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Field
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. The main goal of this approach is that the ferromagnetic configuration can be altered by an electric field rather than a magnetic field, which requires much less electric power and which is much more adapted
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of magnetism in advanced materials. We are seeking to recruit a talented, enthusiastic young experimental scientist who is highly motivated to boost his/her research career in the area of nanoscience to join a
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, with a focus on 2D magnets and 2D superconductors. Where to apply Website https://emploi.cnrs.fr/Offres/Doctorant/UMR5221-VINJAC-003/Default.aspx Requirements Research FieldPhysicsEducation LevelMaster
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PhD position in Experimental Physics with focus on photonics and materials science (applied aspects)
education to enable regions to expand quickly and sustainably. In fact, the future is made here. The Department of Physics at Umeå University (https://www.umu.se/en/department-of-physics/ ) conducts strong
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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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and sub-ns timescales and conversely how magnetic switching could influence the dynamics of photoexcited states, which would bring considerable progress in the design of performing materials
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that drive ordering. Using world-class experimental research facilities, you will synthesize frustrated magnetic materials, determine their equilibrium states using neutron scattering, and drive them far from
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characterization of materials’ magnetic, electronic and structural properties. Experience in spectroscopy and microscopy is valuable Knowledge in programming (Python) and 3D modelling will be valuable Availability
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Superconductivity High-temperature critical superconducting (HTS) materials, particularly those based on REBCO, enable the development of fully superconducting magnets capable of generating very high magnetic fields
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characterized by strong electronic correlations; these systems exhibit remarkable properties and unconventional electronic states, such as superconductivity, magnetism, metal-insulator transitions, and more. The