AF
Aurore Finco
Laboratoire Charles Coulomb, Universität Hamburg Department Physik, École Normale Supérieure
Research areas: Physics and Astronomy · Condensed Matter Physics · Magnetic properties of thin films · Advanced Condensed Matter Physics · Diamond and Carbon-based Materials Research
Employment
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Laboratoire Charles Coulomb CNRS researcher2021 - Present
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Laboratoire Charles Coulomb Postdoc2018 - 2021
Education
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Universität Hamburg Department Physik2014 - 2018
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École Normale Supérieure2011 - 2015
Projects & Funding
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Direct Imaging and Manipulation of Antiferromagnets European Commission2019 - 2021
Publications (19)
- Stability of the In-Plane Room Temperature van der Waals Ferromagnet Chromium Ditelluride and Its Conversion to Chromium-Interleaved CrTe2 Compounds Save
- Magnetic Imaging with Spin Defects in Hexagonal Boron Nitride Save
- Imaging Topological Defects in a Noncollinear Antiferromagnet Save
- Quantitative Imaging of Exotic Antiferromagnetic Spin Cycloids in BiFeO3 Thin Films Save
- Quantitative study of the response of a single NV defect in diamond to magnetic noise Save
- Antiferromagnetic textures in BiFeO3 controlled by strain and electric field Save
- Imaging non-collinear antiferromagnetic textures via single spin relaxometry Save
- Room-Temperature Skyrmions at Zero Field in Exchange-Biased Ultrathin Films Save
- Electric and antiferromagnetic chiral textures at multiferroic domain walls Save
- Tuning noncollinear magnetic states by hydrogenation Save
- Guiding Spin Spirals by Local Uniaxial Strain Relief (vol 116, 017201, 2016) Save
- Inducing skyrmions in ultrathin Fe films by hydrogen exposure Save
- Magnetic domain walls in strain-patterned ultrathin films Save
- Electric-field-driven switching of individual magnetic skyrrnions Save
- Temperature-Induced Increase of Spin Spiral Periods Save
- Dimensional Reduction in Quantum Dipolar Antiferromagnets Save
- Guiding Spin Spirals by Local Uniaxial Strain Relief Save
- Tailoring noncollinear magnetism by misfit dislocation lines Save
- Neutron spectroscopic study of crystal-field excitations and the effect of the crystal field on dipolar magnetism in LiRF4 (R = Gd, Ho, Er, Tm, and Yb) Save