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Field
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Are you fascinated by controlling magnetic matter by femtosecond laser pulses, eager to explore the underlying physical mechanisms, and passionate to develop a generic tool to ‘print’ complex
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hybrid nanoplatform by combining magnetic and fusogenic liposomes with extracellular vesicles. This approach aims to combine the biological properties of extracellular vesicles, particularly their natural
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. Specifically, tidal and magnetic interactions between planets and their host stars have been recognized to be able to modulate the evolution of both, including the atmospheric evolution of the planet and its
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the deadline. Advanced magnetic materials proved a versatile platform for exploring emergent spin phenomena and developing next-generation technologies. In this PhD project, the candidate will employ atomistic
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description How fast can magnetic order be established in quantum magnetic systems, and on what timescale do short-range magnetic correlations evolve into long-range ordered spin states? While equilibrium
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-edge high-magnetic-field research. The project will focus on moiré materials and offers the opportunity to work at the forefront of this rapidly developing field. The research project focuses on moiré
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behaviour of (new) materials and molecules. This is achieved by exposing them to extreme conditions, including very high magnetic fields and powerful free-electron lasers. HFML-FELIX operates an international
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looking for a PhD position? HFML-FELIX invites applications from motivated candidates for a PhD project in cutting-edge high-magnetic-field research. The project will focus on moiré materials and offers
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apply their own ideas, perspectives, and their personal skillset to the discovery, development, and commercial translation of new 3D nanoscale magnetic metamaterials. What You’ll Do in this Project Size
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highly appreciated: background in experimental research in spin qubits, magnetic materials, spintronics. We strongly encourage candidates from all backgrounds and identities to apply. We believe diverse