TY - JOUR
T1 - 2D finite element modeling of the cutting force in peripheral milling of cellular metals
AU - GUERRA SILVA, RAFAEL ANTONIO
AU - Teicher, Uwe
AU - Brosius, Alexander
AU - Ihlenfeldt, Steffen
N1 - Funding Information:
This research received no external funding. Open Access Funding by the Publication Fund of the TU Dresden. We would like to thank the DAAD-Fundayacucho Scholarship Program and the Center for Information Services and High Performance Computing (ZIH) of the TU Dresden for their support. We would like to thanks also -Ing. Quadbeck of the Fraunhofer Institute for Manufacturing Technology and Advanced Materials, Branch Lab Dresden for providing the samples of material used in the experiments. Open Access Funding was granted by the Publication Fund of the TU Dresden. Special thanks go to Marek Danczak for the ?CT-measurements. Furthermore, we would like to thank Professor Dieter Fichtner, Professor Andreas Nestler and Bernd Nipl for their support. Open Access Funding by the Publication Fund of the TU Dresden.
Publisher Copyright:
© 2020 by the authors.
Copyright:
Copyright 2020 Elsevier B.V., All rights reserved.
PY - 2020/2/1
Y1 - 2020/2/1
N2 - The machining of cellular metals has been a challenge, as the resulting surface is extremely irregular, with torn off or smeared material, poor accuracy, and subsurface damage. Although cutting experiments have been carried out on cellular materials to study the influence of cutting parameters, current analytical and experimental techniques are not suitable for the analysis of heterogeneous materials. On the other hand, the finite element (FE) method has been proven a useful resource in the analysis of heterogeneous materials, such as cellular materials, metal foams, and composites. In this study, a two-dimensional finite element model of peripheral milling for cellular metals is presented. The model considers the kinematics of peripheral milling, depicting the advance of the tool into the workpiece and the interaction between the cutting edge and the mesostructure. The model is able to simulate chip separation as well as the surface and subsurface damage on the machined surface. Although the calculated average cutting force is not accurate, the model provides a reasonable estimation of maximum cutting force. The influences of mesostructure on cutting processes are highlighted and the effects in peripheral milling of cellular materials are discussed.
AB - The machining of cellular metals has been a challenge, as the resulting surface is extremely irregular, with torn off or smeared material, poor accuracy, and subsurface damage. Although cutting experiments have been carried out on cellular materials to study the influence of cutting parameters, current analytical and experimental techniques are not suitable for the analysis of heterogeneous materials. On the other hand, the finite element (FE) method has been proven a useful resource in the analysis of heterogeneous materials, such as cellular materials, metal foams, and composites. In this study, a two-dimensional finite element model of peripheral milling for cellular metals is presented. The model considers the kinematics of peripheral milling, depicting the advance of the tool into the workpiece and the interaction between the cutting edge and the mesostructure. The model is able to simulate chip separation as well as the surface and subsurface damage on the machined surface. Although the calculated average cutting force is not accurate, the model provides a reasonable estimation of maximum cutting force. The influences of mesostructure on cutting processes are highlighted and the effects in peripheral milling of cellular materials are discussed.
KW - Cellular metals
KW - Finite element method
KW - Metal foam
KW - Milling
UR - http://www.scopus.com/inward/record.url?scp=85079276605&partnerID=8YFLogxK
U2 - 10.3390/ma13030555
DO - 10.3390/ma13030555
M3 - Article
AN - SCOPUS:85079276605
VL - 13
JO - Materials
JF - Materials
SN - 1996-1944
IS - 3
M1 - 555
ER -