Full thermo-mechanical coupling using eXtended finite element method in quasi-transient crack propagation

Abstract This work aims to present a complete full coupling eXtended finite element formulation of the thermo-mechanical problem of cracked bodies. The basic concept of the extended finite element method is discussed in the context of mechanical and thermal discontinuities. Benchmarks are presented...

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Main Authors: Fakhreddine Habib, Luca Sorelli, Mario Fafard
Format: Article
Language:English
Published: SpringerOpen 2018-07-01
Series:Advanced Modeling and Simulation in Engineering Sciences
Subjects:
Online Access:http://link.springer.com/article/10.1186/s40323-018-0112-9
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spelling doaj-aea7d9dc676345a9bf7dbcf709ea3f352020-11-24T21:30:45ZengSpringerOpenAdvanced Modeling and Simulation in Engineering Sciences2213-74672018-07-015113810.1186/s40323-018-0112-9Full thermo-mechanical coupling using eXtended finite element method in quasi-transient crack propagationFakhreddine Habib0Luca Sorelli1Mario Fafard2Aluminium Research Centre-REGAL and Department of Civil and Water Engineering, Laval UniversityCenter for Research on Concrete Infrastructure-CRIB and Department of Civil and Water Engineering, Laval UniversityAluminium Research Centre-REGAL and Department of Civil and Water Engineering, Laval UniversityAbstract This work aims to present a complete full coupling eXtended finite element formulation of the thermo-mechanical problem of cracked bodies. The basic concept of the extended finite element method is discussed in the context of mechanical and thermal discontinuities. Benchmarks are presented to validate at the same time the implementation of stress intensity factors and numerical mechanical and thermal responses. A quasi-transient crack propagation model, subjected to transient thermal load combined with a quasi-static crack growth was presented and implemented into a home-made object-oriented code. The developed eXtended finite element tool for modeling two-dimensional thermo-mechanical problem involving multiple cracks and defects are confirmed through selected examples by estimating the stress intensity factors with remarkable accuracy and robustness.http://link.springer.com/article/10.1186/s40323-018-0112-9Thermo-mechanicalExtended finite element methodFull couplingCrack growthStress intensity factors computationQuasi-transient
collection DOAJ
language English
format Article
sources DOAJ
author Fakhreddine Habib
Luca Sorelli
Mario Fafard
spellingShingle Fakhreddine Habib
Luca Sorelli
Mario Fafard
Full thermo-mechanical coupling using eXtended finite element method in quasi-transient crack propagation
Advanced Modeling and Simulation in Engineering Sciences
Thermo-mechanical
Extended finite element method
Full coupling
Crack growth
Stress intensity factors computation
Quasi-transient
author_facet Fakhreddine Habib
Luca Sorelli
Mario Fafard
author_sort Fakhreddine Habib
title Full thermo-mechanical coupling using eXtended finite element method in quasi-transient crack propagation
title_short Full thermo-mechanical coupling using eXtended finite element method in quasi-transient crack propagation
title_full Full thermo-mechanical coupling using eXtended finite element method in quasi-transient crack propagation
title_fullStr Full thermo-mechanical coupling using eXtended finite element method in quasi-transient crack propagation
title_full_unstemmed Full thermo-mechanical coupling using eXtended finite element method in quasi-transient crack propagation
title_sort full thermo-mechanical coupling using extended finite element method in quasi-transient crack propagation
publisher SpringerOpen
series Advanced Modeling and Simulation in Engineering Sciences
issn 2213-7467
publishDate 2018-07-01
description Abstract This work aims to present a complete full coupling eXtended finite element formulation of the thermo-mechanical problem of cracked bodies. The basic concept of the extended finite element method is discussed in the context of mechanical and thermal discontinuities. Benchmarks are presented to validate at the same time the implementation of stress intensity factors and numerical mechanical and thermal responses. A quasi-transient crack propagation model, subjected to transient thermal load combined with a quasi-static crack growth was presented and implemented into a home-made object-oriented code. The developed eXtended finite element tool for modeling two-dimensional thermo-mechanical problem involving multiple cracks and defects are confirmed through selected examples by estimating the stress intensity factors with remarkable accuracy and robustness.
topic Thermo-mechanical
Extended finite element method
Full coupling
Crack growth
Stress intensity factors computation
Quasi-transient
url http://link.springer.com/article/10.1186/s40323-018-0112-9
work_keys_str_mv AT fakhreddinehabib fullthermomechanicalcouplingusingextendedfiniteelementmethodinquasitransientcrackpropagation
AT lucasorelli fullthermomechanicalcouplingusingextendedfiniteelementmethodinquasitransientcrackpropagation
AT mariofafard fullthermomechanicalcouplingusingextendedfiniteelementmethodinquasitransientcrackpropagation
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