First prototypes of aluminum-ion batteries charge quickly and have the potential for long lifetimes, low cost, and safe operation.
Scientists reveal that coupling between electrons and atomic vibrations play a key role in this vexing phenomenon.
Novel technique accurately distinguishes rare material property linked to improving sensors and computers.
Ultrafast laser shots act like dopants to create new electronic properties in materials.
Internal storage compartments release droplets of “healing” liquid to repair damaged materials.
Pre-designed molecular building blocks provide atomic-level control of the width of graphene nanoribbons.
Surprising order found in bundles of protein filaments that move chaotically and form liquid crystals that could led to novel self-healing.
Near the onset of superconductivity, continuous exchange of electrons occurs between distinct, liquid-like magnetic phases in an iron-based superconductor.
Penetrating x-rays can image defects and phase changes during battery charging and discharging.
Computer-simulated atomic motion answers real-world questions like “How do things break?”
Researchers use surface-sensitive signals to atomically resolve the structure of a rough surface.
New approach for connecting light-harvesting proteins enhances the current produced by a factor of four.
