Uncovering Hidden Atomic Patterns in Semiconductors
Advanced microscopy reveals motifs of trace atoms in semiconductors, paving the way for new microelectronics designed atom by atom.
Advanced microscopy reveals motifs of trace atoms in semiconductors, paving the way for new microelectronics designed atom by atom.
A new technique combining physics and machine learning enables scientists to quickly reconstruct details of particle beams without the need for large datasets.
The evolution of a sandstone’s texture, structure, and stress was measured during deformation for the first time.
Scientists directly observed spin wave currents using advanced Resonant X-ray Scattering.
Researchers have used an undulator’s magnetic field to generate and control ultrafast X-ray pulses.
Using the Advanced Light Source and Molecular Foundry, researchers identified the chemical stew found in samples of the asteroid Bennu.
Using DNA scaffolding, scientists developed a universal method for producing a wide variety of functional, 3D metallic and semiconductor nanostructures
By combining a chiral semiconductor with an LED, scientists controlled the orientation of electron spin.
Researchers used a multimodal approach to determine the metal-substrate interface in a superconducting qubit material.
Discovery proves the existence of the mysterious Wigner crystal — an unusual kind of matter made entirely of electrons.
Although scientists conceived of Weyl fermions in 3D, researchers have observed their 2D equivalent in a monolayer film.
The 2D material cerium silicon iodide contains the same heavy electrons responsible for heavy fermion physics, something so far seen only in 3D materials.