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Reduced set-up work ◦ Eliminating extra fixturing & time Accuracy ◦ fewer clamping & unclamping Better surface finishes ◦ Shorter tools less tool deflection, vibration ◦ Cutting condition (ball nose end mill) Machining complex parts ◦ Undercut machining Time savings in hole drilling ◦ 3+2 axis machining © 박정환, 영남대학교
Ideal for machining deep cores and cavities High Speed Machining (all linear axis) Locked rotary axis mode rigid, accurate Simultaneous multiaxis work is inevitably less accurate than indexing work because the machine must be run in a loose mode with the rotary drives unlocked. (Apro 2009) © 박정환, 영남대학교
Page 1 and 2: 2012. 8. 29 박정환 영남대학
Page 3 and 4: © 박정환, 영남대학교
Page 5: © 박정환, 영남대학교
Page 11 and 12: 3 linear axes + 2 rotary axes •Ta
Page 13 and 14: Head/head machines (with long X- or
Page 15 and 16: © 박정환, 영남대학교 Gantr
Page 19 and 20: © 박정환, 영남대학교 A = 0
Page 21 and 22: © 박정환, 영남대학교 a CC
Page 23 and 24: © 박정환, 영남대학교 From
Page 25 and 26: © 박정환, 영남대학교 From
Page 27 and 28: Surface representation Machine str
Page 31 and 32: 설비 크기 가공 공작물 최
Page 33 and 34: 1 H/L LENS © 박정환, 영남대
Page 35 and 36: 황중삭: 7 공정 (49:21) ◦ 7,
Page 37 and 38: © 박정환, 영남대학교 공
Page 39 and 40: NC-view © 박정환, 영남대학
Page 45 and 46: © 박정환, 영남대학교 공
Page 47 and 48: ①Edge-F face (익탕도 가공)
Page 49 and 50: M/C Library Part.STL Part.STL Axis
Page 53 and 54: © 박정환, 영남대학교 Sensi
Page 55 and 56: Calibration (CAD vs. Work-piece) NU
Page 57 and 58:
160 mm x T y © 박정환, 영남
Page 59 and 60:
T CC path © 박정환, 영남대
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© 박정환, 영남대학교 Area
Page 63 and 64:
© 박정환, 영남대학교 CAD m
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Triangular facet © 박정환, 영
Page 67 and 68:
© 박정환, 영남대학교
Page 69 and 70:
Why not 5-axis? ◦ Expensive machi
Page 71 and 72:
© 박정환, 영남대학교
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