Jan Schmoranzer

The paper develops a workflow and tool to analyze the nanoscale organization of NET proteins, revealing periodic binding patterns resembling nucleosomes.

The paper identifies a novel pacemaker activity in Drosophila midgut called superstalsis, linked to specific muscle activation and gene expression under physiological conditions.

This study develops a multimodal imaging framework to analyze nanoscale reorganization of cytokinetic proteins during cell division, revealing a new substep and creating detailed molecular maps.

This study identifies Blobby as a novel regulator of presynaptic active zone nanopatterning and shows its role in maintaining Ca2+ channel packing density and synaptic function.

The paper identifies phosphorylation sites in PLPPR3 and shows that phosphorylation at S351 regulates its interaction with BASP1, suggesting a role for the PLPPR3-BASP1 complex in synaptic signaling.

The paper develops an unsupervised deep learning model for two-photon imaging data that incorporates structural knowledge to improve interpretability and modeling of neural activity.

The paper identifies MPP2 as a scaffold protein that links GABAA receptors to the postsynaptic density through super-resolution imaging and mass spectrometry.

This study shows RIM-BP2 has different roles in neurotransmitter release at hippocampal mossy fiber and pyramidal CA3-CA1 synapses, with RIM-BP2 promoting vesicle docking/priming at mossy fibers by recruiting Munc13-1.

DypFISH quantitatively investigates spatial and temporal subcellular localization of RNA and protein using micropatterning and fluorescence microscopy, revealing reproducible patterns and dynamics.