Constitutive models of shape memory alloys and their implementation to finite elements

dc.contributor	Graduate Program in Mechanical Engineering.
dc.contributor.advisor	Anlaş, Günay.
dc.contributor.author	Yurtoğlu, Mete.
dc.date.accessioned	2023-03-16T11:15:42Z
dc.date.available	2023-03-16T11:15:42Z
dc.date.issued	2012.
dc.identifier.other	ME 2012 Y87
dc.identifier.uri	http://digitalarchive.boun.edu.tr/handle/123456789/14971
dc.description.abstract	The aim of this work is to study existing constitutive models for shape-memory alloys and to implement them to nite elements. Fracture behavior in Mode-I and mixed-mode is studied and, for this purpose, a 2-D edge cracked shape-memory alloy plate is discretized and UMAT interface of Abaqus, with di erent constitutive models is used. Phase transformation stress distributions around the crack tip are studied in detail for di erent amounts of loadings, and crack lengths. Results are tabulated and plotted to show the di erences between di erent models. The e ect of stress induced phase transformation is also studied.
dc.format.extent	30 cm.
dc.publisher	Thesis (M.S.)-Bogazici University. Institute for Graduate Studies in Science and Engineering, 2012.
dc.relation	Includes appendices.
dc.relation	Includes appendices.
dc.subject.lcsh	Shape memory alloys.
dc.title	Constitutive models of shape memory alloys and their implementation to finite elements
dc.format.pages	xvi, 95 leaves ;