Towards the development of novel self-sensing and self-healing methodologies in polymer matrix composites

dc.contributor.authorΜπέκας, Δημήτριοςel
dc.date.accessioned2019-05-06T07:50:25Z
dc.date.available2019-05-06T07:50:25Z
dc.identifier.urihttps://olympias.lib.uoi.gr/jspui/handle/123456789/29364
dc.identifier.urihttp://dx.doi.org/10.26268/heal.uoi.1416
dc.rightsDefault License
dc.subjectComposite materialsen
dc.subjectSelf-healingen
dc.subjectCarbon nanotubesen
dc.subjectNon-destructive evaluationen
dc.subjectSmart materialsen
dc.subjectΣύνθετα υλικάel
dc.subjectAυτό-ίασηel
dc.subjectNανοσωλήνες άνθρακαel
dc.subjectMη-καταστρεπτική αξιολόγησηel
dc.subjectΈξυπνα υλικάel
dc.titleTowards the development of novel self-sensing and self-healing methodologies in polymer matrix compositesen
dc.titleΑνάπτυξη καινοτόμων μεθόδων αυτό-διάγνωσης και αυτό-ίασης της υποβάθμισης σε σύνθετα υλικά πολυμερικής μήτραςel
heal.abstractFibre reinforced polymer (FRP) composites are becoming excellent candidates to address significant weight reductions in several industrial sectors such as the aerospace, automotive, naval and renewable energy. The Achilles' heel of advanced FRP composites centers around the poor interlaminar fracture toughness that may lead to undetected damage within the microstructure deteriorating the mechanical performance. The purpose of the present work unfolds in two axes, (i) to develop a novel Non- Destructive Evaluation technique based on Impedance Spectroscopy for the damage assessment of nanomodified FRP composites. This study aims to providing an insight in the damage mechanisms that occur in FRPs during their active lifetime under different loading scenarios (mechanical or environmental loading), (ii) to develop and employ three “tailor-on-demand” self-healing strategies to counterbalance the aforementioned damage mechanisms and restore specific functionalities in the composite. The healing performance of all the adopted self-healing concepts showed remarkable results both at polymer and composite level.en
heal.academicPublisherΠανεπιστήμιο Ιωαννίνων. Πολυτεχνική Σχολή. Τμήμα Μηχανικών Επιστήμης Υλικώνel
heal.academicPublisherIDuoi
heal.accessfree
heal.advisorNameΠαϊπέτης, Αλκιβιάδηςel
heal.bibliographicCitationΒιβλιογραφία: σ. 191-195el
heal.classificationComposite materialsen
heal.committeeMemberNameΠαϊπέτης, Αλκιβιάδηςel
heal.committeeMemberNameΜατίκας, Θεόδωροςel
heal.committeeMemberNameΚοντού-Δρούγκα, Ευαγγελίαel
heal.committeeMemberNameΑυγερόπουλος, Απόστολοςel
heal.committeeMemberNameΜπέλτσιος, Κωνσταντίνοςel
heal.committeeMemberNameΜπάρκουλα, Νεκταρία-Μαριάνθηel
heal.committeeMemberNameΓεργίδης, Λεωνίδαςel
heal.dateAvailable2019-05-06T07:51:25Z
heal.fullTextAvailabilitytrue
heal.languageen
heal.numberOfPages207 σ.
heal.publicationDate2017
heal.recordProviderΠανεπιστήμιο Ιωαννίνων. Πολυτεχνική Σχολή. Τμήμα Μηχανικών Επιστήμης Υλικώνel
heal.typedoctoralThesis
heal.type.elΔιδακτορική διατριβήel
heal.type.enDoctoral thesisen

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