Using only a single electron microscope image, researchers can determine the type and exact position of so-called guest atoms in high-tech materials. They also come closer to solving the mystery of the blue color of aquamarine.

Scientists have developed a new technique to get a high-resolution look at how - and why - corrosion happens.

Researchers demonstrate the atypical behaviour of topological solitons in a robotic metamaterial, something which in the future may be used to control how robots move, sense their surroundings and communicate.

Researchers develop an intelligent iontronic wood device that seamlessly integrates tactile sensing into woodwork, enabling novel human-wood interactions.

Researchers explorie the use of non-toxic quantum dots in medicine and environmental applications, focusing on carbon and sulfur for safer inks and water purification.

A collaborative effort has led to the development of a new treatment strategy targeting the early-stage aggregation of A-beta before the formation of toxic oligomers.

Researchers invented a new method to produce holographic security labels.

Researchers create a compact, all-optical device with the lowest microwave noise ever achieved for an integrated chip.

Understanding electron behavior and surface structure of triphenylene thin film molecules deposited on graphite substrates under light irradiation.

The novel approach helps advance wireless sensor technology and paves the way for one day using large populations of inconspicuous sensors in implantable and wearable biomedical microdevices.

CNM-Au8 gold nanocatalysts exhibit a unique protein corona composition that enables them to cross the blood-brain barrier, paving the way for new treatments for neurodegenerative diseases.

Using ultrahigh-intensity x-ray beams can cause the intensity of diffraction patterns from samples to drop.

New process can accelerate the production of complex materials needed to advance photonics technologies.

Experiment shows heat and magnetic fields transform spin textures in devices, achieving low-energy skyrmion shifts at room temperature.

Leafhoppers, a common backyard insect, secrete and coat themselves in tiny mysterious particles that could provide both the inspiration and the instructions for next-generation technology, according to a new study. In a first, the team precisely replicated the complex geometry of these particles, called brochosomes, and elucidated a better understanding of how they absorb both visible and ultraviolet light.

Breakthrough in photoluminescence: Achieving >99% PLQY in gold-copper nanoclusters at room temperature, enabling advances in biomedical imaging.

Leafhoppers| buckyball-shaped brochosomes with through-holes reduce light reflection, showcasing unique antireflection properties in nature.

This finding is expected to increase capacity of rechargeable batteries for electric vehicles and telecommunications equipment with two to few-layer graphene electrodes.

Researchers have published groundbreaking work demonstrating, for the first time, the ability to recycle high-performance carbon nanotube sheets while preserving their shape, structural alignment, mechanical and electrical properties, and intrinsic flexibility.

Scientists have synthesized bulk van der Waals materials at near-room temperature (ranging from room temperature to 60 C), significantly reducing the energy consumption required for their fabrication by at least one order of magnitude.