All-optical control of the magnetization of polycrystalline exchange bias bilayer systems is achieved using short picosecond laser pulses. Due to the photoexcitation, the spin temperature across the interface between the ferromagnetic and antiferromagnetic layer is elevated, resulting in a collapse of the interfacial exchange coupling. Thus, within the first 10 ps, a fast reduction of both the exchange bias field and the coercive field is observed for three different exchange bias systems comprising both different ferromagnets and antiferromagnets. The fast thermal unpinning is followed by a slower heat diffusion dominated relaxation process, which strongly depends on the thermal conductivity of the used buffer layers and substrate...
The response of a ferromagnet/antiferromagnet exchange coupled bilayer to femtosecond laser heating ...
The study of magnetization dynamics such as magnetization precession and precessional damping provid...
6.10 Optical control of the magnetization in exchange biased NiFe/FeMn bilayers on the picosecond ti...
All-optical control of the magnetization of polycrystalline exchange bias bilayer systems is achieve...
The response of exchange coupled ferromagnet/antiferromagnet metallic bilayers to laser excitation d...
Ultrafast optical excitation of a ferromagnet/antiferromagnet (Ni/FeF2) exchange bias bilayer produc...
6.5 All-optical probe of precessional magnetization dynamics in exchange biased bilayer
The ability to control magnetism in sub-picosecond timescales using laser pulses has potential appli...
The spin dynamic response to femtosecond laser excitation in epitaxial Co/fct-Mn??001?? exchange-cou...
A novel, all-optical method to excite and detect spin waves in magnetic materials is presented. By e...
The need to study ultrafast processes in magnetism is due to the prospects for creating ultrafast ma...
We investigate the influence of spin currents during ultrafast laser-induced demagnetization of magn...
Thermally-assisted ultra-fast magnetization reversal in a DC magnetic field for magnetic multilayer ...
This work explores laser-induced, element-selective, femtosecond spin dynamics in ferromagnetic laye...
A novel, all-optical method to excite and detect spin waves in magnetic materials is presented. By e...
The response of a ferromagnet/antiferromagnet exchange coupled bilayer to femtosecond laser heating ...
The study of magnetization dynamics such as magnetization precession and precessional damping provid...
6.10 Optical control of the magnetization in exchange biased NiFe/FeMn bilayers on the picosecond ti...
All-optical control of the magnetization of polycrystalline exchange bias bilayer systems is achieve...
The response of exchange coupled ferromagnet/antiferromagnet metallic bilayers to laser excitation d...
Ultrafast optical excitation of a ferromagnet/antiferromagnet (Ni/FeF2) exchange bias bilayer produc...
6.5 All-optical probe of precessional magnetization dynamics in exchange biased bilayer
The ability to control magnetism in sub-picosecond timescales using laser pulses has potential appli...
The spin dynamic response to femtosecond laser excitation in epitaxial Co/fct-Mn??001?? exchange-cou...
A novel, all-optical method to excite and detect spin waves in magnetic materials is presented. By e...
The need to study ultrafast processes in magnetism is due to the prospects for creating ultrafast ma...
We investigate the influence of spin currents during ultrafast laser-induced demagnetization of magn...
Thermally-assisted ultra-fast magnetization reversal in a DC magnetic field for magnetic multilayer ...
This work explores laser-induced, element-selective, femtosecond spin dynamics in ferromagnetic laye...
A novel, all-optical method to excite and detect spin waves in magnetic materials is presented. By e...
The response of a ferromagnet/antiferromagnet exchange coupled bilayer to femtosecond laser heating ...
The study of magnetization dynamics such as magnetization precession and precessional damping provid...
6.10 Optical control of the magnetization in exchange biased NiFe/FeMn bilayers on the picosecond ti...