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On a critical geometry of a crack arrested at a bimaterial interface

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    SYSNO ASEP0385401
    Document TypeK - Proceedings Paper (Czech conf.)
    R&D Document TypeConference Paper
    TitleOn a critical geometry of a crack arrested at a bimaterial interface
    Author(s) Ševčík, Martin (UFM-A) RID
    Zouhar, Michal (UFM-A)
    Máša, Bohuslav (UFM-A)
    Hutař, Pavel (UFM-A) RID, ORCID
    Náhlík, Luboš (UFM-A) RID, ORCID
    Number of authors5
    Source Title14th International conference Applied Mechanics 2012 - Conference proceedings. - Plzeň : Západočeská univerzita v Plzni, 2012 / Lukeš V. ; Hajžman M. ; Byrtus M. - ISBN 978-80-261-0097-3
    S. 141-144
    Number of pages4 s.
    Publication formMedium - C
    ActionApplied Mechanics 2012
    Event date16.04.2012-18.04.2012
    VEvent locationPlzeň
    CountryCZ - Czech Republic
    Event typeEUR
    Languageeng - English
    CountryCZ - Czech Republic
    Keywordsfracture mechanics of an interface ; generalized stress intensity factor ; crack
    Subject RIVJL - Materials Fatigue, Friction Mechanics
    R&D ProjectsGD106/09/H035 GA ČR - Czech Science Foundation (CSF)
    GAP108/12/1560 GA ČR - Czech Science Foundation (CSF)
    Institutional supportUFM-A - RVO:68081723
    AnnotationSurface crack propagation in a thin soft protective layer on a massive stiffer substrate is analyzed using generalized linear elastic fracture mechanics. The growth of the initial crack is considered in both forward and sideways directions and the influence of the interface between the protective layer and massive substrate on the final crack configuration is investigated. It is shown that, depending on the elastic mismatch, the part of the crack front can be arrested at the interface protective layer/substrate and the rest of the crack grows continuously sideways only. The effective value of the stress intensity factor is used in order to predict the conditions under which the crack will propagate through the interface into the second material. Corresponding calculations have been made by finite element method.
    WorkplaceInstitute of Physics of Materials
    ContactYvonna Šrámková, sramkova@ipm.cz, Tel.: 532 290 485
    Year of Publishing2013
Number of the records: 1  

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