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Modeling of integral cutting tool grooves using envelope theory and numerical methods

A groove is a key component of the structure of end mills, drills, and other integrated cutting tools. Machining a groove is one of the most difficult, time-consuming, and costly manufacturing process; therefore, for the sake of reduction of the machining cost and meeting the environmental regulatio...

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Published in:International journal of advanced manufacturing technology 2018-09, Vol.98 (1-4), p.579-591
Main Authors: Li, Guochao, Zhou, Honggen, Jing, Xuwen, Tian, Guizhong, Li, Lei
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Language:English
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description A groove is a key component of the structure of end mills, drills, and other integrated cutting tools. Machining a groove is one of the most difficult, time-consuming, and costly manufacturing process; therefore, for the sake of reduction of the machining cost and meeting the environmental regulations, the modeling of a machined groove with known wheel geometry and position is necessary for cutting tool manufacture. In order to reveal the process more clear and precise, the envelope theory and numerical methods are used. First, the basic calculation procedure for groove section points is built using a meshing equation. Accordingly, four universal problems for the simulation of groove manufacturing process are analyzed by four typical examples. Namely, the wheel side surface may interfere the machined tool edge and lead to an incorrect simulation; the wheel revolution surface may overcut the machined tool edge and produce fake points that would disturb the results; the tip point might not be precise enough; and the groove section points might be distributed unevenly and result in an imprecise groove section. The conditions to solve these problems are established by mathematical formulas and calculated by numerical methods. In addition, an integral procedure is built to simulate the machined groove with correct, precise, and even distribution points. Finally, groove simulation software is developed using MATLAB GUI, and the results are verified.
doi_str_mv 10.1007/s00170-018-2181-9
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Namely, the wheel side surface may interfere the machined tool edge and lead to an incorrect simulation; the wheel revolution surface may overcut the machined tool edge and produce fake points that would disturb the results; the tip point might not be precise enough; and the groove section points might be distributed unevenly and result in an imprecise groove section. The conditions to solve these problems are established by mathematical formulas and calculated by numerical methods. In addition, an integral procedure is built to simulate the machined groove with correct, precise, and even distribution points. 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subjects CAE) and Design
Computer simulation
Computer-Aided Engineering (CAD
Cutting tools
Drills
End milling cutters
Engineering
Envelope theory
Environment models
Graphical user interface
Grooves
Industrial and Production Engineering
Integrals
Machining
Mathematical models
Mechanical Engineering
Media Management
Meshing
Numerical analysis
Numerical methods
Original Article
title Modeling of integral cutting tool grooves using envelope theory and numerical methods
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