A New Dimension of Complexity for Layered Magnetic Materials

A New Dimension of Complexity for Layered Magnetic Materials

February 20, 2025
When it comes to layered quantum materials, current understanding only scratches the surface; so demonstrates a new study from the Paul Scherrer Institute PSI. Using advanced X-ray spectroscopy at the Swiss Light Source SLS, researchers uncovered magnetic phenomena driven by unexpected interactions between the layers of a kagome ferromagnet made from iron and tin. This discovery challenges assumptions about layered alloys of common metals, providing a starting point for developing new magnetoelectric devices and rare-earth-free motors.

The Surprising Reason a Classical Computer Beat a Quantum Computer at Its Own Game

The Surprising Reason a Classical Computer Beat a Quantum Computer at Its Own Game

October 30, 2024
Now, those researchers have determined why they were able to trounce the quantum computer at its own game. Their answer, presented on October 29 in Physical Review Letters, reveals that the quantum problem they tackled — involving a particular two-dimensional quantum system of flipping magnets — displays a behavior known as confinement. This behavior had previously been seen in quantum condensed matter physics only in one-dimensional systems.

German Scientists Have Demonstrated, for the First Time, the Detection of Magnetic Fields Using a Two-Dimensional Array of Ultracold Atoms

Recently, a team at the Technical University Darmstadt in Germany has demonstrated for the first time a magnetometer based on a two-dimensional array of ultracold atoms with superior spatial resolution compared to classical devices. In this study, scientists trapped rubidium atoms in a square array with a width of 0.2 millimeters. They found that when this system is exposed to a magnetic field, it can detect spatial variations in the magnetic field, as each atom of the array acts as a separate sensor.

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