Ilya Krivorotov
Professor, Physics & Astronomy
School of Physical Sciences
School of Physical Sciences
Ph.D., University of Minnesota, 2002, Physics
University of California, Irvine
310E Rowland Hall
Irvine, CA 92697
310E Rowland Hall
Irvine, CA 92697
Research Interests
Nanoelectronics and nanospintronics, spin dynamics in magnetic nanostructures.
Appointments
Cornell University 2002-2005, postdoc
Research Abstract
Our research themes are focused on physical phenomena resulting from the interactions between magnetic, electronic, and lattice degrees of freedom in lithographically defined and self-assembled nanostructures.
Research directions currently pursued in our lab include:
- spin currents and spin angular momentum transfer in ferromagnetic nanostructures
- spin-orbit torques
- spin caloritronics
- topological spintronics
- nonlinear magnetization dynamics of nanoscale ferromagnets
- nanoscale magnetic tunnel junctions and spin torque magnetic memory (STT-MRAM)
- proximity effect in ferromagnet/superconductor nanostructures
- dynamics of magnetic textures in ferromagnetic nanostructures
- non-equilibrium magnetic phase transitions driven by spin current
- magneto-electric effect in nanostructures
Our research relies on design and development of new nanoscale electronic devices using state-of-the-art nanofabrication techniques, which involves growth of ultrathin films and multilayers using ultra high vacuum deposition tools. Experimental measurements of electronic processes in these nanoscale devices are typically carried out with sub-nanosecond time resolution at cryogenic temperatures.
Research directions currently pursued in our lab include:
- spin currents and spin angular momentum transfer in ferromagnetic nanostructures
- spin-orbit torques
- spin caloritronics
- topological spintronics
- nonlinear magnetization dynamics of nanoscale ferromagnets
- nanoscale magnetic tunnel junctions and spin torque magnetic memory (STT-MRAM)
- proximity effect in ferromagnet/superconductor nanostructures
- dynamics of magnetic textures in ferromagnetic nanostructures
- non-equilibrium magnetic phase transitions driven by spin current
- magneto-electric effect in nanostructures
Our research relies on design and development of new nanoscale electronic devices using state-of-the-art nanofabrication techniques, which involves growth of ultrathin films and multilayers using ultra high vacuum deposition tools. Experimental measurements of electronic processes in these nanoscale devices are typically carried out with sub-nanosecond time resolution at cryogenic temperatures.
Professional Societies
American Physical Society
IEEE Magnetics Society
Link to this profile
https://services.research.uci.edu/fps/profile/?facultyId=5305
https://services.research.uci.edu/fps/profile/?facultyId=5305
Last updated
06/17/2021
06/17/2021