Numerical Simulation of Mixed-Mode Fatigue Crack Growth for Compact Tension Shear Specimen

Joint Authors

Fageehi, Yahya Ali
Alshoaibi, Abdulnaser M.

Source

Advances in Materials Science and Engineering

Issue

Vol. 2020, Issue 2020 (31 Dec. 2020), pp.1-14, 14 p.

Publisher

Hindawi Publishing Corporation

Publication Date

2020-04-23

Country of Publication

Egypt

No. of Pages

14

Abstract EN

This work concentrates on the fracture behaviour of the compact tension specimen under mixed-mode loading, and numerical investigation using ANSYS Mechanical APDL 19.2 finite element program with different modes of mix angles is carried out.

The prediction of mixed-mode fatigue life under constant amplitude fatigue loading for the compact tension shear specimen (CTS) is employed using Paris’ law model for two different loading angles with agreement to the experimental results.

The predicted values of ΔKeq were compared with the experimental and analytical data for various models.

Depending on the analysis, the findings of the present study show consistency with the results achieved with similar models of predicting the equivalent stress intensity factor.

In addition, the direction of crack growth derived from the analysis was observed to follow the same trend of the literature experimental results.

American Psychological Association (APA)

Fageehi, Yahya Ali& Alshoaibi, Abdulnaser M.. 2020. Numerical Simulation of Mixed-Mode Fatigue Crack Growth for Compact Tension Shear Specimen. Advances in Materials Science and Engineering،Vol. 2020, no. 2020, pp.1-14.
https://search.emarefa.net/detail/BIM-1128617

Modern Language Association (MLA)

Fageehi, Yahya Ali& Alshoaibi, Abdulnaser M.. Numerical Simulation of Mixed-Mode Fatigue Crack Growth for Compact Tension Shear Specimen. Advances in Materials Science and Engineering No. 2020 (2020), pp.1-14.
https://search.emarefa.net/detail/BIM-1128617

American Medical Association (AMA)

Fageehi, Yahya Ali& Alshoaibi, Abdulnaser M.. Numerical Simulation of Mixed-Mode Fatigue Crack Growth for Compact Tension Shear Specimen. Advances in Materials Science and Engineering. 2020. Vol. 2020, no. 2020, pp.1-14.
https://search.emarefa.net/detail/BIM-1128617

Data Type

Journal Articles

Language

English

Notes

Includes bibliographical references

Record ID

BIM-1128617