Residual stress measurements of laser metal deposited Ti-6Al-4V parts using neutron diffraction

Strength of laser deposited parts is in strong dependence on microstructure, residual stresses, size and shape of defects. Knowledge of the residual stress field is crucial for a thorough understanding of the likely subsequent fatigue behaviour and fracture of the part during deposition. Neutron dif...

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Veröffentlicht in:Journal of physics. Conference series 2018-11, Vol.1109 (1), p.12049
Hauptverfasser: Em, V T, Ivanov, S Y, Karpov, I D, Rylov, S A, Zemlyakov, E V, Babkin, K D
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container_issue 1
container_start_page 12049
container_title Journal of physics. Conference series
container_volume 1109
creator Em, V T
Ivanov, S Y
Karpov, I D
Rylov, S A
Zemlyakov, E V
Babkin, K D
description Strength of laser deposited parts is in strong dependence on microstructure, residual stresses, size and shape of defects. Knowledge of the residual stress field is crucial for a thorough understanding of the likely subsequent fatigue behaviour and fracture of the part during deposition. Neutron diffraction methods are well established for the study of residual stresses deep inside components. Neutron diffraction has the potential for measurement deep within metallic components. Distribution of residual stress in Ti-6Al-4V wall deposited on the stiff substrate was measured. Finite element simulation was carried out in order to obtain transient and residual inherent stress in the fabricated part. It was shown that peak tensile normal stress exceeds yield stress at the start and end of deposited wall near the substrate. Peak tensile longitudinal stress corresponds to the last deposited layer and lower than yield stress.
doi_str_mv 10.1088/1742-6596/1109/1/012049
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subjects Crack propagation
Fatigue failure
Finite element method
Laser deposition
Neutron diffraction
Neutrons
Residual stress
Stress distribution
Substrates
Titanium base alloys
Yield strength
Yield stress
title Residual stress measurements of laser metal deposited Ti-6Al-4V parts using neutron diffraction
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