Separation of the impact of residual stress and microstructure on the fatigue performance of LPBF Ti-6Al-4V at elevated temperature

•Fatigue tests at elevated temperature (300 °C) of LPBF Ti-6AL-4V.•Contributions of defects, microstructure and residual stress to fatigue performance are separated.•Tensile surface residual stress decreased fatigue performance for as-built condition.•Effect of residual stress on fatigue performance...

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Veröffentlicht in:International journal of fatigue 2021-07, Vol.148, p.106239, Article 106239
Hauptverfasser: Mishurova, Tatiana, Artzt, Katia, Rehmer, Birgit, Haubrich, Jan, Ávila, Luis, Schoenstein, Frédéric, Serrano-Munoz, Itziar, Requena, Guillermo, Bruno, Giovanni
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container_start_page 106239
container_title International journal of fatigue
container_volume 148
creator Mishurova, Tatiana
Artzt, Katia
Rehmer, Birgit
Haubrich, Jan
Ávila, Luis
Schoenstein, Frédéric
Serrano-Munoz, Itziar
Requena, Guillermo
Bruno, Giovanni
description •Fatigue tests at elevated temperature (300 °C) of LPBF Ti-6AL-4V.•Contributions of defects, microstructure and residual stress to fatigue performance are separated.•Tensile surface residual stress decreased fatigue performance for as-built condition.•Effect of residual stress on fatigue performance is only discernible at the low strain amplitude.•HIP is more effective than heat treatments in increasing the fatigue life. Manufacturing defects, high residual stress (RS), and microstructures affect the structural integrity of laser powder bed fusion (LPBF) Ti-6Al-4V. In this study, the individual effect of these factors on fatigue performance at elevated temperature (300 °C) was evaluated. Material in as-built condition and subjected to post-processing, including two heat treatments and hot isostatic pressing, was investigated. It was found that in the absence of tensile RS, the fatigue life at elevated temperature is primary controlled by the defects; and densification has a much stronger effect than the considered heat treatments on the improvement of the mechanical performance.
doi_str_mv 10.1016/j.ijfatigue.2021.106239
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Manufacturing defects, high residual stress (RS), and microstructures affect the structural integrity of laser powder bed fusion (LPBF) Ti-6Al-4V. In this study, the individual effect of these factors on fatigue performance at elevated temperature (300 °C) was evaluated. Material in as-built condition and subjected to post-processing, including two heat treatments and hot isostatic pressing, was investigated. 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Manufacturing defects, high residual stress (RS), and microstructures affect the structural integrity of laser powder bed fusion (LPBF) Ti-6Al-4V. In this study, the individual effect of these factors on fatigue performance at elevated temperature (300 °C) was evaluated. Material in as-built condition and subjected to post-processing, including two heat treatments and hot isostatic pressing, was investigated. 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subjects Additive manufacturing
Computed tomography
Densification
Engineering
Engineering, Mechanical
Fatigue life
Fatigue performance
Heat treating
Heat treatment
High temperature
Hot isostatic pressing
Manufacturing defects
Materials fatigue
Materials Science
Materials Science, Multidisciplinary
Mechanical properties
Post-production processing
Powder beds
Residual stress
Science & Technology
Structural integrity
Technology
Ti-6Al-4V
Titanium base alloys
title Separation of the impact of residual stress and microstructure on the fatigue performance of LPBF Ti-6Al-4V at elevated temperature
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