#MaterialScience

Scientific Frontlinesflorg
2026-02-02

Reshaping into a sponge-like structure fundamentally alters its interaction with light, drastically enhancing its electronic properties and absorption without modifying its composition.

sflorg.com/2026/02/phy02022601

Scientific Frontlinesflorg
2026-01-29

Researchers have identified specific achiral "parent" materials that can be engineered into electronically materials with a single, uniform handedness through targeted structural distortion.

sflorg.com/2026/01/phy01292603

Scientific Frontlinesflorg
2026-01-28

A new framework establishes a benchmark for determining the three-dimensional positions and elemental identities of individual within amorphous, disordered materials like glass.

sflorg.com/2026/01/nt01282601.

Scientific Frontlinesflorg
2026-01-19

Researchers identified electron-electron scattering as the missing key to accurately predicting high-temperature in cerium superhydride, solving a long-standing theoretical discrepancy.

sflorg.com/2026/01/phy01192602

Science Newsroom - FSE - UGScienceNewsroom_UG
2026-01-17

🔩 How do metals "remember" their shape?

Mechanical engineer Francesco Maresca & his team at the UG, published an atomistic model which explains how memory alloys, e.g. used in dental braces, can return to their pre-deformed shape when heated.🔥

Curious? Read more 👇
đź”—rug.nl/fse/news/highlighted-pa

đź§Ş @universityofgroningen

Atomistic model showing the coexistence of two solid phases of NiTi: austenite (blue), stable at higher temperatures, and martensite (brown), stable at lower temperatures. The martensite region consists of two differently oriented variants of the same crystal structure (light and dark brown), forming a twinned microstructure. | Image University of Groningen
Scientific Frontlinesflorg
2026-01-16

Scientists synthesized cobalt arsenate, a new magnetic lattice material where structural distortions cause spins to strongly couple and align, serving as a stepping stone toward spin liquids.

sflorg.com/2026/01/ms01162601.

Scientific Frontlinesflorg
2026-01-14

An improved existing technology by integrating a flexible, layer and transparent made from MXene nanomaterial. The result is an that can be stretched to 1.6 times its original size, while maintaining most of its

sflorg.com/2026/01/tech0114260

Scientific Frontlinesflorg
2026-01-14

Researchers have created a self-healing composite that is tougher than materials currently used in wings, and other applications – and can repair itself more than 1,000 times. The researchers estimate their self-healing strategy can extend the lifetime of conventional fiber-reinforced composite materials by centuries

pnas.org/doi/10.1073/pnas.2523

Scientific Frontlinesflorg
2026-01-12

Scientists at the Paul Scherrer Institute have refined an X-ray technique for detecting structures from nanometers to millimeters – reducing the time needed to make the measurement from around one day to about an hour. This opens a wide range of possibilities for biomedical research – from analyzing bone and tissue structures to supporting the development of new implants.

sflorg.com/2026/01/ms01122601.

Scientific Frontlinesflorg
2026-01-10

Rare earth (REEs) are crucial for energy-related applications and are expected to play an increasingly important role in emerging technologies. However, these elements have very similar properties and naturally coexist as complex mixtures in both traditional and unconventional feedstocks, making their separation challenging.

sflorg.com/2026/01/ms01102601.

Scientific Frontlinesflorg
2026-01-09

Scientists have found a way to make solar cells not only highly efficient but also remarkably stable, addressing one of the main challenges holding the back from widespread use.

sflorg.com/2026/01/ms01092601.

Scientific Frontlinesflorg
2026-01-08

Researchers at the Paul Scherrer Institute PSI have achieved a breakthrough on the path to practical application of metal all-solid-state batteries – the next generation of batteries that can store more energy, are safer to operate, and charge faster than conventional lithium-ion

sflorg.com/2026/01/ms01082601.

2026-01-06

Inside Solidification

As children, we’re taught that there are three distinct phases of matter–solid, liquid, and gas–but the reality is somewhat more complicated. In the right–often exotic–conditions, there are far more phases matter takes on. In a recent study, researchers described a metal that sits somewhere between a liquid and a solid.

In a liquid, atoms are free to move. During solidification, atoms lose this freedom, and their frozen positions relative to one another determine the solid’s properties. Atoms frozen into orderly patterns form crystals, whereas those frozen haphazardly become amorphous solids. In their experiment, researchers instead observed atoms in liquid metal nanoparticles that remained stationary throughout the transition from liquid to solid. The number and position of stationary atoms affected whether the final solid crystallized or not.

By tracking these stationary atoms and their influence, the team hopes to better control the material properties of the final solidified metal. (Image credit: U. of Nottingham; research credit: C. Leist et al.; via Gizmodo)

#amorphousSolid #fluidDynamics #materialScience #phaseChange #physics #science #solidification
A representational picture for solid and liquid metals.
Scientific Frontlinesflorg
2025-12-23

Their findings demonstrate an important use case for in new materials development and suggests that the technology has the potential to accelerate research and development. This could drive innovation in various industries such as and energy, discovery and healthcare, and devices.

sflorg.com/2025/12/ms12232501.

Kevin Karhan :verified:kkarhan@infosec.space
2025-12-22

@patrickcmiller no it can't.

Because #MaterialScience requires actual knowledge and not just hallucinating structural formulas.

Scientific Frontlinesflorg
2025-12-16

FAMU-FSU College of Engineering researchers are applying fuel cell to new applications like sustainable and treatment. The researchers examined a type of called a acid polymer membrane, or PFSA polymer membrane. These membranes act as filters, allowing protons to move through, but blocking electrons and gases.

sflorg.com/2025/12/ms12162501.

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