New tool for Joint Lab to investigate the chemistry of nature

Intensity distribution of XUV light in the slit plane.

Intensity distribution of XUV light in the slit plane. © HZB/FU

Schematic picture for the high harmonic generation (HHG) light source (upper part) with zooming into the region of interaction with the liquid-phase sample (lower part).

Schematic picture for the high harmonic generation (HHG) light source (upper part) with zooming into the region of interaction with the liquid-phase sample (lower part). © HZB/FU

The Aziz’ team at the Joint Laboratory between Freie Universität Berlin and HZB has built a laser-based tabletop setup which generates ultrashort XUV light pulses and achieves their monochromatization by implementing special reflection zone plates, developed and produced by the team of Alexei Erko.

doi:10.1364/OE.22.010747

arö

  • Copy link

You might also be interested in

  • The twisted nanotubes that tell a story
    News
    09.12.2025
    The twisted nanotubes that tell a story
    In collaboration with scientists in Germany, EPFL researchers have demonstrated that the spiral geometry of tiny, twisted magnetic tubes can be leveraged to transmit data based on quasiparticles called magnons, rather than electrons.
  • Ernst Eckhard Koch Prize and Innovation Award on Synchrotron Radiation 2025
    News
    05.12.2025
    Ernst Eckhard Koch Prize and Innovation Award on Synchrotron Radiation 2025
    At the 27th BESSY@HZB User Meeting, the Friends of HZB honoured the dissertation of Dr Enggar Pramanto Wibowo (Friedrich-Alexander University Erlangen-Nuremberg). The Innovation Award on Synchrotron Radiation 2025 went to Prof. Tim Salditt (Georg-August-University Göttingen) and Professors Danny D. Jonigk and Maximilian Ackermann (both, University Hospital of RWTH Aachen University). 
  • Bright prospects for tin perovskite solar cells
    Science Highlight
    03.12.2025
    Bright prospects for tin perovskite solar cells
    Perovskite solar cells are widely regarded as the next generation photovoltaic technology. However, they are not yet stable enough in the long term for widespread commercial use. One reason for this is migrating ions, which cause degradation of the semiconducting material over time. A team from HZB and the University of Potsdam has now investigated the ion density in four different, widely used perovskite compounds and discovered significant differences. Tin perovskite semiconductors produced with an alternative solvent had a particular low ion density — only one tenth that of lead perovskite semiconductors. This suggests that tin-based perovskites could be used to make solar cells that are not only really environmentally friendly but also very stable.