Experimental Investigation of Efficiency and Deposit Process Temperature During Multi-Layer Friction Surfacing
Publikation: Beiträge in Sammelwerken › Aufsätze in Konferenzbänden › Forschung › begutachtet
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Achievements and Trends in Material Forming: Peer-reviewed extended papers selected from the 25 th International Conference on Material Forming (ESAFORM 2022). Hrsg. / Gabriela Vincze; Frédéric Barlat. Baech: Trans Tech Publications Ltd, 2022. S. 187-193 (Key Engineering Materials; Band 926).
Publikation: Beiträge in Sammelwerken › Aufsätze in Konferenzbänden › Forschung › begutachtet
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TY - CHAP
T1 - Experimental Investigation of Efficiency and Deposit Process Temperature During Multi-Layer Friction Surfacing
AU - Kallien, Zina
AU - Roos, Arne
AU - Klusemann, Benjamin
N1 - Conference code: 25
PY - 2022/7/22
Y1 - 2022/7/22
N2 - Multi-layer friction surfacing (MLFS) follows the principle of the friction surfacing (FS) process, which is an established solid state coating technology for similar and dissimilar metallic materials. With this approach, the deposition of a consumable material on a substrate is enabled via friction and severe plastic deformation (SPD), processing the material below its melting temperature. The focus of the present study lies on the investigation of the temperature distribution during MLFS deposition. The measurements show that the temperature within the stack tends to be slightly higher on the advancing side. Additionally, the deposition behavior, i.e. deposition rate and consumable stud consumption rate, was investigated. Along MLFS stack height, deposition efficiency tends to sightly decrease, shown by decreasing layer thickness and increased length of remaining consumable studs. Overall, MLFS is highly repeatable for multiple layers and presents stable deposition conditions. Additionally, the technique has a comparatively low heat input to the substrate and the already deposited material.
AB - Multi-layer friction surfacing (MLFS) follows the principle of the friction surfacing (FS) process, which is an established solid state coating technology for similar and dissimilar metallic materials. With this approach, the deposition of a consumable material on a substrate is enabled via friction and severe plastic deformation (SPD), processing the material below its melting temperature. The focus of the present study lies on the investigation of the temperature distribution during MLFS deposition. The measurements show that the temperature within the stack tends to be slightly higher on the advancing side. Additionally, the deposition behavior, i.e. deposition rate and consumable stud consumption rate, was investigated. Along MLFS stack height, deposition efficiency tends to sightly decrease, shown by decreasing layer thickness and increased length of remaining consumable studs. Overall, MLFS is highly repeatable for multiple layers and presents stable deposition conditions. Additionally, the technique has a comparatively low heat input to the substrate and the already deposited material.
KW - Additive Manufacturing
KW - Dissimilar Aluminum Alloys
KW - Multi-Layer Friction Surfacing
KW - Solid State Layer Deposition
KW - Temperature
KW - Engineering
UR - http://www.scopus.com/inward/record.url?scp=85140449410&partnerID=8YFLogxK
UR - https://main.scientific.net/book/achievements-and-trends-in-material-forming/978-3-0357-3750-9/ebook
U2 - 10.4028/p-s43q63
DO - 10.4028/p-s43q63
M3 - Article in conference proceedings
AN - SCOPUS:85140449410
SN - 978-3-0357-1759-4
T3 - Key Engineering Materials
SP - 187
EP - 193
BT - Achievements and Trends in Material Forming
A2 - Vincze, Gabriela
A2 - Barlat, Frédéric
PB - Trans Tech Publications Ltd
CY - Baech
T2 - Conference - 25th International Conference on Material Forming, ESAFORM 2022
Y2 - 27 April 2022 through 29 April 2022
ER -