Ferroelectricity studygroupx

Oxygen cycling reveals path to next-gen ferroelectric devices

Research is heating up to achieve greater fundamental understanding of the mechanism of ferroelectricity in hafnia-based materials, a crucial step in the development of next generation devices. New findings from the University of Groningen (RUG) in the journal Science define the key role of oxygen for greater miniaturization potential and structural stability beyond that of standard ferroelectric materials used in low-power memories. Electron microscopy and MAX IV’s NanoMAX beamline have illuminated the nature of polarization in thin films of hafnium zirconium oxide for ferroelectronics.

Highlights

Drone image of MAX IV from above, surrounded by green landscape and the horizon.

A record year for research at MAX IV

MAX IV is making significant societal contributions in terms of record-high scientific productivity. In 2023, the number of publications increased by 51% compared to the previous year, and the number of unique users increased by 31%. Moreover, the number of proposals submitted in the most recent Open Call was higher than ever.

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Conceptual design for three potential new beamlines developed with WISE

After successfully bringing the first 16 funded beamlines into operation, we now look into the future. In collaboration with the Wallenberg Initiative Materials Science for Sustainability (WISE), funded by the Knut and Alice Wallenberg Foundation and together with the scientific community, MAX IV will develop the conceptual designs for three potential new materials science beamlines.