Revealing Buried Layers: Exploring the Metal-Substrate Interface Layer in Superconducting Films
Researchers used a multimodal approach to determine the metal-substrate interface in a superconducting qubit material.
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.
Researchers have learned how to retain superconductivity at ambient pressure in a new class of high temperature superconductors.
Experiments show that applied voltage can dramatically alter the magnetic properties of quantum materials.
Researchers combine solar energy, electrochemistry, and thermal catalysis to remove the need for fossil fuel-driven chemical conversions.
Emulating the edge of chaos of axons enables a metal wire to overcome its resistance without cooling, thereby amplifying signals flowing inside of it.
High-surface area silicon improves light-driven reactions of carbon dioxide.
By using a small number of photons to process information, two-dimensional quantum materials can lead to secure, energy-efficient communications.
Scientists used a series of three distinct, sequential reactions to transform carbon monoxide into methanol using proton-electron mediators.
In the unusual world of quantum materials, metals can guide light in their interiors instead of merely reflecting it.