DocumentCode
2943909
Title
Multi-axis machining of helicoids using the generating method
Author
Lee, J.N. ; Chen, H.S. ; Kung, H.K.
Author_Institution
Dept. of Mech. Eng., Cheng Shiu Univ., Kaohsiung, Taiwan
fYear
2012
fDate
11-14 July 2012
Firstpage
644
Lastpage
649
Abstract
The geometry of helicoid with specific cross-section profile is normally generated with form-mill cutter by dedicated machine tools and software. The manufacturing cost and cycle time of development for the helicoids are high because the complicated helical surface. To improve the efficiency of development, this paper proposes an approach for multi-axis machining of helicoids using the CNC machine tool. The method of design and manufacturing of the helicoids are established based on the differential geometry, homogeneous coordinate transformation and the envelope theory. The cross-section profiles and helicoids firstly are derived according to the conjugate theory. Rapid prototyping model is fabricated from three-dimensional CAD model for concurrent development. In the multi-axis machining of helicoids, the form grinding wheel profiles are determined from the reverse enveloping theory. The cutter location and the toolpath of generating method are represented. The cutting simulations with solid model were performed to verify the proposed toolpath generation method.
Keywords
CAD/CAM; computerised numerical control; cutting; cutting tools; differential geometry; grinding; machine tools; milling; rapid prototyping (industrial); solid modelling; wheels; CNC machine tool; concurrent development; conjugate theory; cross-section profile; cutter location; cutting simulation; differential geometry; form grinding wheel profiles; form-mill cutter; helicoid design; helicoid development cycle time; helicoid geometry; helicoid manufacturing; homogeneous coordinate transformation; manufacturing cost; multiaxis machining; rapid prototyping model; reverse enveloping theory; solid model; three-dimensional CAD model; toolpath generation method; Equations; Fasteners; Geometry; Machining; Mathematical model; Rotors; Solid modeling;
fLanguage
English
Publisher
ieee
Conference_Titel
Advanced Intelligent Mechatronics (AIM), 2012 IEEE/ASME International Conference on
Conference_Location
Kachsiung
ISSN
2159-6247
Print_ISBN
978-1-4673-2575-2
Type
conf
DOI
10.1109/AIM.2012.6265971
Filename
6265971
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