批量模式微电火花加工高密度和高通量微加工

K. Takahata, Y. Gianchandani
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引用次数: 23

摘要

本文研究了用于微细电火花加工(微细电火花加工)的电极阵列的缩放问题。特别地,它探讨了高纵横比liga制造的电极阵列的制造和使用的限制,以及脉冲放电电路对加工速率的限制。采用liga法制备直径为20 /spl平方/m的400个Cu电极阵列,在厚度为50 /spl平方/m的不锈钢上加工通孔。通过连续使用三个不同形状的电极阵列,制造了包括锥形形状的多层结构阵列。描述了这些努力的电极制造和使用。对于脉冲放电电路,通过将电极阵列划分为具有独立脉冲放电时间控制的部分,可使加工时间缩短50%以上。这是通过为每个部分使用单独的RC定时电路来实现的。描述了每条RC电路的电极面积与加工速率之间的关系。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Batch mode micro-EDM for high-density and high-throughput micromachining
This paper examines scaling issues for electrode arrays used in micro-electro-discharge machining (micro-EDM). In particular, it explores constraints in the fabrication and usage of high aspect ratio LIGA-fabricated electrode arrays, as well as the limits imposed by the pulse discharge circuits on machining rates. A LIGA-fabricated array of 400 Cu electrodes with 20 /spl square/m diameter was used to machine through-holes in 50 /spl square/m thick stainless steel. An array of multi-layer structures that included tapered shapes was fabricated by the sequential use of three electrode arrays of varying shape. The electrode fabrication and usage for these efforts are described. With respect to the pulse discharge circuits, it is shown that the machining time can be reduced by >50% by dividing the electrode array into sections have independent control of pulse discharge timing. This is implemented by using individual RC timing circuits for each section. A correlation between electrode area per RC circuit and machining rate is described.
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