Predicting Failure in Additively Manufactured Parts-The Effects of Defects

被引:0
|
作者
Peitsch, Christopher M. [1 ]
Storck, Steven M. [1 ]
McCue, Ian D. [1 ]
Montalbano, Timothy J. [1 ]
Nimer, Salahudin M. [1 ]
Trigg, Douglas B. [1 ]
Drenkow, Nathan G. [1 ]
Sopcisak, Joseph [1 ]
Carter, Ryan H. [1 ]
Trexler, Morgana M. [1 ]
机构
[1] Johns Hopkins University, Applied Physics Laboratory, Laurel,MD, United States
关键词
Additives - Data handling - Failure (mechanical);
D O I
暂无
中图分类号
学科分类号
摘要
While the use of metal additive manufacturing (AM) has grown immensely over the past decade, there still exists a gap in understanding of process defects in AM, which often inhibit its use in critical applications such as flight hardware. The Johns Hopkins University Applied Physics Laboratory (APL) is developing novel techniques to replicate authentic surrogate defects in AM parts and characterize their effect on mechanical response. Advanced data processing methods, such as machine learning, are being leveraged to develop predictive failure models, which will help enhance our understanding of the effects of defects. © 2021 John Hopkins University. All rights reserved.
引用
收藏
页码:418 / 421
相关论文
共 50 条
  • [1] Predicting Failure in Additively Manufactured Parts-"The Effects of Defects"
    Peitsch, Christopher M.
    Storck, Steven M.
    McCue, Ian D.
    Montalbano, Timothy J.
    Nimer, Salahudin M.
    Trigg, Douglas B.
    Drenkow, Nathan G.
    Sopcisak, Joseph
    Carter, Ryan H.
    Trexler, Morgana M.
    JOHNS HOPKINS APL TECHNICAL DIGEST, 2021, 35 (04): : 418 - 421
  • [2] Predicting Failure of Additively Manufactured Specimens with Holes
    Schmeier, Gina Eileen Chiara
    Troeger, Clara
    Kwon, Young W.
    Sachau, Delf
    MATERIALS, 2023, 16 (06)
  • [3] Predicting failure in additively manufactured parts using X-ray computed tomography and simulation
    Fieres, Johannes
    Suhumann, Philipp
    Reinhart, Christof
    7TH INTERNATIONAL CONFERENCE ON FATIGUE DESIGN, FATIGUE DESIGN 2017, 2018, 213 : 69 - 78
  • [4] Numerical framework for predicting fatigue scatter in additively manufactured parts
    Hou, Yixuan
    Kench, Steve
    Wauters, Tony
    Talemi, Reza
    INTERNATIONAL JOURNAL OF MECHANICAL SCIENCES, 2024, 281
  • [5] Machine learning in predicting mechanical behavior of additively manufactured parts
    Nasiri, Sara
    Khosravani, Mohammad Reza
    JOURNAL OF MATERIALS RESEARCH AND TECHNOLOGY-JMR&T, 2021, 14 : 1137 - 1153
  • [6] Sintering model for predicting distortion of additively manufactured complex parts
    Torresani, Elisa
    Rios, Alberto Cabo
    Grippi, Thomas
    Maximenko, Andrii L.
    Zago, Marco
    Cristofolini, Ilaria
    Olevsky, Eugene A.
    RAPID PROTOTYPING JOURNAL, 2024, 30 (11) : 369 - 383
  • [7] Cleaning of additively manufactured parts
    Schießl T.
    Konzok D.
    JOT, Journal fuer Oberflaechentechnik, 2021, 61 (07): : 52 - 53
  • [8] Failure classification of porous additively manufactured parts using Deep Learning
    Johnson, Kyle L.
    Maestas, Demitri
    Emery, John M.
    Grigoriu, Mircea D.
    Smith, Matthew D.
    Martinez, Carianne
    COMPUTATIONAL MATERIALS SCIENCE, 2022, 204
  • [9] Milling of additively manufactured parts - Post-processing potential for automation of additively manufactured serial parts
    Häußinger, Christina
    Zäh, Michael F.
    WT Werkstattstechnik, 2019, 109 (06): : 421 - 426
  • [10] DEFECT INTERACTIONS AND EFFECTS ON FATIGUE BEHAVIORS OF ADDITIVELY MANUFACTURED PARTS
    Wu, Shengjia
    Cheng, Jiyuan
    Dong, Pingsha
    Zhang, Yuning
    Zhang, Lunyu
    PROCEEDINGS OF ASME 2023 PRESSURE VESSELS & PIPING CONFERENCE, PVP2023, VOL 5, 2023,