Materials

A research team led by the Singapore University of Technology and Design, in collaboration with the Agency for Science, Technology and Research, National University of Singapore, University of Southern Denmark, and University of Birmingham, demonstrates a novel way to control the colour of quantum light at room temperature, unlocking new applications in quantum communication and photonics.

Researchers from the Institute of Polymer Science and Engineering, National Taiwan University, have developed a smart gel that responds to multiple stimuli for precise drug release.

Quantum computers can solve calculations that would take traditional computers thousands of years in mere minutes. What if that analytical power is turned inwards?

A novel method to improve the photoluminescent efficiency of metal clusters has been developed – which could potentially be used in applications such as bioimaging or display technologies.

Researchers investigated different compositions of tin sulfides to find the ideal material for devices that harness solar energy.

Cations found to be the culprit behind degraded platinum electrodes

Van der Waals forces, once deemed too weak for structural integrity, have been shown to create stable, highly porous frameworks with exceptional thermal resilience and reversible assembly, paving the way for scalable and recyclable materials.

Researchers have found that pressure can scramble the electrical charge order in a material, creating a disordered "charge glass" state before it turns metallic. This discovery in BiNiO3 offers a new perspective on how materials change under pressure, expanding our understanding of phase transitions, and marking a significant advancement in the fields of physics and materials science.

Surviving Antarctica, Probiotics ease anxiety, Ancient mariners, Addressing large urban fires, Smart patch & Dying galaxies. Plus Women experts for International Women’s Day 2025. Read all in the latest Editor's Choice.

By incorporating gadolinium into a catalyst, its efficiency in a reaction that produces hydrogen fuel increases. This could be the boost we need to lower greenhouse gas emissions.

To be able to make the switch to environmentally friendly hydrogen fuels, there needs to be a catalyst…or a precatalyst, to be specific!

Soaking up pollutants like a sponge, porous organic polymers (POPs) may be the key to reducing greenhouse gas emissions, according to researchers at Tohoku University.

- DGIST Professor Sohee Kim’s research team has developed the world’s first three-dimensional neural electrode that deforms smoothly using soft actuation technology. - It is expected to be used in various next-generation soft bioelectronic devices, including electroceuticals for peripheral nerve treatment

A twist you’ll never see coming: a breakthrough in understanding the relationship between chirality and electric flow at a microscopic level may help us develop chiral information technology.

Strong, lightweight, superelastic, and able to function across a range of temperatures, this newly developed alloy could be a game-changer for space exploration and medical technology.

New double network hydrogel technology features automated self-strengthening that rapidly activates upon deformation of its polymer network.

The less carbon dioxide polluting our air, the better. Researchers are investigating non-toxic, low-cost electrocatalysts to turn our sustainability goals into reality.

A popular pastime in South and Southeast Asia, carrom is played by flicking and pocketing coin-like discs across a smooth tabletop made of wood. Did you know that this game, which originated in India, is now played professionally in competitions across the West?

New evidence suggests that ancient seafarers in Island Southeast Asia had a technological sophistication comparable to much later civilizations.

In a breakthrough for hydrogen technology, researchers have introduced an innovative electronic fine-tuning approach that enhances the interaction between zinc and ruthenium.

A new study has challenged conventional wisdom on oxygen reduction reaction (ORR) catalysts by uncovering a novel reaction pathway in weak-binding metal–nitrogen–carbon (M–N–C) single-atom catalysts (SACs), potentially revolutionizing the design of next-generation electrocatalysts for clean energy applications.

A multi-institutional research team led by Osaka University has engineered a way to preserve the electrical properties of materials as they are shrunk to the nanoscale. The use of the soft substrate hexagonal boron nitride reduces damage to the atomic structure caused by strain, allowing materials to keep their conductive properties as films as thin as 12 nm.

Researchers at Tohoku University tested a strategy for developing single-atom catalysts that may help us develop more efficient methods for water purification.

- DGIST Professor Chiyoung Park’s team develops a simple method to maximize catalytic active sites using a mortar and pestle - Research results published in the Chemical Engineering Journal

In a significant advancement for renewable energy technologies, a new catalyst has been developed that dramatically improves the efficiency and stability of the oxygen evolution reaction (OER) in acidic media, a critical process for water splitting and hydrogen production.

We are using up nickel at an alarming rate to make stainless steel. Thankfully, researchers have found a way to cut nickel out of the equation, without compromising on strength.

Over time, batteries break down. Studying this process in-depth with imaging techniques may help us improve the lifespan of batteries.

Microdroplets of acidic solution on small aluminum surfaces were subjected to an electric current, transforming the metal into glass-like TAlOx.

Thanks to their special iridescence and unmatched beauty, pearls have been highly sought after throughout history. Due to their rarity and demand, the development of pearlescent pigments to mimic the natural beauty of a true pearl became inevitable. Here, researchers utilize plate-like particles to create substrate-free pearlescent pigments, a low-cost and straightforward solution to the issue of substrate-based pigments which can be complex and expensive.

Researchers created platinum-mixed metallic magnetic nanofilms that are 5x more efficient – the ultimate energy-saving solution.