Project description
3D magnetic nanostructures offer potential for spintronic devices
3D magnetic nanostructures possess unconventional spin and topological properties that render them very promising for use in future multi-functional technologies such as spintronics – the field that exploits both the charge and spin of electrons in solid-state devices. So far, most studies in the field have been restricted to computational and theoretical work as current fabrication techniques face challenges in producing proper 3D geometries and spin configurations. Using recently developed 3D nano-printing and magneto-optical tools, the EU-funded 3DNANOMAG project will carry out the first experimental investigation in advanced nanomagnetic systems with various complex 3D geometries, multi-layered materials and chiral spin configurations. Experimental work will be complemented with state-of-the-art magnetic microscopy and simulation techniques.
Objective
Three-dimensional (3D) nanomagnets, with unconventional spin and topological properties, are very promising systems for the future development of greener, more capable, multi-functional technologies. However, the significant experimental challenges associated with the fabrication and probing of 3D nanoscale geometries and spin configurations, have restricted most studies to date in this field, to either computational and theoretical works, or experiments in simple 3D geometries that do not fully exploit the potential of moving to three dimensions.
Making use of recently-developed 3D nano-printing and magneto-optical tools, the 3DNANOMAG project will carry out first experimental investigations in ultra-advanced nanomagnetic systems with a variety of complex 3D geometries, multi-layered materials and chiral spin configurations. These techniques will be combined with state-of-the-art magnetic microscopy and simulations, in collaboration with worldwide experts.
The project will study 3D nanowire conduits, where the magnetic state and propagation properties of domain walls and skyrmionic textures will be tailored via symmetry-breaking nano-curvature effects, leading to ground-breaking investigations in 3D spintronic devices. In addition, new types of topologically non-trivial spin textures and localised magnetic defects will be realised via the pioneering exploitation of 3D geometrical effects in multi-strand nanowires with strong interwire coupling.
To carry out the project, 2.6M€ are requested, which will be employed to form a research team working for 60 months, use of microscopy facilities and the purchase of nanofabrication equipment specially designed for the investigation of 3D nanostructures.
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Programme(s)
Funding Scheme
ERC-COG - Consolidator GrantHost institution
1040 Wien
Austria