معرفی
Lukas Flajsman is a Research Fellow in the Department of Applied Physics at Aalto University, specializing in magnonics and spintronics research within the Nanomagnetism and Spintronics group. His work focuses on utilizing magnons for low-energy processing of microwave signals, with particular expertise in yttrium iron garnet (YIG) systems and hybrid magnonic-plasmonic structures.
- Position: Research Fellow, Department of Applied Physics
- Research Group: Nanomagnetism and Spintronics
- ORCID: 0000-0003-4411-0589
- Contact: +358 50 3222917
Flajsman holds a Doctoral degree in Natural Sciences from Brno University of Technology, awarded in June 2020. His doctoral research focused on "Magneto-optical study of the dynamic properties of magnetic nanostructures and nanostructured metamaterials." His mother tongue is Czech.
His research interests center on magnonics, with emphasis on spin wave manipulation, magnonic crystals, and applications for low-energy signal processing. His work spans fundamental physics of magnons in magnetic materials to practical device applications, particularly in neuromorphic computing and microwave technology. Key research areas include Yttrium-Iron Garnet physics, magnonic resonators, magneto-ionic effects, and hybrid magnonic-plasmonic systems.
Flajsman has published 18 research outputs between 2021-2025, with significant contributions in 2024-2025 including publications in Advanced Materials, Science Advances, and Physical Review Applied. His recent work demonstrates expertise in programmable magnonic devices, optical control of spin waves, and magneto-ionic synapses for neuromorphic computing applications.
As principal investigator, Flajsman led the "Bridging Magnons" project (2021-2024), funded as an RCF Postdoctoral Researcher grant. This project focused on magnonic systems with strong connections to Yttrium-Iron Garnet, film materials, and data processing applications. He has also contributed to other Academy of Finland-funded projects including "Active Control of Spin Waves in YIG-based Magnonics" and "Electro- and Optomagnonics in Hybrid Metamaterials."
His research operates at the intersection of condensed matter physics, materials science, and computing technology, with practical applications in low-power signal processing and next-generation computing architectures.
