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École Polytechnique Fédérale de Lausanne (EPFL)

PhD position on map life at the single nanometer scale

Physics
Unverified
Last checked: 2026-08-28
DegreePhD
Program typeNot found
DurationNot found
CampusNot found
Data completeness19/29 · 66%

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School of Life Sciences Open Position: PhD student Help us map life at the single-nanometer scale. Come and join us in beautiful Lausanne! In addition to breathtaking landscapes and an international environment, Switzerland offers exceptionally strong research funding. École Polytechnique Fédérale de Lausanne (EPFL) is one of the leading research institutions in Europe and among the top in the world. About the Schueder Lab The lab is interested in leveraging DNA nanotechnology to design, test, and apply smart probes that push the boundaries of fluorescence microscopy in terms of spatial resolution, throughput, quantitative imaging, and single nanometer proximity mapping (molecular connectomics). Furthermore, we aim to advance both conventional and super-resolution multiplexed imaging (DNA-PAINT, FLASH-PAINT) toward imaging-based spatial omics. We are interested in applying the technology to microbiology and microbiome research, but our focus is not limited to these areas. The opportunity The Schueder Lab (Molecular Spatial Omics Laboratory) at the Institute of Bioengineering, École Polytechnique Fédérale de Lausanne (EPFL), is looking for up to two passionate and driven graduate students to join the lab as early as January 1st, 2026, to contribute to interdisciplinary projects centered around the lab’s focus as described above. The ideal candidate is passionate about multiple — ideally all — of the following areas of research: • Nanotechnology: Design of new DNA-based imaging probes and the use of DNA origami nanotechnology to benchmark newly developed probes. • Biochemistry: Design, construction, and validation of novel binders for labeling and imaging cellular proteins, RNA, and DNA. • Optics & Microfluidics: Development of custom microscopy setups and microfluidic systems to leverage the full potential of smart probe microscopy. • Computation: Development of new workflows to analyze, interpret, and model the high-dimensional spatial omics data we acquire. If you are interested, please send your CV, a brief statement of motivation, and ideally two references to fschueder@ethz.ch References: F. Schueder°, F. Rievera-Molina, M. Su., Z. Marin, P. Kidd, J. E. Rothman, D. K. Toomre, J. Bewersdorf° Unraveling cellular complexity with Transient Adapters in highly multiplexed super-resolution imaging Cell (2024), [°Co-corresponding authors] F. Schueder†, J. Lara-Gutiérrez†, D. Haas, K. Sandvold Beckwith, P. Yin, J. Ellenberg, R. Jungmann Super-resolution spatial proximity detection with proximity-PAINT Angewandte Chemie. (2020), 2, 716-720 [†Co-first authors] F. Schueder, J. Stein, F. Stehr, A. Auer, B. Sperl, M.T. Strauss, P. Schwille, R. Jungmann An order of magnitude faster DNA-PAINT imaging by optimized sequence design and buffer conditions. Nature Methods. (2019). 16, 1101-1104 F. Schueder, J. Lara-Gutiérrez, B.J. Beliveau, S.K. Saka, H.M. Sasaki, J.B. Woehrstein, M.T. Strauss, H. Grabmayr, P. Yin°, R. Jungmann°
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