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dc.creatorComodromos E.M.en
dc.date.accessioned2023-01-31T07:47:47Z
dc.date.available2023-01-31T07:47:47Z
dc.date.issued2021
dc.identifier10.1016/j.tust.2021.104112
dc.identifier.issn08867798
dc.identifier.urihttp://hdl.handle.net/11615/72938
dc.description.abstractRecent research works into the design and response evaluation of deep diaphragm walls and induced settlements to adjacent buildings demonstrated that the nonlinear behavior of surrounding soil, cracking effects affecting the structural members’ flexural rigidity and spatial variability of soil parameters are a prerequisite for a rigorous analysis of serviceability performance. However, as a result of the complexity of the mechanisms developed in the case of deep multi-propped retaining structures, most of the proposed Soil Structure Interaction (SSI) design methodologies are biased towards geotechnical or structural behavior by adequately capturing the nonlinearities of the one field and considering a rather simplified behavior of the other. With the aim to bridge the gap between the above design methodologies, a fully coupled analysis of a multi-propped diaphragm wall of an underground station with a supporting grout slab at the excavation bottom has been carried out. Further to the nonlinear behavior of the soil, the spatial variability of the grout treated zone strength and stiffness together with the post-peak behavior have been considered. In addition, the concrete cracking effects, associated with substantial decrease of structural members’ stiffness, have been taken into account. Comparative simplified empirical approaches disregarding cracking effects by adopting constant diaphragm wall flexural rigidity instead, have been carried out as well. Interesting conclusions were drawn relating the results of the above simplified approaches and the Serviceability Limit State (SLS) analyses with regard to the response of the diaphragm wall, the bending moment distribution along the wall and the displacement field in the surrounding soil and adjacent buildings. © 2021en
dc.language.isoenen
dc.sourceTunnelling and Underground Space Technologyen
dc.source.urihttps://www.scopus.com/inward/record.uri?eid=2-s2.0-85111053809&doi=10.1016%2fj.tust.2021.104112&partnerID=40&md5=db540e91dbc79d5fcc3bbd39018450b1
dc.subjectBridgesen
dc.subjectConcrete constructionen
dc.subjectConcretesen
dc.subjectDiaphragmsen
dc.subjectGroutingen
dc.subjectMortaren
dc.subjectRigidityen
dc.subjectSoil structure interactionsen
dc.subjectStiffnessen
dc.subjectStructural designen
dc.subjectSubway stationsen
dc.subjectWalls (structural partitions)en
dc.subjectAdjacent buildingsen
dc.subjectConcrete cracking effecten
dc.subjectCracking effecten
dc.subjectDeep diaphragm wallen
dc.subjectDiaphragm wallen
dc.subjectGrout-treated soilen
dc.subjectMaterial spatial variability assessmenten
dc.subjectPost-peak behaviorsen
dc.subjectSoil-structure interactionen
dc.subjectSpatial variabilityen
dc.subjectSoilsen
dc.subjectbuildingen
dc.subjectconcrete structureen
dc.subjectcracking (fracture)en
dc.subjectdesignen
dc.subjectdiaphragm wallen
dc.subjectgrouten
dc.subjectnonlinearityen
dc.subjectsoil-structure interactionen
dc.subjectspatial variationen
dc.subjectElsevier Ltden
dc.titleAssessment of SSI interaction effects for deep diaphragm walls and adjacent buildings considering spatial variability of parameters, post-peak behavior and concrete crackingen
dc.typejournalArticleen


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