Understanding ultrafast magnetization dynamics on the microscopic level is of strong current interest due to the potential for applications in information storage. In recent years, spin-lattice coupling has been recognized as essential for ultrafast magnetization dynamics. Magnetoelectric multiferroics of type II possess intrinsic correlations among magnetic sublattices and electric polarization (P) through spin-lattice coupling, enabling fundamentally coupled dynamics between spins and lattice. Here, we report on ultrafast magnetization dynamics in a room-temperature multiferroic hexaferrite possessing ferrimagnetic (FM) and antiferromagnetic sublattices, revealed by time-resolved resonant x-ray diffraction. A femtosecond above-bandgap exc...
We report on element-resolved ultrafast magnetization dynamics in multiferroic CoCr2O4 and Co0.975Ge...
Using a combination of first-principles and magnetization-dynamics calculations, we study the effect...
Stoner and Heisenberg excitations in magnetic materials are inherently different. The first involves...
Understanding ultrafast magnetization dynamics on the microscopic level is of strong current interes...
To gain control over magnetic order on ultrafast time scales, a fundamental understanding of the way...
Excitation of optical transitions in solids using ultrashort pulses of light allows to selectively p...
Ferrimagnetic alloys are model systems for understanding the ultrafast magnetization switching in ma...
The recent thrust in ultrafast magnetization dynamics aims at extending spintronic functionalities t...
Resonant ultrafast excitation of infrared-active phonons is a powerful technique with which to contr...
Using femtosecond time resolved resonant magnetic x ray diffraction at the Ho L3 absorption edge, we...
In spintronic materials, control and transport of magnetic order require a fundamental understanding...
We report on element resolved ultrafast magnetization dynamics in multiferroic CoCr2O4 and Co0.975Ge...
Ferromagnetic antidot arrays have emerged as a system of tremendous interest due to their interestin...
Optical control of magnetism, of interest for high-speed data processing and storage, has only been ...
We report on element-resolved ultrafast magnetization dynamics in multiferroic CoCr2O4 and Co0.975Ge...
Using a combination of first-principles and magnetization-dynamics calculations, we study the effect...
Stoner and Heisenberg excitations in magnetic materials are inherently different. The first involves...
Understanding ultrafast magnetization dynamics on the microscopic level is of strong current interes...
To gain control over magnetic order on ultrafast time scales, a fundamental understanding of the way...
Excitation of optical transitions in solids using ultrashort pulses of light allows to selectively p...
Ferrimagnetic alloys are model systems for understanding the ultrafast magnetization switching in ma...
The recent thrust in ultrafast magnetization dynamics aims at extending spintronic functionalities t...
Resonant ultrafast excitation of infrared-active phonons is a powerful technique with which to contr...
Using femtosecond time resolved resonant magnetic x ray diffraction at the Ho L3 absorption edge, we...
In spintronic materials, control and transport of magnetic order require a fundamental understanding...
We report on element resolved ultrafast magnetization dynamics in multiferroic CoCr2O4 and Co0.975Ge...
Ferromagnetic antidot arrays have emerged as a system of tremendous interest due to their interestin...
Optical control of magnetism, of interest for high-speed data processing and storage, has only been ...
We report on element-resolved ultrafast magnetization dynamics in multiferroic CoCr2O4 and Co0.975Ge...
Using a combination of first-principles and magnetization-dynamics calculations, we study the effect...
Stoner and Heisenberg excitations in magnetic materials are inherently different. The first involves...