Research on Chatter Suppression in Machining Thin-Walled Components Based on Rigidity Optimization

Jun Xue Ren; Bi Qi Yang; Yong Shou Liang; Wei Jun Tian; Chang Feng Yao

doi:10.4028/www.scientific.net/AMR.97-101.1947

Paper Titles

Experimental Study on Milling Force of High-Temperature Alloy GH536
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Finite Element Simulation of Ultrasonic Vibration Orthogonal Cutting of Ti6Al4V
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Friction Torque of Rotating Hydraulic Cylinder with Deep Circular Groove Oil Film Face Seal
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Research on Precision Grinding System and Key Technology Based on PMAC-PC
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Research on Chatter Suppression in Machining Thin-Walled Components Based on Rigidity Optimization
p.1947

A Bioreactor for a Pulsatile Circulatory Culture System
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Study on Metals Behavior Subjected to Cyclic Loading Based on Bauschinger Effect of Reversible Fine Machining Sequence
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Analysis of Cutting Forces in Precision Turning Based on Oblique Cutting Model
p.1961

A Technical Study of Hole Drilling in Ceramics/FRP Laminate Composite Components
p.1965

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Research on Chatter Suppression in Machining Thin-Walled Components Based on Rigidity Optimization

Abstract:

Precision machining of thin-walled complex components has been a serious challenge, and the machining errors are mainly due to cutting force which can induce tool-workpiece deformation and chatter vibration phenomenon. Based on the principle of stiffness optimization and material removal sequence optimization, rigidity of thin-walled component is greatly improved with non-uniform allowance distribution and spiral milling process techniques.