Huang, PingCantoni, MarcoKruchkov, AlexRajeswari, JayaramanMagrez, ArnaudCarbone, FabrizioRonnow, Henrik M.2018-12-132018-12-132018-12-132018-08-0110.1021/acs.nanolett.8b02097https://infoscience.epfl.ch/handle/20.500.14299/151820WOS:000441478300075Exploiting additional degrees of freedom in solid-state materials may be the most-promising solution when approaching the quantum limit of Moore's law for the conventional electronic industry. Recently discovered topologically nontrivial spin textures, skyrmions, are outstanding among such possibilities. However, the controlled creation of skyrmions, especially by electric means, remains a pivotal challenge in technological applications. Here, we report that skyrmions can be created locally via electric field in the magnetoelectric helimagnet Cu2OSeO3. Using Lorentz transmission electron microscopy, we successfully write skyrmions in situ from a helical-spin background. Our discovery is highly coveted because it implies that skyrmionics can be integrated into modern field effect transistor based electronic technology, in which very low energy dissipation can be achieved and, hence, realize a large step forward toward its practical applications.Chemistry, MultidisciplinaryChemistry, PhysicalNanoscience & NanotechnologyMaterials Science, MultidisciplinaryPhysics, AppliedPhysics, Condensed MatterChemistryScience & Technology - Other TopicsMaterials SciencePhysicsskyrmionslorentz transmission electron microscopymultiferroicsskyrmion dynamicsimage processingmagnetic skyrmionschiral magnetlatticetransitiontext::journal::journal article::research article