3.2 Solids and Nanostructures: Electrons, Spins, and Phonons

Project coordinators: M. Woerner, C. Korff Schmising, von, S. Sharma

Recent Highlights

Ultrafast Plasmon-Enhanced Magnetic Bit Switching at the Nanoscale

Researchers from Max Born Institute have demonstrated a successful way to control and manipulate nanoscale magnetic bits — the building blocks of…

Optical control of phase and group velocities in everyday liquids

The phase and the group velocity of light propagating in conventional optical media cannot exceed the speed of light in vacuum. However, in so-called…

Intense laser pulses can be used to manipulate or even switch the magnetization orientation of a material on extremely short time scales. Typically,…

Magnetization can be switched with a single laser pulse. However, it is not known whether the underlying microscopic process is scalable to the…

High-harmonic generation (HHG), a phenomenon awarded the Nobel Prize in Physics for its realization in gases, has captivated researchers since its…

Materials that refuse to fit into theory are often the most fascinating. They challenge researchers to try harder to understand their peculiar…

An electron and the surrounding cloud of solvent dipoles couple through electric forces and can undergo joint collective motions. Such many-body…

We are delighted to announce that on June 26, 2023, Dr. Sangeeta Sharma has been installed as a professor at the FU Berlin, in a joint appointment…

The flow of matter, from macroscopic water currents to the microscopic flow of electric charge, underpins much of the infrastructure of modern times.…

Unlocking the secrets of magnetic materials requires the right illumination. Magnetic x-ray circular dichroism makes it possible to decode magnetic…

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