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dc.contributor.authorRamachandran, A
dc.contributor.authorMehić, M
dc.contributor.authorWasim, L
dc.contributor.authorMalinova, D
dc.contributor.authorGori, I
dc.contributor.authorBlaszczyk, BK
dc.contributor.authorCarvalho, DM
dc.contributor.authorShore, EM
dc.contributor.authorJones, C
dc.contributor.authorHyvönen, M
dc.contributor.authorTolar, P
dc.contributor.authorHill, CS
dc.date.accessioned2021-08-05T10:55:55Z
dc.date.available2021-08-05T10:55:55Z
dc.date.issued2021-07-15
dc.identifier.citationThe EMBO journal, 2021, 40 (14), pp. e106317 - ?
dc.identifier.issn0261-4189
dc.identifier.urihttps://repository.icr.ac.uk/handle/internal/4725
dc.identifier.eissn1460-2075
dc.identifier.doi10.15252/embj.2020106317
dc.description.abstractFibrodysplasia ossificans progressiva (FOP) and diffuse intrinsic pontine glioma (DIPG) are debilitating diseases that share causal mutations in ACVR1, a TGF-β family type I receptor. ACVR1R206H is a frequent mutation in both diseases. Pathogenic signaling via the SMAD1/5 pathway is mediated by Activin A, but how the mutation triggers aberrant signaling is not known. We show that ACVR1 is essential for Activin A-mediated SMAD1/5 phosphorylation and is activated by two distinct mechanisms. Wild-type ACVR1 is activated by the Activin type I receptors, ACVR1B/C. In contrast, ACVR1R206H activation does not require upstream kinases, but is predominantly activated via Activin A-dependent receptor clustering, which induces its auto-activation. We use optogenetics and live-imaging approaches to demonstrate Activin A-induced receptor clustering and show it requires the type II receptors ACVR2A/B. Our data provide molecular mechanistic insight into the pathogenesis of FOP and DIPG by linking the causal activating genetic mutation to disrupted signaling.
dc.formatPrint-Electronic
dc.format.extente106317 - ?
dc.languageeng
dc.language.isoeng
dc.publisherWILEY
dc.rights.urihttps://creativecommons.org/licenses/by/4.0
dc.titlePathogenic ACVR1R206H activation by Activin A-induced receptor clustering and autophosphorylation.
dc.typeJournal Article
dcterms.dateAccepted2021-03-26
rioxxterms.versionVoR
rioxxterms.versionofrecord10.15252/embj.2020106317
rioxxterms.licenseref.urihttps://creativecommons.org/licenses/by/4.0
rioxxterms.typeJournal Article/Review
dc.relation.isPartOfThe EMBO journal
pubs.issue14
pubs.notesNot known
pubs.organisational-group/ICR
pubs.organisational-group/ICR/Primary Group
pubs.organisational-group/ICR/Primary Group/ICR Divisions
pubs.organisational-group/ICR/Primary Group/ICR Divisions/Cancer Therapeutics
pubs.organisational-group/ICR/Primary Group/ICR Divisions/Cancer Therapeutics/Glioma Team
pubs.organisational-group/ICR/Primary Group/ICR Divisions/Molecular Pathology
pubs.organisational-group/ICR/Primary Group/ICR Divisions/Molecular Pathology/Glioma Team
pubs.organisational-group/ICR
pubs.organisational-group/ICR/Primary Group
pubs.organisational-group/ICR/Primary Group/ICR Divisions
pubs.organisational-group/ICR/Primary Group/ICR Divisions/Cancer Therapeutics
pubs.organisational-group/ICR/Primary Group/ICR Divisions/Cancer Therapeutics/Glioma Team
pubs.organisational-group/ICR/Primary Group/ICR Divisions/Molecular Pathology
pubs.organisational-group/ICR/Primary Group/ICR Divisions/Molecular Pathology/Glioma Team
pubs.publication-statusPublished
pubs.volume40
pubs.embargo.termsNot known
icr.researchteamGlioma Team
icr.researchteamGlioma Team
dc.contributor.icrauthorJones, Chris


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