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AuthorGačanin, Jasminadc.contributor.author
AuthorHedrich, Janadc.contributor.author
AuthorSieste, Stefaniedc.contributor.author
AuthorGlasser, Gunnardc.contributor.author
AuthorLieberwirth, Ingodc.contributor.author
AuthorSchilling, Corinnadc.contributor.author
AuthorFischer, Stephandc.contributor.author
AuthorBarth, Holgerdc.contributor.author
AuthorKnöll, Bernddc.contributor.author
AuthorSynatschke, Christopher V.dc.contributor.author
AuthorWeil, Tanjadc.contributor.author
Date of accession2023-06-05T12:08:56Zdc.date.accessioned
Available in OPARU since2023-06-05T12:08:56Zdc.date.available
Date of first publication2018-11-09dc.date.issued
AbstractThe synthesis of hybrid hydrogels by pH-controlled structural transition with exceptional rheological properties as cellular matrix is reported. “Depsi” peptide sequences are grafted onto a polypeptide backbone that undergo a pH-induced intramolecular O–N–acyl migration at physiological conditions affording peptide nanofibers (PNFs) as supramolecular gelators. The polypeptide–PNF hydrogels are mechanically remarkably robust. They reveal exciting thixotropic behavior with immediate in situ recovery after exposure to various high strains over long periods and self-repair of defects by instantaneous reassembly. High cytocompatibility, convenient functionalization by coassembly, and controlled enzymatic degradation but stability in 2D and 3D cell culture as demonstrated by the encapsulation of primary human umbilical vein endothelial cells and neuronal cells open many attractive opportunities for 3D tissue engineering and other biomedical applications.dc.description.abstract
Languageendc.language.iso
PublisherUniversität Ulmdc.publisher
LicenseCC BY-NC 4.0 Internationaldc.rights
Link to license texthttps://creativecommons.org/licenses/by-nc/4.0/dc.rights.uri
Keywordcell cultivationdc.subject
Keyworddepsi peptidedc.subject
Keywordhydrogelsdc.subject
Keywordpeptide nanofibersdc.subject
Dewey Decimal GroupDDC 530 / Physicsdc.subject.ddc
Dewey Decimal GroupDDC 540 / Chemistry & allied sciencesdc.subject.ddc
Dewey Decimal GroupDDC 620 / Engineering & allied operationsdc.subject.ddc
LCSHCell culturedc.subject.lcsh
LCSHColloidsdc.subject.lcsh
LCSHThixotropydc.subject.lcsh
TitleAutonomous ultrafast self-healing hydrogels by pH-responsive functional nanofiber gelators as cell matricesdc.title
Resource typeWissenschaftlicher Artikeldc.type
VersionpublishedVersiondc.description.version
DOIhttp://dx.doi.org/10.18725/OPARU-48926dc.identifier.doi
URNhttp://nbn-resolving.de/urn:nbn:de:bsz:289-oparu-49002-5dc.identifier.urn
GNDZellkulturdc.subject.gnd
GNDHydrogeldc.subject.gnd
GNDThixotropiedc.subject.gnd
FacultyFakultät für Naturwissenschaftenuulm.affiliationGeneral
FacultyMedizinische Fakultätuulm.affiliationGeneral
InstitutionInstitut für Anorganische Chemie I (Materialien und Katalyse)uulm.affiliationSpecific
InstitutionUKU. Institut für Pharmakologie und Toxikologieuulm.affiliationSpecific
InstitutionInstitut für Physiologische Chemieuulm.affiliationSpecific
Peer reviewjauulm.peerReview
DCMI TypeTextuulm.typeDCMI
CategoryPublikationenuulm.category
DOI of original publication10.1002/adma.201805044dc.relation1.doi
Source - Title of sourceAdvanced Materialssource.title
Source - Place of publicationWileysource.publisher
Source - Volume31source.volume
Source - Issue2source.issue
Source - Year2019source.year
Source - Article number1805044source.articleNumber
Source - ISSN0935-9648source.identifier.issn
Source - eISSN1521-4095source.identifier.eissn
EU project uulmAD-gut / Alzheimer Disease - gut connection / EC / H2020 / 686271uulm.projectEU
CommunityFakultät für Naturwissenschaftenuulm.community
CommunityMedizinische Fakultätuulm.community
CommunityUniversitätsklinikum Ulmuulm.community
WoS000455111100016uulm.identifier.wos
Bibliographyuulmuulm.bibliographie
Is Supplemented Byhttps://onlinelibrary.wiley.com/action/downloadSupplement?doi=10.1002%2Fadma.201805044&file=adma201805044-sup-0001-S1.pdfdc.relation.isSupplementedBy
DFG project uulmSFB 1149 Teilprojekt A04 / Zelltypspezifische Trägerproteine für die gezielte pharmakologische Hemmung der Rho-/Aktin-abhängigen Leukozyten-Rekrutierung in den Alveolarraum nach stumpfem Thoraxtrauma / DFG / 251293561uulm.projectDFG
DFG project uulmIdentification and functional characterization of novel nanofiber-growth factor hybrid molecules for regeneration in a mouse traumatic brain injury model / DFG / 441734479 [KN543/6]uulm.projectDFG
Project uulmSelf-assembling peptides as potent cell-type specific enhancers of retroviral gene transfer (extension) / Volkswagenstiftung / 89943uulm.projectOther


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