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Deformation prediction and shape compensation model of circular channels using laser powder bed fusion

Laser powder bed fusion (L-PBF) technology offers significant advantages, such as lightweight and miniaturized product fabrication and short manufacturing cycles. Circular channels are widely utilized in hydraulic manifold blocks due to their favorable hydrodynamic properties. However, when manufact...

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Published in:Journal of materials research and technology 2023-11, Vol.27, p.3968-3978
Main Authors: Li, Dingbo, Liu, Xiaochao, Hou, Peiyao, Liao, Honghui, Qi, Pengyuan, Nie, Rui, Shang, Yaoxing, Jiao, Zongxia
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cited_by cdi_FETCH-LOGICAL-c3251-6e3cf7d8da5fa757ba4e6664de0cb780e7e16eeff3ce816012439e19d35c829d3
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container_title Journal of materials research and technology
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description Laser powder bed fusion (L-PBF) technology offers significant advantages, such as lightweight and miniaturized product fabrication and short manufacturing cycles. Circular channels are widely utilized in hydraulic manifold blocks due to their favorable hydrodynamic properties. However, when manufactured using L-PBF, circular channels often exhibit shape deviations caused by residual stresses. In this study, Ti6Al4V (TC4) circular channels with various processing parameters were produced through L-PBF. The influence of scanning speed and laser power on the actual channel profile was investigated. A novel deformation prediction model for circular channels was established based on the Euler–Bernoulli theory. This model accurately predicts deformations resulting from residual stresses during horizontal manufacturing of circular channels using L-PBF, considering the interaction between forces and deformations across different manufactured layers. Furthermore, the model can be employed for channel shape compensation design. The results indicated excellent agreement between the proposed deformation prediction model and the profile of the experimentally manufactured samples. Using the channel shape compensation model for circular channels substantially can reduce the root mean square (RMS) deviation, thereby improving dimensional accuracy.
doi_str_mv 10.1016/j.jmrt.2023.10.321
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subjects Circular channel
Deformation prediction
Laser powder bed fusion
Residual stress
Shape compensation
title Deformation prediction and shape compensation model of circular channels using laser powder bed fusion
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