Munich Cluster for Systems Neurology (SyNergy)

Towards decoding spatial ubiquitination pattern in neurodegenerative diseases

Institute:
Munich Cluster for Systems Neurology (SyNergy)
Subject area:
Cell biology, Biochemistry, Proteomics, Animal model
Number of open position:
1
Project title:
Towards decoding spatial ubiquitination pattern in neurodegenerative diseases.
Project time:
Full Docotoral Study-Model: 48 months
Language requirements:
Proficiency in English
Academic requirements:
Master degree in Biological Sciences (i.e. Molecular Biology, Biochemistry, Cell Biology or similar). Applications must have excellent technical skills, an enthusiasm for using and developing new techniques, and the interpersonal ability to work within a diverse team of scientists. Experience with mouse experiments is preferred.

Project description:

Ubiquitination is key for protein homeostasis and molecular signaling in cells. Given that methods to map ubiquitin E3 ligase-substrate pairs are complex and resource intensive, we have recently developed a Ubiquitin (Ub)-specific proximity and orientation dependent (Ub-POD) labeling technique for E3 ligase-substrate pairs directly in cells (Mukhopadhyay et al. 2024; Mukhopadhyay et al. 2025). Having established a simple, scalable tool for the dissection of ubiquitin ligase substrates, we sought to tackle another challenging implication of the ubiquitin system and focus on the fact that cellular processes and pathways are often organized at the surface of cellular compartments where also regulation through ubiquitination occurs. Prominent examples are the cellular response to endolysosome membrane damage and inflammatory signaling. However, often the identity of ubiquitination targets and the molecular consequence of ubiquitination is only poorly understood. This project will develop Ub-POD into a technique that allows to ear mark local pools of ubiquitin at specific cellular locations with the ultimate goal to map local ubiquitinome dynamics of membranous and membrane-less compartments in cells. Our work will lead to a versatile method for probing compartment-specific ubiquitin signatures in health and disease states and has the capacity to create novel insight into ubiquitin and organelle biology with possible implications for AD, PD and ALS-FTD.

To applicants: Please send following initial application documents to LMU-CSC Office before 7th December:

  • Resume and Research Motivation Letter
  • Certificate of Proficiency in English, equivalent to IELTS Test Academic 6.5 (no module below 6) or TOEFL IBT 95, is required
  • Two letters of recommendation directly sent from your current Supervisors/Professors to LMU-CSC Office
Contact LMU-CSC Office: csc.international@lmu.de