News

Bistable molecular switches with turn-ON fluorescence and other controllable properties bring exciting possibilities for future molecular electronics, data storage, and more.

Researchers reveal how electronic patterns emerge and can be controlled in the graphene-like quantum material CeTe₃.

First structural characterization of a double ring-slipped intermediate brings new possibilities for stimuli-responsive materials design

Seven years of refining black crystals have led to an experimentally confirmed definition of spin glass and set a new baseline for studying exotic materials.

Researchers demonstrate a powerful new approach to Floquet engineering, which for decades has sought to imbue ‘trivial’ materials with exotic quantum properties.

New experimental setup detects the faint signals of electrons, shedding new light on the physics of photodegradation and other long-term photoemission processes.

With carefully designed tunable active sites, unique structure of new single atom platforms enables strong gas binding in pioneering step towards more efficient industrially-relevant catalysis.

Flexible films challenge long-held scientific views on the necessity of crystals for mechanoluminescence.

With a clever design, researchers have solved eddy-current damping in macroscopic levitating systems, paving the way for a wide range of sensing technologies.

Using one of the most advanced spectroscopy setups worldwide, researchers have created a recipe for research into next-gen quantum information technologies.

Previously considered improbable, the new discovery in coordination chemistry could open exciting possibilities in catalysis and materials science.

By replacing traditional fluorophores with nanographenes, it’s now possible to observe phenomena at the 10-nanometer scales over long periods.