Thin Materials and Fat Electrons: A Recipe for New Quantum Phenomena
The 2D material cerium silicon iodide contains the same heavy electrons responsible for heavy fermion physics, something so far seen only in 3D materials.
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.
Theoretical calculations enable more accurate determination of reaction rates for modelling primordial lithium-6 abundance and massive stars’ lifecycle.
Remarkably, the rate of proton-proton fusion in the sun is not precisely understood, but it can be better predicted using the process of triton decay.
A University of Utah research team demonstrates that a low power university research reactor can produce terbium-161 at high purity from gadolinium-160.
Researchers explore the effects of radiation and harsh chemicals to optimize americium-241 production.
Researchers gain new insights into a strong bond between the isotope astatine-211 and common chemicals, creating new possibilities for cancer treatment.
Scientists have developed tiny nanocrystal particles made up of isotopes of the elements lanthanum, vanadium, and oxygen for use in treating cancer.
Researchers imaged individual barium ions in dense xenon gas, offering a new path toward ultra-low-background searches for neutrinoless double beta decay.
Calculations of charge distribution in mesons provide a benchmark for experimental measurements and validate widely used 'factorization' method.
Mapping a way to ferrotoroidicity: the long-sought fourth ferroic order with magnetic-electric properties that can enable new technologies.
An unexpected electron behavior called charge density waves in an iron-germanium metal material presents a new paradigm in emergent quantum phenomena.