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Investigation on Machining Performance of Amplitude Control Sculpturing Method in Elliptical Vibration Cutting

机译:振幅控制雕刻法在椭圆振动切削加工中的加工性能研究

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The authors have proposed a unique microano sculpturing technology for difficult-to-cut materials by controlling vibration amplitude in elliptical vibration cutting. In the present research, machining performance of the amplitude control sculpturing method is investigated, and limitation in nano-scale machining is explored. In the proposed machining method, the machinable part geometry is essentially restricted by cutting tool geometry and vibration conditions. In order to clarify the machining performance of the proposed technology, a series of analytical and experimental investigations were conducted. From the experimental results, it was confirmed that nano structures with a step height of more than 2nm and a pitch of more than 250nm can be machined with surprisingly high accuracy of about 1nm. On the other hand, a considerable error between the amplitude command and the envelope of tool trajectory is generated when the slope of the machining part geometry becomes large. In order to overcome this error, a compensation method of the amplitude command is proposed. By applying the proposed compensation, nano structures with large ratio of the step height to the pitch were machined accurately. The proposed machining method was subsequently applied to a three-dimensional grid surface machining, and successful experimental results verified feasibility of practical machining application by applying proposed technology.
机译:通过控制椭圆振动切割中的振动幅度,作者提出了一种独特的微/纳米雕刻技术,用于难切割的材料。在本研究中,研究了振幅控制雕刻方法的加工性能,并探索了纳米加工的局限性。在提出的加工方法中,可切削零件的几何形状基本上受到切削刀具几何形状和振动条件的限制。为了阐明所提出技术的加工性能,进行了一系列的分析和实验研究。从实验结果证实,可以以令人惊讶的约1nm的高精确度加工具有大于2nm的台阶高度和大于250nm的节距的纳米结构。另一方面,当加工部件的几何形状的斜率变大时,在振幅指令和刀具轨迹的包络线之间产生相当大的误差。为了克服该误差,提出了幅度指令的补偿方法。通过应用所提出的补偿,可以精确地加工出步距与间距之比大的纳米结构。所提出的加工方法随后被应用于三维网格表面加工,并且成功的实验结果通过应用所提出的技术证明了实际加工应用的可行性。

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