Three-dimensional spintronic systems
Combining micro/nanoscale 3D additive manufacturing with thin-film growth and device fabrication to explore magnetic behavior in non-planar and three-dimensional geometries.
I am an experimental spintronics researcher working on spin textures and domain dynamics in three-dimensional spintronic systems. My work combines magnetic thin-film heterostructures, nanofabrication, Kerr microscopy, Brillouin light scattering, magnetotransport, and advanced magnetic characterization for racetrack-memory and skyrmion-based devices.
Combining micro/nanoscale 3D additive manufacturing with thin-film growth and device fabrication to explore magnetic behavior in non-planar and three-dimensional geometries.
Generation, motion, electrical detection, and functional-device concepts for magnetic skyrmions, including racetrack-memory, shift-register, and circulator geometries.
Magneto-optical Kerr microscopy, magnetotransport, Brillouin light scattering, and synchrotron-based imaging for magnetic domains, spin textures, and nanostructured devices.
Magnetron sputtering; electron-beam evaporation
Electron-beam lithography; direct laser writing; mask lithography; Ar ion milling; oxygen plasma cleaning
Focused electron-beam induced deposition (FEBID); two-photon lithography (TPL)
MOKE microscopy; magnetotransport with probe station/PPMS; vibrating sample magnetometry; magnetic force microscopy
Photoemission electron microscopy (PEEM); scanning transmission X-ray microscopy (STXM)
Brillouin light scattering; MOKE microscopy; MOKE magnetometry
Python; LabVIEW; MATLAB; COMSOL; Fortran; C
AutoCAD; Blender; ParaView; ImageJ; Igor Pro; OriginPro
Nature Electronics 3 (11), 672-679, 2020
Advanced Functional Materials 32 (1), 2107870, 2022
Physical Review Letters 125 (2), 027206, 2020
Physical Review Letters 128 (16), 167202, 2022
Nature Communications 15 (1), 1018, 2024
Physical Review Letters 134 (19), 196906, 2025