Ernst Eckhard Koch Prize and Innovation Award Synchrotron Radiation
Martin Bluschke (MPI for Solid State Research, TU Berlin) receives the Ernst Eckhard Koch Prize from Mathias Richter for his outstanding dissertation. © Screenshot
The prize for innovation in synchrotron research went to Guiseppe Sansone, Luca Giannessi, Carlo Callegari and Kevin Prince. © Screenshot
This year, the Friends of HZB awarded the Ernst Eckhard Koch Prize to Dr. Martin Bluschke (MPI for Solid State Research and TU Berlin) for his outstanding doctoral thesis. The European Innovation Award for Synchrotron Radiation went to a team of four physicists for their work on the FERMI free electron laser at the Elettra synchrotron source in Trieste. The award ceremony took place at this year's HZB user meeting, which had to be held digitally this year.
The award ceremony was well attended with 197 spectators. The chairman of the Friends of HZB, Prof. Dr. Mathias Richter, led the award ceremony on screen and distributed hand-drawn bouquets of flowers as well as the award certificate. The prize committee had read the submitted proposals with great pleasure this year, he reported.
Ernst Eckhard Koch Prize 2020
The Ernst Eckhard Koch Prize went to Dr. Martin Bluschke, Max Planck Institute for Solid State Research in Stuttgart, who completed his doctorate in 2019 at the Technical University of Berlin. The title of his dissertation is: "Resonant x ray scattering studies of collective electronic states in cuprates and nickelates controlled by isovalent chemical substitution and epitaxial integration". Bluschke has been studying so-called collective states in solids at BESSY II, which are related to the phenomenon of superconductivity.
"Mr. Bluschke's dissertation reveals a deep understanding of physics. The numerous results are published to a high standard, which is also reflected by the number of citations," Richter quoted from the prize committee. Bluschke will continue his research at the University of British Columbia in Canada.
Innovation Award Synchrotron Radiation 2020
The Innovation Award Synchrotron Radiation 2020 went to Prof. Dr. Guiseppe Sansone (University of Freiburg), Dr. Luca Giannessi (Istituto Nazionale di Fisica Nucleare, Frascati, Italy), Dr. Carlo Callegari and Prof. Dr. Kevin Prince (Elettra, Trieste, Italy) for their achievements in the development and application of innovative investigation methods exploiting the radiation emitted by seeded free electron lasers at the FERMI free electron laser at Elettra in Trieste. The prize committee acknowledged "this development is of utmost importance for the future" and "concerns ground-braking experiments even on the attosecond scale". The Innovation Award Synchrotron Radiation is endowed with 3000 Euros and is sponsored by SPECS GmbH and BESTEC GmbH.
- BESSY II: Magnetic ‘microflowers’ enhance local magnetic fieldsA flower-shaped structure only a few micrometres in size made of a nickel-iron alloy can concentrate and locally enhance magnetic fields. The size of the effect can be controlled by varying the geometry and number of 'petals'. This magnetic metamaterial developed by Dr Anna Palau's group at the Institut de Ciencia de Materials de Barcelona (ICMAB) in collaboration with her partners of the CHIST-ERA MetaMagIC project, has now been studied at BESSY II in collaboration with Dr Sergio Valencia. Such a device can be used to increase the sensitivity of magnetic sensors, to reduce the energy required for creating local magnetic fields, but also, at the PEEM experimental station, to study samples under much higher magnetic fields than currently possible.
- Dr. Michelle Browne receives Daimler and Benz Foundation FellowshipMichelle Browne heads a Helmholtz Young Investigators Group on electrocatalysis at HZB. She has now been selected as a fellow of the Daimler and Benz Foundation. She will receive 40,000 euros over the next two years and, in addition, access to an excellent research network.
- Innovative battery electrode made from tin foamMetal-based electrodes in lithium-ion batteries promise significantly higher capacities than conventional graphite electrodes. Unfortunately, they degrade due to mechanical stress during charging and discharging cycles. A team at HZB has now shown that a highly porous tin foam is much better at absorbing mechanical stress during charging cycles. This makes tin foam an interesting material for lithium batteries.