不同体积PBF-LB AlSi10Mg零件异常数据对疲劳性能的可传递性

IF 6.8 2区 材料科学 Q1 ENGINEERING, MECHANICAL International Journal of Fatigue Pub Date : 2025-06-01 Epub Date: 2025-02-10 DOI:10.1016/j.ijfatigue.2025.108852
G. Minerva , M. Awd , A. Koch , F. Walther , S. Beretta
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引用次数: 0

摘要

对激光粉末床熔合金属材料的疲劳问题进行了广泛的研究,包括标准试样和应用相关部件。然而,由于体积异常、残余应力和表面粗糙度的存在,试样和部件的疲劳性能存在较大的分散。因此,从标本到部件的可转移性仍然是一个必须解决的开放性问题。本文研究了缺口构件的疲劳性能,并与标准试样进行了比较。然后,用简单的模型从标准试件的数据中推断出构件的性能。使用机器学习辅助极值统计,用竞争风险方法估计最大异常分布。最后,采用Shiozawa有限寿命模型和El-Haddad疲劳极限模型预测的试件S-N曲线与试验结果吻合较好。
本文章由计算机程序翻译,如有差异,请以英文原文为准。

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Transferability of anomaly data to fatigue properties of PBF-LB AlSi10Mg parts with different volumes
Fatigue of metallic materials produced by Laser Powder Bed Fusion has been extensively studied for both standard testing specimens and application relevant components. However, fatigue properties of specimens and components suffer from large scatter, mainly due to the presence of volumetric anomalies, residual stresses and surface roughness. Therefore, the transferability from specimens to components is still an open point that must be addressed. In this work, fatigue properties of notched components are investigated and compared with the standard specimens. Then, the properties of the components are inferred from the standard specimens’ data using simple models. The maxima anomalies’ distributions are estimated with a competing risk approach using Machine learning-assisted Extreme Value Statistics. Finally, the S-N curves of the investigated components, predicted employing the Shiozawa model for finite life and the El-Haddad model for the fatigue limit, closely matched the experimental results.
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来源期刊
International Journal of Fatigue
International Journal of Fatigue 工程技术-材料科学:综合
CiteScore
10.70
自引率
21.70%
发文量
619
审稿时长
58 days
期刊介绍: Typical subjects discussed in International Journal of Fatigue address: Novel fatigue testing and characterization methods (new kinds of fatigue tests, critical evaluation of existing methods, in situ measurement of fatigue degradation, non-contact field measurements) Multiaxial fatigue and complex loading effects of materials and structures, exploring state-of-the-art concepts in degradation under cyclic loading Fatigue in the very high cycle regime, including failure mode transitions from surface to subsurface, effects of surface treatment, processing, and loading conditions Modeling (including degradation processes and related driving forces, multiscale/multi-resolution methods, computational hierarchical and concurrent methods for coupled component and material responses, novel methods for notch root analysis, fracture mechanics, damage mechanics, crack growth kinetics, life prediction and durability, and prediction of stochastic fatigue behavior reflecting microstructure and service conditions) Models for early stages of fatigue crack formation and growth that explicitly consider microstructure and relevant materials science aspects Understanding the influence or manufacturing and processing route on fatigue degradation, and embedding this understanding in more predictive schemes for mitigation and design against fatigue Prognosis and damage state awareness (including sensors, monitoring, methodology, interactive control, accelerated methods, data interpretation) Applications of technologies associated with fatigue and their implications for structural integrity and reliability. This includes issues related to design, operation and maintenance, i.e., life cycle engineering Smart materials and structures that can sense and mitigate fatigue degradation Fatigue of devices and structures at small scales, including effects of process route and surfaces/interfaces.
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