Reusing metal powder in additive manufacturing (AM) is beneficial since it is more sustainable and cost-effective. However, reusing the powder in consecutive cycles provides additional challenges due to degradation mechanisms affecting powder characteristics. This study collects, refine, and organizes fail-ures associated with powder reuse in SLM, considering articles from literature and expert interviews, for supporting Failure Mode and Effect Analysis (FMEA). Through a systematic approach, the definitions of the failures are analyzed from a semantical and ontological point of view in order to identify the limitations that can undermine the risk assessment in FMEA. Finally, for each identified limitation, AI-based solutions for improving failure investigation are suggested. The findings suggest that failure investigation in AM is limited by ambiguities in failure clas-sification, intricate interdependencies, unprecise definitions, and a lack of rigor in capturing nonlinear relationships, reducing the effectiveness of conventional analysis methods. Among AI tools, machine learning, computer vision, natural language processing, Bayesian networks, and real-time monitoring systems have proven effective in addressing these challenges.

(2026). Failure Investigation of Reused Metal Powder in Additive Manufacturing: An FMEA Approach and the Role of AI-Based Support Tools . Retrieved from https://hdl.handle.net/10446/331088

Failure Investigation of Reused Metal Powder in Additive Manufacturing: An FMEA Approach and the Role of AI-Based Support Tools

Landi, Daniele;Spreafico, Christian
2026-01-01

Abstract

Reusing metal powder in additive manufacturing (AM) is beneficial since it is more sustainable and cost-effective. However, reusing the powder in consecutive cycles provides additional challenges due to degradation mechanisms affecting powder characteristics. This study collects, refine, and organizes fail-ures associated with powder reuse in SLM, considering articles from literature and expert interviews, for supporting Failure Mode and Effect Analysis (FMEA). Through a systematic approach, the definitions of the failures are analyzed from a semantical and ontological point of view in order to identify the limitations that can undermine the risk assessment in FMEA. Finally, for each identified limitation, AI-based solutions for improving failure investigation are suggested. The findings suggest that failure investigation in AM is limited by ambiguities in failure clas-sification, intricate interdependencies, unprecise definitions, and a lack of rigor in capturing nonlinear relationships, reducing the effectiveness of conventional analysis methods. Among AI tools, machine learning, computer vision, natural language processing, Bayesian networks, and real-time monitoring systems have proven effective in addressing these challenges.
2026
Inglese
Sustainable Design and Manufacturing 2025. Proceedings of the 12th International Conference on Sustainable Design and Manufacturing (KES-SDM 2025)
Jolly, Mark; Scholz, Steffen G.; Howlett, Robert J.; Setchi, Rossi
978-3-032-21468-3
978-3-032-21469-0
483
195
205
cartaceo
online
Germany
Heidelberg
Springer
KES-SDM 2025: 12th International Conference on Sustainable Design and Manufacturing, Catania, Italia, 17-19 settembre 2025
12
Catania, Italia
17-19 settembre 2025
internazionale
Settore IIND-03/B - Disegno e metodi dell'ingegneria industriale
Powder recycling; additive manufacturing; FMEA; selective laser melting; artificial intelligence
   Eco-Design for Additive Manufacturing (EcoDAM): a framework to support the lightweight design
   EcoDAM
   MUR - MINISTERO DELL'UNIVERSITA' E DELLA RICERCA - Segretariato generale Direzione generale della ricerca - Ufficio IV
   2022FKLTSB_01
info:eu-repo/semantics/conferenceObject
6
Kollipara, Hemanth; Ordek, Baris; Campana, Francesca; Landi, Daniele; Cicconi, Paolo; Spreafico, Christian
1.4 Contributi in atti di convegno - Contributions in conference proceedings::1.4.01 Contributi in atti di convegno - Conference presentations
reserved
Non definito
273
(2026). Failure Investigation of Reused Metal Powder in Additive Manufacturing: An FMEA Approach and the Role of AI-Based Support Tools . Retrieved from https://hdl.handle.net/10446/331088
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