Third dimension of data storage: Three-dimensional magnetic vortices in synthetic antiferromagnets move differently than magnetic vortices in two dimensions 👉 https://press.uni-mainz.de/third-dimension-of-data-storage/

#spintronics #skyrmions #QuantumComputing #DataStorage #antiferromagnets #physics

Professor Jairo Sinova of #MainzUniversity will coordinate a new Priority Program funded by @dfg_public in the field of condensed matter #physics dealing with unconventional #magnetism / Research will build on latest findings on #altermagnetism and focus on the development of unconventional non-collinear #antiferromagnets to overcome the limitations imposed by conventional #ferromagnetism and #antiferromagnetism, resulting in a new concept of "teramagnetic technology" 👉 https://press.uni-mainz.de/new-priority-program-funded-by-the-german-research-foundation-aims-to-make-practical-use-of-unconventional-magnetism-in-it-devices/
New Priority Program funded by the German Research Foundation aims to make practical use of unconventional magnetism in IT devices | Press and Public Relations

Johannes Gutenberg University Mainz

Hidden Harmonies: Scientists discover magnon-phonon Fermi resonance in #antiferromagnets, proposing an innovative way leading to novel #DataStorage technologies based on such #QuantumMaterials.
#THz @HZDR @Radboud_uni @UniKoeln

Image: B. Schröder / HZDR

▶️https://www.hzdr.de/presse/magnon-phonon_fermi_resonance

Hidden Harmonies: Team discovers Magnon-phonon Fermi resonance in an antiferromagnet - Helmholtz-Zentrum Dresden-Rossendorf, HZDR

A bottleneck of nowadays data processing technology is the slow and energy-consuming data storage. Soon, data storage centers are expected to consume almost 10 percent of the world’s energy generation. This increase is, among other things, due to intrinsic limitations of the materials used – ferromagnets. Consequently, this problem has ignited a quest for faster and more energy efficient materials. One of the most encouraging pathways are antiferromagnets – materials that not only promise more robust and 1.000 times faster read and write operations but also are more abundant than their ferromagnetic counterparts. Understanding and control of these quantum materials is key to advancing future technologies. An international research team now reports on a major step forward in this endeavor, as the scientists report in the journal Nature Communications (DOI: https://doi.org/10.1038/s41467-024-49716-w).

Researchers in Germany and Japan have been able for the first time to identify collective topological spin structures called #merons in layered synthetic #antiferromagnets
#Physics #MaterialScience #sflorg
https://www.sflorg.com/2024/02/phy02272401.html
Merons realized in synthetic antiferromagnets

Finding merons in synthetic antiferromagnets