Year: 2026
Type: article
Abstract: The glycocalyx is a complex layer of glycosylated molecules that surrounds all cells in the human body. It is involved in regulating critical cellular processes, including immune response modulation, cell adhesion and host-pathogen interactions. Despite these insights, the functional relationship between the glycocalyx architecture and cellular state has remained elusive, largely due to the structural diversity of glycocalyx constituents and their nanoscale organization. Here we show that DNA-tagged lectin labelling and metabolic oligosaccharide engineering enable multiplexed super-resolution microscopy of the glycocalyx constituents, yielding an atlas of glycocalyx architecture with nanometre resolution. Quantitative analysis of the obtained nanoscale map of glycocalyx constituents facilitates the extraction of characteristic spatial relationships that accurately report on the cellular state. We demonstrate the capacity of our approach, which we term glycan atlassing, across cell and tissue types, ranging from cultured cell lines to primary immune cells, neurons and primary patient tissue. Glycan atlassing establishes a transformative strategy for investigating glycocalyx remodelling in development and disease, potentially enabling the development of glycocalyx-centred targets in diagnosis and therapy.
Source: Nature Nanotechnology
Language: English
Subfield: Molecular Biology
Domain: Life Sciences
Open Access status: hybrid
Estimated APC paid: $12,690
Awards: G104840159, G2143627703, G5188208403, Aufklärung der Rolle der Interaktion zwischen Siglecs und ihren Liganden für die Immunzellregulation durch superhochauflösende Mikroskopie und Einzelmolekül/Einzelpartikelverfolgung, GRK 2162: Entwicklung und Vulnerabilität des Zentralnervensystems, SFB 1540: Erforschung der Mechanik des Gehirns (EBM):
Verständnis, Engineering und Nutzung mechanischer Eigenschaften und Signale in der Entwicklung, Physiologie und Pathologie des zentralen Nervensystems, Unfolding the dynamic interplay of mechanical and molecular processes in brain folding
OpenAlex ID: W7161140023
