The luminescent atoms in the image show a nanocrystal which is characterized with atomistic resolution, including its interface chemistry. experimental and theoretical approaches. Published with permission by Nature Publishing Group. Copyright: Peter Allen

 

New artificial materials for semiconductors used in solar cells or photoelectrochemical cells that are designed from scratch with totally new and tailored properties: this is the latest research topic of Stefan Wippermann, head of the group “Atomistic Modelling“ at the Max-Planck-Institut für Eisenforschung), and his team. They characterized for the first time with atomic resolution a typical material system and are able to set design principles.

When graphene nanoribbons contain sections of varying width, very robust new quantum states can be created in the transition zone. Empa

Empa researchers, together with researchers from the Max Planck Institute for Polymer Research in Mainz and other partners, have achieved a breakthrough that could in future be used for precise nanotransistors or - in the distant future - possibly even quantum computers, as the team reports in the current issue of the scientific journal «Nature».

Signal receptor-containing vesicles (red) form on the inside of the cell membrane (brown) and bud off into the cell. Visualization: Thomas Splettstößer

If certain signaling cascades are misregulated, diseases like cancer, obesity and diabetes may occur. A mechanism recently discovered by scientists at the Leibniz- Forschungsinstitut für Molekulare Pharmakologie (FMP) in Berlin and at the University of Geneva has a crucial influence on such signaling cascades and may be an important key for the future development of therapies against these diseases. The results of the study have just been published in the prestigious scientific journal 'Molecular Cell'.

Probe station with patterned OLEDs in the clean room of Fraunhofer FEP. © Fraunhofer FEP

OLED microdisplays are increasingly establishing themselves in wearables and data glasses. In order to meet the requirements for higher efficiency, higher contrast, and higher resolutions in these applications, Fraunhofer FEP scientists have developed a new micropatterning approach for OLEDs on silicon substrates. This might eliminate the use of color filters and shadow masks in the future and allow full-color displays to be developed by means of a new process.