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arXiv · 2601.16575

The 2026 Skyrmionics Roadmap

Sabri Koraltan·Claas Abert·Manfred Albrecht·Maria Azhar·Christian Back·Hélène Béa·Max T. Birch·Stefan Blügel·Olivier Boulle·Felix Büttner·Ping Che·Vincent Cros·Emily Darwin·Louise Desplat·Claire Donnelly·Haifeng Du·Karin Everschor-Sitte·Amalio Fernández-Pacheco·Simone Finizio·Giovanni Finocchio·Markus Garst·Raphael Gruber·Dirk Grundler·Satoru Hayami·Thorsten Hesjedal·Axel Hoffmann·Aleš Hrabec·Hans Josef Hug·Hariom Jani·Jagannath Jena·Wanjun Jiang·Javier Junquera·Kosuke Karube·Lisa-Marie Kern·Joo-Von Kim·Mathias Kläui·Hidekazu Kurebayashi·Kai Litzius·Yizhou Liu·Martin Lonsky·Christopher H. Marrows·Jan Masell·Stefan Mathias·Yuriy Mokrousov·Stuart S. P. Parkin·Bastian Pfau·Paolo G. Radaelli·Florin Radu·Ramamoorthy Ramesh·Nicolas Reyren·Stanislas Rohart·Shinichiro Seki·Ivan I. Smalyukh·Sopheak Sorn·Daniel Steil·Dieter Suess·Mykola Tasinkevych·Yoshinori Tokura·Riccardo Tomasello·Victor Ukleev·Hyunsoo Yang·Fehmi Sami Yasin·Xiuzhen Yu·Chenhui Zhang·Shilei Zhang·Le Zhao·Sebastian Wintz
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Abstract

Magnetic skyrmions and related topological spin textures have emerged as a central topic in condensed-matter physics, combining fundamental significance with potential for transformative applications in spintronics, magnonics, and beyond. Over the past decade, advances in material platforms, imaging techniques, theoretical modeling, and device concepts have established skyrmionics as a rapidly expanding field. At the same time, challenges remain in stabilizing, controlling, and integrating such textures into functional architectures, while novel phenomena such as antiskyrmions, higher-order skyrmions, hopfions, and antiferromagnetic textures arise. The 2026 Skyrmionics Roadmap represents a collective effort of many authors, providing a comprehensive perspective on the current state-of-the-art and the outlook for the coming years. In 33 focused sections, each co-authored by two researchers, we chart progress in theory and modeling, material systems, skyrmion dynamics, and skyrmion technologies. By offering a consolidated vision, this Roadmap aims to guide both fundamental research and application-driven efforts, accelerating the transition of skyrmionics from conceptual breakthroughs toward practical technologies.

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Sabri Koraltan, Claas Abert, Manfred Albrecht, Maria Azhar, Christian Back, Hélène Béa, Max T. Birch, Stefan Blügel, Olivier Boulle, Felix Büttner, Ping Che, Vincent Cros, Emily Darwin, Louise Desplat, Claire Donnelly, Haifeng Du, Karin Everschor-Sitte, Amalio Fernández-Pacheco, Simone Finizio, Giovanni Finocchio, Markus Garst, Raphael Gruber, Dirk Grundler, Satoru Hayami, Thorsten Hesjedal, Axel Hoffmann, Aleš Hrabec, Hans Josef Hug, Hariom Jani, Jagannath Jena, Wanjun Jiang, Javier Junquera, Kosuke Karube, Lisa-Marie Kern, Joo-Von Kim, Mathias Kläui, Hidekazu Kurebayashi, Kai Litzius, Yizhou Liu, Martin Lonsky, Christopher H. Marrows, Jan Masell, Stefan Mathias, Yuriy Mokrousov, Stuart S. P. Parkin, Bastian Pfau, Paolo G. Radaelli, Florin Radu, Ramamoorthy Ramesh, Nicolas Reyren, Stanislas Rohart, Shinichiro Seki, Ivan I. Smalyukh, Sopheak Sorn, Daniel Steil, Dieter Suess, Mykola Tasinkevych, Yoshinori Tokura, Riccardo Tomasello, Victor Ukleev, Hyunsoo Yang, Fehmi Sami Yasin, Xiuzhen Yu, Chenhui Zhang, Shilei Zhang, Le Zhao, Sebastian Wintz. 2026-01-23. The 2026 Skyrmionics Roadmap. https://arxiv.org/abs/2601.16575

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