Engineering the optical environment beneath ultrathin gold films changes how they break into nanoscale particles under laser irradiation, offering new control over nanostructure formation.

Automated monitoring captures perovskite film formation in real time, while machine learning identifies optimal processing ...

An exactly solvable model shows how cavity photons create long-range interactions, allowing a one-dimensional spin chain to ...

Researchers use salt additives to reduce defects during perovskite crystal growth, achieving 26.5% solar cell efficiency and ...

Bacillus subtilis can grow a semiconductor on its surface and use light generated electrons to boost chemical production ...

Chemically modified sugars form carbon materials with tunable nanopores or layered nanostructures, eliminating conventional ...

From egg-white substitutes to food colorants, precision fermentation offers new ways to produce food ingredients, but scaling ...

Researchers equip locusts with plasmonic nanomaterial foams, combining biological smell detection with chemical analysis to ...

A seemingly ordinary flash of gamma rays followed by an unusually bright afterglow points to a powerful stellar jet lurking ...

Researchers patterned conductive metal–organic framework films into gate electrodes for three semiconductor materials and ...

Researchers developed ultrabright, near-infrared fluorescent nanosheets based on a 4,500-year-old Egyptian pigment, offering ...

An extra quantum dot helps overcome the trade-off between speed and noise resistance in semiconductor spin qubits, enabling ...