Optimal Design of Constant-Stress Accelerated Degradation Test for Motorized Spindles

Jinyan Guo, Zhaojun Yang, Chuanhai Chen, H. Tian
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引用次数: 1

Abstract

Motorized spindle is a key functional unit of CNC machine tools, the reliability of which has a great impact on the reliability of machine tools. Optimal design can effectively shorten the accelerated degradation test period of motorized spindle and improve the accuracy of its reliability evaluation. Aimed at the occasion that optimization results would be inaccuracy when the alternative set is chosen improperly through the existing methods, a new optimization method of constant-stress accelerated degradation test with multiple kinds of stresses is proposed. Particle swarm optimization is used to establish an alternative set, and then the simulation data is generated by Monte Carlo simulation. In the entire process of optimization design, two kinds of optimization criteria are adopted to guarantee the comprehensiveness of results. Finally, the optimum accelerated degradation test plan is obtained through the statistical analysis method. At the end of paper, the proposed method is applied to a numerical example to verify its effectiveness.
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电主轴恒应力加速退化试验优化设计
电主轴是数控机床的关键功能部件,其可靠性对机床的可靠性有很大影响。优化设计可以有效缩短电主轴加速退化试验周期,提高电主轴可靠性评估的准确性。针对现有方法中备选集选择不当导致优化结果不准确的情况,提出了一种多种应力的恒应力加速退化试验优化方法。采用粒子群算法建立备选集,通过蒙特卡罗仿真生成仿真数据。在整个优化设计过程中,采用了两种优化准则来保证结果的全面性。最后,通过统计分析方法,得到了最优的加速退化试验方案。最后通过一个数值算例验证了该方法的有效性。
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