A Review of Proposed Models for Cutting Force Prediction in Milling Parts with Low Rigidity

• Published in: Machines (Basel) Vol. 12; no. 2; p. 140
• Main Authors: Radu, Petrica, Schnakovszky, Carol
• Format: Journal Article
• Language: English
• Published: Basel MDPI AG 01-02-2024
• Subjects: Accuracy; Aerospace industry; Analysis; Automobile industry; Cutting force; cutting force models; Cutting parameters; Defense industry; Geometry; Machining; milling; Milling (machining); Nuclear industry; Performance evaluation; Rigidity; Stainless steel; thin-walled parts; Titanium alloys; Transportation equipment industry
• ISSN: 2075-1702; 2075-1702
• DOI: 10.3390/machines12020140

Milling parts with low rigidity (thin-walled parts) are increasingly attracting the interest of the academic and industrial environment, due to the applicability of these components in industrial sectors of strategic interest at the international level in the aerospace industry, nuclear industry, defense industry, automotive industry, etc. Their low rigidity and constantly changing strength during machining lead on the one hand to instability of the cutting process and on the other hand to part deformation. Solving both types of problems (dynamic and static) must be preceded by prediction of cutting forces as accurately as possible, as they have a significant meaning for machining condition identification and process performance evaluation. Since there are plenty of papers dealing with this topic in the literature, the current research attempts to summarize the models used for prediction of force in milling of thin-walled parts and to identify which are the trends in addressing this issue from the perspective of intelligent production systems.