Experiments and simulations found that directing the synthesis of the solid electrolyte Li0.3La0.57TiO3 (LLTO) yields a 500-fold increase in grain boundary conductivity. Achieving higher grain boundary conductance provides a pathway toward al
Using inelastic neutron scattering and density matrix renormalization group calculations, a model-independent approach for entanglement quantification in quantum spin systems is developed. This work lays the foundation for a general entanglement
This work advances a ‘twist’ dynamical description of quasiparticles (e.g., phonons, Bloch electrons) in non-symmorphic chiral and achiral materials, thus building insights into the microscopic interactions that underlie their basic properties.
The single-layered ruthenate Sr2RuO4 is one of the most enigmatic unconventional superconductors.
Most alloys, including high entropy alloys (HEAs), lose ductility when the strength increases.
Researchers from ORNL, Stanford University, and Purdue University developed and demonstrated a novel, fully functional quantum local area network (QLAN).
The dynamics of complex topological defects in ferroelectric materials are explored using automated experimentation in piezoresponse force microscopy
CrI3, a hot 2D magnet, exhibits complex magnetism depending on the number of layers and the interlayer stacking patterns
The combination of nontrivial band topology and symmetry-breaking phases gives rise to novel quantum states and phenomena such as topological superconductivity, quantum anomalous Hall effect
Inelastic neutron scattering measurements reveal interacting modes with unprecedented clarity in a quantum magnet.1 This work demonstrates how inelastic neutron scattering, in conjunction with new theoretical developments, can reveal important