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An advanced continuum damage mechanics model for predicting the crack progress process based on the consideration of the influence of crack direction under quasi-static load

An advanced continuum damage mechanics model for predicting the crack progress process based on the consideration of the influence of crack direction under quasi-static load

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dc.contributor.author Kumchol Yun
dc.contributor.author Zhenqing Wang
dc.contributor.author Sakaya Ronald
dc.contributor.author Yong-Chol Pak
dc.date.accessioned 2021-01-10T11:55:37Z
dc.date.available 2021-01-10T11:55:37Z
dc.date.issued 2017
dc.identifier.issn 00207403
dc.identifier.uri https://combine.alvar.ug/handle/1/49018
dc.description.abstract Abstract In reality the wrong crack path can be generally obtained in the case of arbitrary crack propagation by traditional continuum damage mechanics (CDM). In this paper a novel advanced continuum damage mechanics (ACDM) method is proposed, which can predict the crack propagation and fracture behavior correctly for the structures. The material property degradation method, which is usually used when simulating the structures within the framework of CDM, is advanced based on considering the influence of crack direction. The maximum tensile stress criterion is used to predict the damage initiation and crack propagation direction and the advanced CDM used to predict the damage evolution process in meso-level under the quasi-static load. It can directly evaluate the propagation process of the discrete crack and the fracture strength for structures using the continuum model as well as not using discontinuum model. The algorithm for the application of our advanced CDM theory in the numerical simulation based on finite element method (FEM) is presented. ACDM model is not only a simple and useful model which can easily be used in FEM framework but also a phenomenological model based on the concept of crack propagation. The simulation results by our ACDM are compared with the experiment results and the ones and from cohesive zone method and extended finite element method for good agreements to be achieved.
dc.description.sponsorship National Natural Science Foundation of China
dc.publisher Elsevier BV
dc.relation.ispartof International Journal of Mechanical Sciences
dc.title An advanced continuum damage mechanics model for predicting the crack progress process based on the consideration of the influence of crack direction under quasi-static load
dc.type journal article
dc.identifier.doi 10.1016/j.ijmecsci.2017.05.021
dc.identifier.mag 2626871760
dc.identifier.lens 018-251-725-542-430
dc.identifier.volume 130
dc.identifier.spage 487
dc.identifier.epage 496
dc.subject.lens-fields Finite element method
dc.subject.lens-fields Materials science
dc.subject.lens-fields Extended finite element method
dc.subject.lens-fields Phenomenological model
dc.subject.lens-fields Applied element method
dc.subject.lens-fields Quasistatic process
dc.subject.lens-fields Computer simulation
dc.subject.lens-fields Fracture mechanics
dc.subject.lens-fields Structural engineering
dc.subject.lens-fields Stress (mechanics)


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