Mathematical modeling of the technological process of twisting a waveguide

V. V. Timofeev, I. V. Trifanov, E. V. Patraev
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Abstract

Twisted waveguides are part of waveguide paths of antenna- feeder devices of spacecraft. They have high requirements for accuracy and reliability. They are made of profiled rectangular pipes. The twisting of waveguide pipes with a cross- sectional size of less than 11x5.5 mm is carried out in the device using a rigid calibration mandrel. The calculation method determined the main parameters of the technological process of twisting the waveguide tube (torque M, drawing force Pпр). When twisting workpieces with cross sections according to GOST, the torques (M) and drawing forces (Pпр) from the cross- section sizes vary according to a nonlinear relationship. Twisting the workpiece from M4 requires less torque (M) and drawing force (Pпр) than for the workpiece from M1. By mathematical modeling, it is possible to select the optimal technological mode in advance, thereby ensuring high quality of waveguide twisting manufacturing. To substantiate the calculation results, the methods of control of technological parameters and quality control of the product manufacturing were considered. A problem has been found in measuring the torque and pulling force when twisting the workpiece. Therefore, the pulling force should be measured from the machine. A method for measuring torque using a non- contact torque sensor is proposed. The manufacturing quality is supposed to be carried out by the STRESSVISION mechanical stress scanner, and electrical tests.
波导扭转技术过程的数学建模
扭曲波导是航天器天馈装置波导路径的一部分。它们对精度和可靠性有很高的要求。它们由异型矩形管制成。横截面尺寸小于 11x5.5 毫米的波导管的扭转是在设备中使用刚性校准心轴进行的。计算方法确定了波导管扭转技术过程的主要参数(扭矩 M、拉拔力 Pпр)。在扭转横截面符合 GOST 标准的工件时,横截面尺寸的扭矩 (M) 和拉拔力 (Pпр) 根据非线性关系变化。与 M1 的工件相比,扭转 M4 的工件所需的扭矩(M)和拉拔力(Pпр)更小。通过数学建模,可以提前选择最佳技术模式,从而确保波导扭转制造的高质量。为了证实计算结果,考虑了技术参数控制和产品制造质量控制的方法。在测量扭转工件时的扭矩和拉力时发现了一个问题。因此,应从机器上测量拉力。我们提出了一种使用非接触式扭矩传感器测量扭矩的方法。制造质量应通过 STRESSVISION 机械应力扫描仪和电气测试来完成。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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