Experimental Investigation on Axial Ultrasonic Vibration Assisted Milling of Cr12MoV

Zhi Kai Zhou, Wu Yin Jin, Wen Ke Chen, Shou Rui Wang, Xia Zhang
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Abstract

The conventional milling process is difficult due to the high strength and hardness of Cr12MoV, which can cause the rapid tool wear, premature failure,and poor milling quality of work platform. The ultrasonic vibration machining technology has been founded to be effective in the milling process of hard-to-cut materials like die tool steel and nickel alloys. The ultrasonic vibration assisted milling (UVM) technology is carried out the axial milling of Cr12MoV in this paper, and the average impact force F i is influenced by the vibration amplitude A , the vibration frequency f , and equivalent mass of the vibrating part M . The mean value of cutting force F x , F y , and F z decreases by 25%, 15.04%, and 17.46%, respectively. With the increase of vibration amplitudes, the value of surface roughness firstly decrease and then increase, and it is obviously lower than conventional milling. The experimental results demonstrated that the UVM technology is a feasible method for the low cutting force and high quality process of cutting Cr12MoV.
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轴向超声振动辅助铣削Cr12MoV的实验研究
由于Cr12MoV的强度和硬度高,常规铣削工艺难度大,容易造成刀具磨损快,过早失效,工作平台铣削质量差。超声振动加工技术在模具、工具钢和镍合金等难切削材料的铣削加工中是有效的。本文采用超声振动辅助铣削(UVM)技术对Cr12MoV进行轴向铣削,平均冲击力F i受振动件振动幅值A、振动频率F和振动件等效质量M的影响。切削力fx、fy和fz的平均值分别降低了25%、15.04%和17.46%。随着振动幅值的增大,表面粗糙度值先减小后增大,明显低于常规铣削;实验结果表明,UVM技术是实现低切削力、高质量切削Cr12MoV的可行方法。
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