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
Physical Review Letters 125 (2), 027206, 2020
Nature Electronics 3 (11), 672-679, 2020
Nano Letters 22 (23), 9638-9644, 2022
Science Bulletin 69 (15), 2370-2378, 2024
Nature Communications 15 (1), 1018, 2024
Applied Physics Letters 126 (1), 2025