Seismic Behaviour of SMA-Reinforced Slender Concrete Shear Walls

dc.contributor.advisorPalermo, Dan
dc.contributor.authorMorcos, Mena
dc.date.accessioned2021-07-06T12:51:59Z
dc.date.available2021-07-06T12:51:59Z
dc.date.copyright2021-04
dc.date.issued2021-07-06
dc.date.updated2021-07-06T12:51:59Z
dc.degree.disciplineCivil Engineering
dc.degree.levelMaster's
dc.degree.nameMASc - Master of Applied Science
dc.description.abstractSuperelastic Shape Memory Alloys (SE-SMA) have provided a viable novel alternative to conventional steel reinforcement for the construction of earthquake-resilient structures. The capacity of SE-SMA to recover from high strains upon unloading provides the mechanism required to develop self-centering smart structures. Shear walls are routinely used seismic force resisting systems in concrete construction, which makes them qualified candidates for the application of SE-SMA longitudinal reinforcement. The integration of SE-SMA into a hybrid-reinforced flexural system is expected to rectify inelastic lateral displacements and economize the cost of post-disaster repair. A large-scale slender superelastic Nitinol-reinforced concrete shear wall was tested numerically and experimentally, along with a control specimen, under quasi-static load reversals to assess seismic performance. The results of the SE-SMA wall demonstrated efficient dissipation of seismic energy to achieve high drift recovery and easily repairable damage, suggesting a low probability of demolition and substantial savings over the lifetime of the structure.
dc.identifier.urihttp://hdl.handle.net/10315/38489
dc.languageen
dc.rightsAuthor owns copyright, except where explicitly noted. Please contact the author directly with licensing requests.
dc.subjectCivil engineering
dc.subject.keywordsearthquake
dc.subject.keywordsseismic
dc.subject.keywordsconcrete
dc.subject.keywordsreinforcement
dc.subject.keywordsNitinol
dc.subject.keywordsshape memory alloys
dc.subject.keywordsSMA
dc.subject.keywordssuperelastic
dc.subject.keywordsSE-SMA
dc.subject.keywordsself-center
dc.subject.keywordsself-centering
dc.subject.keywordsself-centering smart structures
dc.subject.keywordsstrain recovery
dc.subject.keywordsdrift recovery
dc.subject.keywordsslender wall
dc.subject.keywordsshear wall
dc.subject.keywordswall
dc.subject.keywordsalternative reinforcement
dc.subject.keywordsearthquake resilient
dc.subject.keywordsstructural resiliency
dc.subject.keywordssmart material
dc.subject.keywordssmart structures
dc.subject.keywordsperformance-based
dc.subject.keywordsperformance-based seismic design
dc.subject.keywordsstructural
dc.subject.keywordsbuildings
dc.subject.keywordsreinforced concrete
dc.subject.keywordssustainable
dc.subject.keywordssustainability
dc.subject.keywordsflexural
dc.subject.keywordshybrid-reinforced flexural system
dc.subject.keywordsrepairable damage
dc.subject.keywordspost-disaster repair
dc.subject.keywordsexperimental
dc.subject.keywordsdemolition
dc.subject.keywordsslender superelastic Nitinol-reinforced concrete shear wall
dc.subject.keywordslateral displacement
dc.subject.keywordslongitudinal reinforcement
dc.subject.keywordsfinite element model
dc.subject.keywordsnon-linear finite element analysis
dc.subject.keywordsNLFEA
dc.subject.keywordsconstitutive model
dc.subject.keywordsnormal concrete
dc.subject.keywordsself-consolidating concrete
dc.subject.keywordsseismic force-resisting systems
dc.subject.keywordslateral force-resisting system
dc.titleSeismic Behaviour of SMA-Reinforced Slender Concrete Shear Walls
dc.typeElectronic Thesis or Dissertation

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