Crack propagation methodology under complex loadings

•An advanced methodology for crack propagation analysis is demonstrated.•CCF interaction, eigenmode actualization and load spectrum management are all included in the methodology.•The methodology is validated by comparison between numerical and experimental results. In this paper, a novel methodolog...

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Veröffentlicht in:Engineering fracture mechanics 2015-07, Vol.142, p.287-302
Hauptverfasser: Dompierre, Benoît, Mesbah, Majid, Wyart, Eric
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container_title Engineering fracture mechanics
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creator Dompierre, Benoît
Mesbah, Majid
Wyart, Eric
description •An advanced methodology for crack propagation analysis is demonstrated.•CCF interaction, eigenmode actualization and load spectrum management are all included in the methodology.•The methodology is validated by comparison between numerical and experimental results. In this paper, a novel methodology for analyzing crack propagation under complex loadings is presented. It includes various kinds of complexities such as multiple non-proportional load cases, LCF/HCF interaction, eigenmode actualization and load spectrum under proportional loading. After being validated on simple test cases, this methodology is applied on two full-scale industrial cases. The results demonstrate that this methodology, when compared to simulations using simplified load cases, has a great impact on fatigue life assessment. This methodology achieves higher accuracy and more representative results and therefore can lead to more radical optimization in a design process.
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source Elsevier ScienceDirect Journals
subjects Combined cycle fatigue
Crack growth
Crack propagation
Fracture mechanics
High cycle fatigue
Level set
Low cycle fatigue
Methodology
Optimization
Radicals
Simulation
Spectrum loading
XFEM
title Crack propagation methodology under complex loadings
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