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박판 밀링에서 고정 오차 보정과 절삭력에 의한 처짐이 깊이 오차에 미치는 영향Effect of Clamping Error Compensation and Cutting-Induced Deflection on Depth Accuracy in Thin Plate Milling

Other Titles
Effect of Clamping Error Compensation and Cutting-Induced Deflection on Depth Accuracy in Thin Plate Milling
Authors
이승민조동현박수빈김규민박준형김동건김수진
Issue Date
Oct-2025
Publisher
한국생산제조학회
Keywords
Thin plate milling; Fixture error compensation; Cutting-induced deflection; Eddy current sensor; Depth accuracy; Compensation machining
Citation
한국생산제조학회지, v.34, no.5, pp 303 - 309
Pages
7
Indexed
KCI
Journal Title
한국생산제조학회지
Volume
34
Number
5
Start Page
303
End Page
309
URI
https://scholarworks.gnu.ac.kr/handle/sw.gnu/80598
ISSN
2508-5093
2508-5107
Abstract
This study examined the machining accuracy in thin aluminum plate milling, focusing on the clamping error and deformation caused by cutting forces. A compensation method was applied after the clamping-induced geometric errors were measured using an LVDT. As a result, depth error was reduced from 1.44 mm to 0.16 mm, demonstrating a significant improvement in accuracy. Nevertheless, non-contact displacement measurements showed that the plate deflection of about 0.36 mm during milling caused additional depth errors. Depth variation ranged from 0.56 mm near the center to 0.84 mm near the support, indicating that machining accuracy is strongly affected by stiffness and fixturing conditions. These findings suggest that clamping error compensation alone is insufficient and that denser support or enhanced compensation strategies are required to achieve higher precision.
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Kim, Su Jin
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