Unveiling How Heat Moves in Materials with Atomic-Scale Resolution
Scientists develop a nanoscale electron imaging method that reveals the dynamics of the collective vibrations of atoms at the interface between materials.
Scientists develop a nanoscale electron imaging method that reveals the dynamics of the collective vibrations of atoms at the interface between materials.
Twisted bilayer graphene defies conventional theories by exhibiting superconductivity despite a vanishingly small charge carrier velocity.
Theory uncovers the formation process and dynamics of atomic-scale defects for generating and controlling qubits for quantum computers and sensors.
Electric fields in a crystal of Ni2Mo3O8 create spin excitons and elusive magnetic order.
For the first time, researchers discovered magnetic order at high temperature in a metal widely used by the electronics industry.
In the unusual world of quantum materials, metals can guide light in their interiors instead of merely reflecting it.
Opposing teams of water-loving and oil-loving molecules separate metals called lanthanides that are important in developing clean energy technologies.
A new experiment determines the energy available to drive chemical reactions at the interface between an illuminated semiconductor and a liquid solution.
Ligand design and electrochemical studies pave a new path toward stable high-valent mid-actinide complexes.
Machine learning and artificial intelligence accelerate nanomaterials investigations.
A new microscopy technique measures atomic-level distortions, twist angles, and interlayer spacing in graphene.
New computational methods “fingerprint” polymer motions under flow.