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UKM in Münster invites applications for a PhD Student (gn*) in Physiological Chemistry and Biochemistry. This fixed-term, 3-year position is 65% part-time with salary according to TV-L E13. Join Prof. Wegner’s ERC Lighthouse group to develop light-based cell-to-cell communication in synthetic and living cells.
The role emphasizes interdisciplinary research, advanced microscopy, and molecular biology techniques, with a strong focus on an autonomous, collaborative work style within a diverse team.
Fixed-term for 3 years | Part-time (65%) | Salary according to TV-L E13 | Institute for Physiological Chemistry and Biochemistry
We are UKM. We have a clear social mission and, with our focus on healthcare, research, and teaching, we bear a unique responsibility.
To meet our high standards every day, we are looking forward to your scientific expertise in the Institut für Physiologische Chemie und Pathobiochemie. In Prof. Seraphine Wegner’s research group, we investigate synthetic cell communication and develop light-based approaches to connect synthetic and living cells. As part of the ERC Consolidator Grant-Lighthouse, the project focuses on establishing and characterizing a non-chemical mode of cell-to-cell communication using visible light– ideally with you on board!
This project is part of the ERC Consolidator Grant-Lighthouse. Engineering cell-to-cell communication is fundamental –yet highly challenging– for programming multicellular systems and interfacing living and biomimetic synthetic cells. The problem lies in developing specific communication that is independent of existing chemical signaling and in connecting it to cell behavior. Both the high complexity of intercellular signaling in living cells and the fairly limited capabilities of synthetic cells severely restrict possibilities to engineer communication in and between these two realms. We will develop a new nonchemical mode of cell-to-cell communication that operates with light as a signal. The idea is to develop sender cells that produce visible light as a signal that corresponding receiver cells respond to. In this light-based communication, the signal will propagate at the speed of light independent of diffusion, will cross optically transparent barriers without the need for membrane transporters, and will allow communication even between physically separated cells. We will establish light-based communication in molecularly defined synthetic cells to decipher the central rules of this new mode of communication. Detailed characterization (light generation, response, distance, dynamics, orthogonality) of light-based communication will provide the framework for later programming of multicellular behavior. Ultimately, this will pave the way for the bottom-up assembly of multicellular architectures, enabling us to control precisely and dynamically their organization in space and time as well as regulate how cells work together.
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