微幅往复走丝微细电解线切割试验研究

doi:CNKI:11-1929/V.20120113.1021.002

Abstract

Abstract: Products of electrolysis in the inter-electrode gap is one of the major factors influencing wire electrode micro-electrochemical machining precision. To enhance the efficiency of removing these products, a new method is proposed that allows the wire electrode to perform micro-amplitude reciprocating movement in the axial direction during the processing. The machining stability and accuracy can thus be improved and the machining efficiency is increased. A mathematical model is built to investigate the influence of the wire electrode travelling speed and micro-amplitude on removing the product and refreshing the electrolyte. Their effects of the electrode travelling speed and micro-amplitude on the machining accuracy and efficiency are investigated experimentally. A micro groove on an alloy is generated with the optimized parameters with a resulting surface roughness of about 0.45 μm and radius of chamfer is lesser than 8 μm。

Key words: micro-electrochemical machining, wire electrode, reciprocation motion, microstructure, elastic alloy

CLC Number:

V261.5

YU Qia, ZHU Di, ZENG Yongbin, ZHANG Hai. Wire Electrode Micro-electrochemical Machining with Tool Micro-amplitude Reciprocating Motion[J]. ACTA AERONAUTICAET ASTRONAUTICA SINICA, 2012, (5): 920-927.

References

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Wire Electrode Micro-electrochemical Machining with Tool Micro-amplitude Reciprocating Motion

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