Assessment of Crack Growth and Fatigue Life of an Axial Fan Blade Based on a Co-Simulation Approach

This paper presents static and dynamic stress analyses of an axial fan blade, which were carried out under real-life centrifugal and aerodynamic loading conditions using the Abaqus software. The location of the crack was identified on the pressure side of the blade at the conjunction between the bla...

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Published in:Advances in materials science 2023-09, Vol.23 (3), p.61-79
Main Authors: Hassen, Mariem Ben, Fakhari, Seyyed Mojtaba, Mrad, Hatem
Format: Article
Language:English
Subjects:
Aerodynamic loads
Axial stress
Axial-fan-blade
Crack propagation
Fatigue crack growth
Fatigue failure
Fatigue life
Fatigue life assessment
Finite element method
Fracture mechanics
Investigations
Materials fatigue
Materials science
Mining industry
Ratios
Simulation
Stress analysis
Stress concentration
Stress distribution
Stress intensity factors
Stress ratios
Ventilation
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cites cdi_FETCH-LOGICAL-c289t-243bc4cd91539548193006885507c77160ba37cce3c3df5e57f0307fc5f657013
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creator Hassen, Mariem Ben
Fakhari, Seyyed Mojtaba
Mrad, Hatem
description This paper presents static and dynamic stress analyses of an axial fan blade, which were carried out under real-life centrifugal and aerodynamic loading conditions using the Abaqus software. The location of the crack was identified on the pressure side of the blade at the conjunction between the blade and the blade root. It reveals a high agreement between the predicted location of stress distribution and the real origin of the crack location. Furthermore, a fracture mechanics criterion was adopted to simulate fatigue crack growth. This was performed using a fracture analysis FRANC3D code for three-dimensional problems. As a result, the calculated stress intensity factors (SIFs) were presented for the first steps, and the fatigue life of the fan blade was evaluated using the Forman de Koning model at different stress ratios.
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subjects Aerodynamic loads
Axial stress
Axial-fan-blade
Crack propagation
Fatigue crack growth
Fatigue failure
Fatigue life
Fatigue life assessment
Finite element method
Fracture mechanics
Investigations
Materials fatigue
Materials science
Mining industry
Ratios
Simulation
Stress analysis
Stress concentration
Stress distribution
Stress intensity factors
Stress ratios
Ventilation
title Assessment of Crack Growth and Fatigue Life of an Axial Fan Blade Based on a Co-Simulation Approach
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