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A physics-driven deep learning model for process-porosity causal relationship and porosity prediction with interpretability in laser metal deposition

机译:一种物理驱动的过程 - 孔隙率因果关系和激光金属沉积解释性的孔隙率预测的深层学习模型

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Porosity produced in laser metal deposition hampers its application due to the absence of an effective prediction method. Measured thermal images of the melt pool provide a unique opportunity for porosity analytics. Furthermore, a physical model may provide complementary rich data that cannot be measured otherwise. How to leverage both types of data to predict porosity is very challenging. This paper presents a physics-driven deep learning model to predict porosity by integrating both measured and predicted data of the melt pool. The model fidelity is validated with the predicted pore occurrence and size with enhanced interpretability of Ti-6Al-4V thin-wall structures. (C) 2020 CIRP. Published by Elsevier Ltd. All rights reserved.
机译:由于不存在有效预测方法,激光金属沉积中产生的孔隙率妨碍了其应用。 测量熔池的热图像为孔隙度分析提供了独特的机会。 此外,物理模型可以提供否则无法测量的互补丰富数据。 如何利用两种类型的数据来预测孔隙度非常具有挑战性。 本文介绍了物理驱动的深度学习模型,以通过集成熔体池的测量和预测数据来预测孔隙率。 通过预测的孔发生和尺寸验证了模型保真度,具有增强的Ti-6Al-4V薄壁结构的解释性。 (c)2020 CIRP。 elsevier有限公司出版。保留所有权利。

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