Welcome to the Young Investigator Network (YIN)
The Young Investigator Network (YIN) is the platform and democratic representation of interests for junior research group leaders and junior professors at the Karlsruhe Institut of Technology.
Visit the News Archive 2022 to learn what YIN members have recently achieved.
To ensure the continued stay of excellent young group leaders, KIT may announce a W1 professorship matching their respective fields of expertise. According to the Quality Assurance Concept for Junior Professorships and Tenure-track Professorships at KIT, heads of highly competitive, externally evaluated junior research groups can apply for such a position. This way, three further YIN members asserted themselves against the competition and were appointed: Emmy Noether Group leader Barbara Verfürth now holds a W1 professorship for Numerics of Partial Differential Equations and Helmholtz Young Investigator Group leader Christian Grams for Meteorology. Likewise leading an Emmy Noether Group, Philip Willke become W1 professor for Quantum Control of Spins on Surfaces.
Competitively awarded, the YIN Grants provide a small start-up budget for testing and further developing promising ideas. The best proposal is also recognized with the YIN Award signed by the Vice-President for Research. This year, it goes to Claudia Bizzarri and Manuel Tsotsalas. They aim to absorb CO2 from the environment and convert it into valuable chemicals using photoactive microporous metal-organic frameworks. Philip Willke and Pascal Friederich receive a YIN Grant to gain new physical insights by systematically analyzing data from scanning tunneling microscopy with machine learning. Katharina Scherf and Ulrike van der Schaaf will investigate how healthy plant oils can be transformed to take on butter-like qualities in fine bakery goods.YIN Grants
Bridging the divide between battery and capacitor technologies, scientists propose a continuous transition between the two energy storage mechanisms. Their goal is to combine the best out of both worlds: Batteries store a lot of energy but take time to charge; supercapacitors charge very quickly, but their energy density is limited. "By increasing the space for the electrolyte in the battery electrode, charge carriers can be embedded there with parts of their solvent shell," explains first author Simon Fleischmann. "Being increasingly covered by this shell, the interaction of the ions with the electrode continuously decreases and we observe the gradual transition to a double-layer behavior as in a supercapacitor."KIT news and video