We investigate the influence of spin currents during ultrafast laser-induced demagnetization of magnetic bilayer structures by a new all-optical method to measure material- and/or depth-resolved magnetization dynamics. By describing the magneto-optical response of the bilayers in the complex Kerr plane, it is shown that the material-specific magnetization dynamics of the individual layers can be measured by a marginal adjustment to any conventional time-resolved magneto-optical Kerr effect setup. We use this technique to trace superdiffusive spin currents in magnetic Ni/Fe bilayers, providing new insight on its importance to ultrafast laser-induced demagnetization
Spin currents can be generated on an ultrafast time scale by excitation of a ferromagnetic (FM) thin...
Recent developments in ultrafast laser-induced magnetization dynamics will be presented. Particular ...
Spin currents have an important role in many proposed spintronic devices, as they govern the switchi...
We investigate the influence of spin currents during ultrafast laser-induced demagnetization of magn...
We investigate the influence of spin currents during ultrafast laser-induced demagnetization of magn...
We investigate the influence of spin currents during ultrafast laser-induced demagnetization of magn...
We investigate the influence of spin currents during ultrafast laser-induced demagnetization of magn...
This work explores laser-induced, element-selective, femtosecond spin dynamics in ferromagnetic laye...
The study of ultrafast dynamics in magnetic materials provides rich opportunities for greater fundam...
Even twenty years after the discovery of ultrafast demagnetization of ferromagnetic materials induce...
Recent developments in ultrafast laser-induced magnetization dynamics will be presented. Particular ...
Recent developments in ultrafast laser-induced magnetization dynamics will be presented. Particular ...
Recent developments in ultrafast laser-induced magnetization dynamics will be presented. Particular ...
Spin currents can be generated on an ultrafast time scale by excitation of a ferromagnetic (FM) thin...
Recent developments in ultrafast laser-induced magnetization dynamics will be presented. Particular ...
Spin currents can be generated on an ultrafast time scale by excitation of a ferromagnetic (FM) thin...
Recent developments in ultrafast laser-induced magnetization dynamics will be presented. Particular ...
Spin currents have an important role in many proposed spintronic devices, as they govern the switchi...
We investigate the influence of spin currents during ultrafast laser-induced demagnetization of magn...
We investigate the influence of spin currents during ultrafast laser-induced demagnetization of magn...
We investigate the influence of spin currents during ultrafast laser-induced demagnetization of magn...
We investigate the influence of spin currents during ultrafast laser-induced demagnetization of magn...
This work explores laser-induced, element-selective, femtosecond spin dynamics in ferromagnetic laye...
The study of ultrafast dynamics in magnetic materials provides rich opportunities for greater fundam...
Even twenty years after the discovery of ultrafast demagnetization of ferromagnetic materials induce...
Recent developments in ultrafast laser-induced magnetization dynamics will be presented. Particular ...
Recent developments in ultrafast laser-induced magnetization dynamics will be presented. Particular ...
Recent developments in ultrafast laser-induced magnetization dynamics will be presented. Particular ...
Spin currents can be generated on an ultrafast time scale by excitation of a ferromagnetic (FM) thin...
Recent developments in ultrafast laser-induced magnetization dynamics will be presented. Particular ...
Spin currents can be generated on an ultrafast time scale by excitation of a ferromagnetic (FM) thin...
Recent developments in ultrafast laser-induced magnetization dynamics will be presented. Particular ...
Spin currents have an important role in many proposed spintronic devices, as they govern the switchi...