Detection of interferences in an additive manufacturing process: an experimental study integrating methods of feature selection and machine learning

被引:22
作者
Stanisavljevic, Darko [1 ]
Cemernek, David [2 ]
Gursch, Heimo [2 ]
Urak, Guenter [2 ]
Lechner, Gernot [1 ,3 ]
机构
[1] Virtual Vehicle Res Ctr, Graz, Austria
[2] Know Ctr GmbH, Graz, Austria
[3] Karl Franzens Univ Graz, Dept Prod & Operat Management, Univ Str 15-E3, A-8010 Graz, Austria
关键词
additive manufacturing; machine learning; 3D-printer; interference detection; data processing system; feature engineering; MONITORING-SYSTEM; SENSOR FUSION; CHALLENGES;
D O I
10.1080/00207543.2019.1694719
中图分类号
T [工业技术];
学科分类号
08 ;
摘要
Additive manufacturing becomes a more and more important technology for production, mainly driven by the ability to realise extremely complex structures using multiple materials but without assembly or excessive waste. Nevertheless, like any high-precision technology additive manufacturing responds to interferences during the manufacturing process. These interferences - like vibrations - might lead to deviations in product quality, becoming manifest for instance in a reduced lifetime of a product or application issues. This study targets the issue of detecting such interferences during a manufacturing process in an exemplary experimental setup. Collection of data using current sensor technology directly on a 3D-printer enables a quantitative detection of interferences. The evaluation provides insights into the effectiveness of the realised application-oriented setup, the effort required for equipping a manufacturing system with sensors, and the effort for acquisition and processing the data. These insights are of practical utility for organisations dealing with additive manufacturing: the chosen approach for detecting interferences shows promising results, reaching interference detection rates of up to 100% depending on the applied data processing configuration.
引用
收藏
页码:2862 / 2884
页数:23
相关论文
共 59 条
[51]   A Review on Process Monitoring and Control in Metal-Based Additive Manufacturing [J].
Tapia, Gustavo ;
Elwany, Alaa .
JOURNAL OF MANUFACTURING SCIENCE AND ENGINEERING-TRANSACTIONS OF THE ASME, 2014, 136 (06)
[52]   Advanced monitoring of machining operations [J].
Teti, R. ;
Jemielniak, K. ;
O'Donnell, G. ;
Dornfeld, D. .
CIRP ANNALS-MANUFACTURING TECHNOLOGY, 2010, 59 (02) :717-739
[53]   Additive manufacturing: scientific and technological challenges, market uptake and opportunities [J].
Tofail, Syed A. M. ;
Koumoulos, Elias P. ;
Bandyopadhyay, Amit ;
Bose, Susmita ;
O'Donoghue, Lisa ;
Charitidis, Costas .
MATERIALS TODAY, 2018, 21 (01) :22-37
[54]   Experimental analysis of an extrusion system for additive manufacturing based on polymer pellets [J].
Volpato, N. ;
Kretschek, D. ;
Foggiatto, J. A. ;
Gomez da Silva Cruz, C. M. .
INTERNATIONAL JOURNAL OF ADVANCED MANUFACTURING TECHNOLOGY, 2015, 81 (9-12) :1519-1531
[55]  
Wang L., 2016, International Journal of Engineering and Manufacturing, V6, P1, DOI DOI 10.5815/IJEM.2016.04.01
[56]   Sensor fusion for online tool condition monitoring in milling [J].
Wang, W. H. ;
Hong, G. S. ;
Wong, Y. S. ;
Zhu, K. P. .
INTERNATIONAL JOURNAL OF PRODUCTION RESEARCH, 2007, 45 (21) :5095-5116
[57]   Logistics 4.0: a systematic review towards a new logistics system [J].
Winkelhaus, Sven ;
Grosse, Eric H. .
INTERNATIONAL JOURNAL OF PRODUCTION RESEARCH, 2020, 58 (01) :18-43
[58]  
Witten IH, 2011, MOR KAUF D, P1
[59]  
Zhang H, 2006, INFORM-J COMPUT INFO, V30, P305