Fatigue crack growth analysis in layered heterogeneous material systems using peridynamic approach

In this study, the peridynamic fatigue model for a homogeneous material is extended to the layered heterogeneous material. Thermal residual stress and the corresponding stress intensity factor are calculated, within the framework of the peridynamic theory, by considering the cooling process using a...

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Published in:Composite structures 2016-09, Vol.152, p.403-407
Main Authors: Jung, Jeehyun, Seok, Jongwon
Format: Article
Language:English
Subjects:
Bonding
Composite structures
Compressive properties
Cooling effects
Crack propagation
Fatigue crack growth
Fracture mechanics
Functionally graded material
Heterogeneous material
Mathematical models
Peridynamic
Residual stress
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container_title Composite structures
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description In this study, the peridynamic fatigue model for a homogeneous material is extended to the layered heterogeneous material. Thermal residual stress and the corresponding stress intensity factor are calculated, within the framework of the peridynamic theory, by considering the cooling process using a pairwise force function caused by the thermal loading effect. To avoid overlapping of the cracked surfaces due to compressive thermal residual stress, the notion of short range force (Macek and Silling, 2007) is newly introduced. In addition, an auxiliary reference configuration is used to define the cyclic bond strain in the constricted material. The proposed approach is validated by performing an illustrative case study.
doi_str_mv 10.1016/j.compstruct.2016.05.077
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subjects Bonding
Composite structures
Compressive properties
Cooling effects
Crack propagation
Fatigue crack growth
Fracture mechanics
Functionally graded material
Heterogeneous material
Mathematical models
Peridynamic
Residual stress
title Fatigue crack growth analysis in layered heterogeneous material systems using peridynamic approach
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