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

被引:70
作者
Guo, Weihong 'Grace' [1 ,4 ]
Tian, Qi [1 ,3 ]
Guo, Shenghan [1 ]
Guo, Yuebin [2 ,4 ]
机构
[1] Rutgers Univ New Brunswick, Dept Ind & Syst Engn, Piscataway, NJ 08854 USA
[2] Rutgers Univ New Brunswick, Dept Mech & Aerosp Engn, Piscataway, NJ 08854 USA
[3] Dalian Univ Technol, State Key Lab Coastal & Offshore Engn, Dalian 116024, Peoples R China
[4] Rutgers Univ New Brunswick, New Jersey Adv Mfg Inst, Piscataway, NJ 08854 USA
关键词
Machine learning; Additive manufacturing; Porosity;
D O I
10.1016/j.cirp.2020.04.049
中图分类号
T [工业技术];
学科分类号
08 ;
摘要
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.
引用
收藏
页码:205 / 208
页数:4
相关论文
共 10 条
[1]   Improved safety checklist analysis approach using intelligent video surveillance in the construction industry: a case study [J].
Guo, Shengyu ;
Li, Jichao ;
Liang, Kongzheng ;
Tang, Bing .
INTERNATIONAL JOURNAL OF OCCUPATIONAL SAFETY AND ERGONOMICS, 2021, 27 (04) :1064-1075
[2]   Porosity prediction: Supervised-learning of thermal history for direct laser deposition [J].
Khanzadeh, Mojtaba ;
Chowdhury, Sudipta ;
Marufuzzaman, Mohammad ;
Tschopp, Mark A. ;
Bian, Linkan .
JOURNAL OF MANUFACTURING SYSTEMS, 2018, 47 :69-82
[3]   Consolidation phenomena in laser and powder-bed based layered manufacturing [J].
Kruth, J. -P. ;
Levy, G. ;
Klocke, F. ;
Childs, T. H. C. .
CIRP ANNALS-MANUFACTURING TECHNOLOGY, 2007, 56 (02) :730-759
[4]   Data indicating temperature response of Ti-6Al-4V thin-walled structure during its additive manufacture via Laser Engineered Net Shaping [J].
Marshall, Garrett J. ;
Thompson, Scott M. ;
Shamsaei, Nima .
DATA IN BRIEF, 2016, 7 :697-703
[5]  
Rubinstein R.Y., 2016, Simulation and the Monte Carlo Method, V3rd, DOI DOI 10.1002/9781118631980
[6]   Laser based additive manufacturing in industry and academia [J].
Schmidt, Michael ;
Merklein, Marion ;
Bourell, David ;
Dimitrov, Dimitri ;
Hausotte, Tino ;
Wegener, Konrad ;
Overmeyer, Ludger ;
Vollertsen, Frank ;
Levy, Gideon N. .
CIRP ANNALS-MANUFACTURING TECHNOLOGY, 2017, 66 (02) :561-583
[7]  
Simonyan K, 2015, Arxiv, DOI arXiv:1409.1556
[8]   Prediction of porosity in metal-based additive manufacturing using spatial Gaussian process models [J].
Tapia, G. ;
Elwany, A. H. ;
Sang, H. .
ADDITIVE MANUFACTURING, 2016, 12 :282-290
[9]   Predictive model for porosity in powder-bed fusion additive manufacturing at high beam energy regime [J].
Vastola, G. ;
Pei, Q. X. ;
Zhang, Y-W .
ADDITIVE MANUFACTURING, 2018, 22 :817-822
[10]  
Welsch G., 1993, MAT PROPERTIES HDB T