Researchers used artificial intelligence to redesign hydrogen fuel cell catalysts, boosting performance and durability while cutting costs for clean transport.
Chemists discovered that a seemingly solid, nonporous crystal can 'come alive' when heated. A two-step transformation releases trapped molecules, drives a vivid blue - green - yellow glow, and even ...
Inspired by a pond microorganism that retracts its spiral stalk using geometry alone, soft gel helices now wind and unwind on their own to amplify motion.
Neurons placed inside engineered living bodies built from frog cells self-organize, become active, and reshape movement ...
An AI-powered toolkit automatically extracts and quantifies microstructural features from microscopy images, accelerating ...
Researchers identified a new silicon qubit that emits telecom-band light without fragile hydrogen, potentially enabling ...
Researchers found that bursting bubbles can launch centimeter-wide water puddles into the air, a mechanism that could enable ...
A pore smaller than one nanometer reads peptide sequences amino acid by amino acid, pinpointing single-site Alzheimer's ...
Hollow graphene aerogel fibers mimicking polar bear hair achieve record-low thermal conductivity and high electrical ...
A new nanostructure gas sensor uses safe blue LED light to distinguish hydrogen, ammonia, and ethanol with 56x better ...
Scientists found that tweaking nitrogen arrangement around single cobalt atoms dramatically improves oxygen reduction, offering a blueprint for better fuel cell catalysts.
Lab architecture used to test 2D semiconductors artificially boosts performance metrics, making it harder to assess whether these materials can truly replace silicon.
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