Cells recreated: a gel demonstrates how they process forces
Cells can withstand pressure and tension and respond to them. However, this can only be studied to a limited extent, as cells are quickly damaged by invasive procedures. Biophysics professor Betz therefore aims to create a simplified replica of a cell’s interior: he combines tiny particles and plastics to form a gel that resembles cell plasma. He then applies specific forces, as in living cells, to test whether his models are accurate and how cells process stress. To this end, he is working closely with the Max Planck Institute for Dynamics and Self-Organisation.
Project: From Cells to Smart Gels: A Momentum in Motion (Prof. Dr. Timo Betz, Universität Göttingen, approx. €950.000)
Making dialects visible: preserving linguistic diversity
Dialects are being supplanted worldwide by more standardised regional languages. AI systems, too, are usually based on standard language and ignore dialects and regional linguistic differences. Prof. Bouzouita wants to change that. She uses online participatory projects to collect linguistic data on a large scale and is expanding her work on 'computer dialectology'. To this end, she combines dialect and social research with computer-assisted methods and integrates these into her teaching. In this way, she aims to better capture linguistic differences, for example by region or gender – and help ensure that linguistic diversity remains visible.
Project: Every Voice Matters: Scaling Dialectology with Computational Methods (Prof. Dr. Miriam Bouzouita, Humboldt-Universität zu Berlin, approx. €940.000)
Networking molecular machines: programmable and deformable materials
Prof. Dube is developing tiny "molecular machines" that can be altered by light, for example, thereby triggering reactions or generating movement. So far, these components have mostly operated in isolation from one another. In his project, the researcher aims to combine several such machines to build new, adaptable and recyclable materials. These are intended to change shape, perform tasks and even process simple information. Initial goals include flexible, light-switchable displays and materials that move and deform themselves. In the long term, this could lead to applications in sensors and robotics.
Project: From Molecular Machines to Precision Programmable Materials (Prof. Dr. Henry Dube, Friedrich-Alexander-Universität Erlangen-Nürnberg, approx. €940.000)
Magnetism in 3D: Understanding skyrmions, developing new magnets
Prof. Everschor-Sitte is researching skyrmions, tiny stable vortices in a magnetic field. In her project, she aims to take the next step towards 3D magnetism in her research and help improve our understanding of new 3D images of magnetic fields. To this end, she intends to develop models and algorithms to analyse experiments involving three-dimensional magnets. She is also building a 3D platform, with the support of a virtual reality developer, to visualise and ‘manipulate’ magnetic fields. In the long term, this is intended to enable the development of new, resource-efficient magnets.
Project: Next-Generation Magnets – the Future is 3D! (Prof. Dr. Karin Everschor-Sitte, Universität Duisburg-Essen, approx. €950.000)