MagneDyn

Welcome to MagneDyn

The MagneDyn beamline at FERMI is a cutting-edge research tool that allows scientists to explore short-lived magnetic states in various materials. This opens up exciting new possibilities in areas such as ultrafast magnetism, advanced electronics, highly interconnected electron and magnetic systems, and carbon-based materials.
The beamline takes advantage of FERMI's advanced laser technology, which includes precise timing, full coherence, adjustable polarization, and the ability to produce multiple colors simultaneously. Two key techniques available at MagneDyn include the core level magneto-optical Kerr effect (MOKE) and core level elastic/inelastic scattering.
In order to study ultrafast magnetodynamics, or the rapid changes in a material's magnetic properties, researchers conduct "pump-and-probe" experiments. These experiments use the FERMI laser on its own or in combination with a synchronized optical laser (SLU) to stimulate and then measure changes in the target system's magnetic behavior following electronic and crystal excitations. Overall, the MagneDyn beamline provides a unique opportunity to explore the rapidly changing world of magnetic materials and their potential applications.

Research highlights | Publications

FEL2 circular polarized harmonics

Our latest research introduces a novel technique developed at the FERMI facility, showcasing the generation of elliptically polarized femtosecond pulses in the spectral range of 700-800 eV.

Magnetic proximity effect: insights from Ni/Si heterostructures

Our study marks a significant advancement in the understanding of metal-semiconductor interfaces, showcasing the magnetic proximity effect in Ni/Si interfaces with unprecedented clarity.

Review paper about the MagneDyn beamline

A recent publication in Review Scientific Instruments presents a thorough analysis of the MagneDyn beamline's key features and performance capabilities. This state-of-the-art facility has been specifically engineered for conducting ultrafast magnetodynamic studies in solid materials, offering researchers the opportunity to advance their understanding of this rapidly evolving field.

Ultrafast all-optical spin injection in silicon revealed at FERMI

A new paper on Optica reports the results about the all-optical spin injection in silicon investigated by element specific time-resolved Kerr effect.

magnetodynamics of a NiSi interface

A new paper on arXiv reports the results of an experiment carried out at MagneDyn about the magnetodynamics of a nichel/silicon interface.

New SLU Breadboard: Preparation and Control of Optical Laser at MagneDyn

The latest breadboard, specifically designed for the preparation and control of the optical laser at the MagneDyn beamline, is now fully operational. This state-of-the-art apparatus enhances the capacity to manage and manipulate the optical laser, ensuring precise and reliable experimental conditions for advanced scientific research conducted at the MagneDyn facility. The integration of this upgraded breadboard marks a significant milestone in the ongoing development and optimization of the beamline's capabilities.

Illustrative TONIX Data on Permalloy Sample

The TONIX dataset showcases time-resolved, element-specific Kerr rotation and relative change of magnetization measurements conducted on a Ni80Fe20 permalloy sample. These measurements are presented as a function of both time and photon energy, providing valuable insights into the sample's magnetic behavior under various conditions.

Pump-Probe Resonant X-Ray Emission Spectroscopy

The pump-probe resonant X-ray emission technique has been employed to investigate the valence band spectra of graphite at the carbon K-edge. This approach enables a detailed examination of the material's electronic structure and dynamic behavior under various excitation conditions.

carbon RXES

Carbon K-edge resonant x-ray fluorescence map from highly oriented pyrolytic graphite measured at MagneDyn.

EUV Polarimeter: Advancements in Polarization Detection

In the visible range, numerous polarimeters are available to discern the polarization state of light waves. However, the extreme ultraviolet (EUV) range is characterized by a scarcity of efficient and rapid polarimeters. To address this challenge, our team has developed an advanced polarimeter specifically designed for the EUV energy range. This innovative instrument is capable of detecting the linear polarization angle in single-pulse measurements, representing a significant enhancement in both technical and scientific capabilities for EUV polarization analysis. A. Caretta et al., Structural Dynamics 8, 034304 (2021)

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Reference papers

It's a good practice to report the associated proposal number in the acknowledgments. It's compulsory to report funding references for economically supported visits. The reference paper to be cited in your papers following measurements at the Magnedyn beamline:
The MagneDyn beamline at the Fermi free electron laser, Rev. Sci. Instrum. 93, 115109 (2022); https://doi.org/10.1063/5.0105261
MagneDyn: the beamline for magneto dynamics studies at FERMI, Journal of Synchrotron Radiation DOI: 10.1107/s1600577515022080

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Last Updated on Saturday, 27 April 2024 10:53