Cleavage site-directed antibodies reveal the prion protein in humans is shed by ADAM10 at Y226 and associates with misfolded protein deposits in neurodegenerative diseases
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Published:2024-07-09
Issue:1
Volume:148
Page:
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ISSN:1432-0533
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Container-title:Acta Neuropathologica
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language:en
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Short-container-title:Acta Neuropathol
Author:
Song Feizhi, Kovac Valerija, Mohammadi Behnam, Littau Jessica L., Scharfenberg Franka, Matamoros Angles Andreu, Vanni Ilaria, Shafiq Mohsin, Orge Leonor, Galliciotti Giovanna, Djakkani Salma, Linsenmeier Luise, Černilec Maja, Hartman Katrina, Jung Sebastian, Tatzelt Jörg, Neumann Julia E., Damme Markus, Tschirner Sarah K., Lichtenthaler Stefan F., Ricklefs Franz L., Sauvigny Thomas, Schmitz Matthias, Zerr Inga, Puig Berta, Tolosa Eva, Ferrer Isidro, Magnus Tim, Rupnik Marjan S., Sepulveda-Falla Diego, Matschke Jakob, Šmid Lojze M., Bresjanac Mara, Andreoletti Olivier, Krasemann Susanne, Foliaki Simote T., Nonno Romolo, Becker-Pauly Christoph, Monzo Cecile, Crozet Carole, Haigh Cathryn L., Glatzel Markus, Curin Serbec Vladka, Altmeppen Hermann C.ORCID
Abstract
AbstractProteolytic cell surface release (‘shedding’) of the prion protein (PrP), a broadly expressed GPI-anchored glycoprotein, by the metalloprotease ADAM10 impacts on neurodegenerative and other diseases in animal and in vitro models. Recent studies employing the latter also suggest shed PrP (sPrP) to be a ligand in intercellular communication and critically involved in PrP-associated physiological tasks. Although expectedly an evolutionary conserved event, and while soluble forms of PrP are present in human tissues and body fluids, for the human body neither proteolytic PrP shedding and its cleavage site nor involvement of ADAM10 or the biological relevance of this process have been demonstrated thus far. In this study, cleavage site prediction and generation (plus detailed characterization) of sPrP-specific antibodies enabled us to identify PrP cleaved at tyrosin 226 as the physiological and apparently strictly ADAM10-dependent shed form in humans. Using cell lines, neural stem cells and brain organoids, we show that shedding of human PrP can be stimulated by PrP-binding ligands without targeting the protease, which may open novel therapeutic perspectives. Site-specific antibodies directed against human sPrP also detect the shed form in brains of cattle, sheep and deer, hence in all most relevant species naturally affected by fatal and transmissible prion diseases. In human and animal prion diseases, but also in patients with Alzheimer`s disease, sPrP relocalizes from a physiological diffuse tissue pattern to intimately associate with extracellular aggregated deposits of misfolded proteins characteristic for the respective pathological condition. Findings and research tools presented here will accelerate novel insight into the roles of PrP shedding (as a process) and sPrP (as a released factor) in neurodegeneration and beyond.
Funder
Creutzfeldt-Jakob Disease Foundation Alzheimer Forschung Initiative Werner Otto Stiftung Deutsche Forschungsgemeinschaft China Scholarship Council Slovene Research Agency Division of Intramural Research, National Institute of Allergy and Infectious Diseases Horizon 2020 Framework Programme Universitätsklinikum Hamburg-Eppendorf (UKE)
Publisher
Springer Science and Business Media LLC
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