud to announce the launch of its latest innovation in analytical instrumentation: the IRT-5X Infrared (IR) Microscope . Designed to deliver exceptional optical and spatial resolution, the IRT-5X is a powerful tool for materials identification, microanalysis, and imaging of complex samples.   IRT-5X FTIR Microscope The IRT-5X combines versatility, performance, and acc

A research team at the City University of New York and the University of Texas at Austin has discovered a way to make previously hidden states of light, known as dark excitons, shine brightly, and control their emission at the nanoscale. Their findings, published today in Nature Photonics, open the door to faster, smaller, and more energy-efficient technologies. Dark excitons are exotic light-matter states in atomically thin semiconductors that typically remain invisible beca