基于径向力循环优化的高负荷冷还原辊磨削循环计算

S. Bratan, Vasiliy Golovin, Yuriy Novosyolov, Irina Dymchenko
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摘要

目前,通过使用细粒度车轮的加工磨辊的磨削操作是最先进的精加工方法,因为它节省了技术周期中劳动密集型的精加工过程,从而可以获得所需的尺寸,形状,表面粗糙度,工作材料的物理和机械性能的精度,同时减少了制造含量。考虑到细粒砂轮磨削速率随单粒切削深度的增加而增加,提出了用径向力计算冷还原辊精加工磨削周期的方法。对9X2、55、60等钢件的高性能磨削循环进行了优化计算测定了HRC、车轮1-400x50x203 63C M14 CM 8B随径向分量的变化在循环阶段的切削力。对于计算周期的实验验证,研磨样品 D×l = 65×250 mm在恒定径向力下对应于给定表面粗糙度,并随径向力的变化进行了测试。径向磨削力由工艺系统紧度设定,并由一个装置在每次运行中记录径向力。在实验过程中,进行以下测量:用杠杆支架将金属移至直径;在轮廓仪-轮廓仪模型201上进行了表面粗糙度参数的计算。所进行的试验证明了设计周期随径向力变化的有效性。当使用建议的循环时,提供给定的表面粗糙度,而操作的生产率增加2,0 - 2,5倍。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Calculation of high-duty cold reduction rollers grinding cycles based on radial force cycle optimization
Currently, the grinding operation of fabrication mill rollers through the use of fine-grained wheels is the most progressive method of finishing, because it saves from labor-intensive finishing processes in the technological cycle allowing to get a desired accuracy of the size, shape, surface roughness, physical and mechanical properties of the work material along with the reduction of manufacturing content. Considering that grinding rate of fine-grained wheels increases with an depth-of-cut increase in a single grain, the method of calculating grinding cycles by radial force for finishing of cold reduction rollers using fine-grained abrasive wheels is viewed. The calculation was carried out, and the optimal modes of a high-performance grinding cycle of parts made of steel 9X2, 55...60 HRC, wheels 1-400x50x203 63C M14 CM 8B with a change in the radial component of the cutting force at the cycle stages were determined. For experimental verification of the calculated cycle, grinding samples d×l = 65×250 mm at a constant radial force corresponding to a given surface roughness and with a change in radial force were tested. Radial grinding force was set by technological system tightness and maintained by a device for registering a radial force within each run. During the experiments, the following measurements: removal of metal to diameter with a lever bracket; surface roughness parameters on a profilometer-profilograph mod. 201 were carried out. The conducted tests proved the effectiveness of design cycles with a change in radial force. When using the proposed cycles, a given surface roughness is provided, while the productivity of the operation increases by 2,0 – 2,5 times.
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