应用田口方法确定手摇绞车制动器设计的优化参数

Q3 Engineering
Giang Truong Duong
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引用次数: 0

摘要

制动器用于停止运动或调整速度,以确保机械或机器的安全。本文将研究应用于手动绞盘的制动器。我们在前一阶段已经对这种手动绞盘进行了研究。但是,该绞车的缺点是附着在摩擦面上的鼓壁布局不合理,而且没有计算出制动力矩的优化参数。为解决上述问题,本研究提出了一种新型制动器结构。这种结构不使用鼓壁作为摩擦面。这种结构不使用鼓壁作为摩擦面,既不影响鼓壁,也便于在必要时更换摩擦面。相反,锥形制动器适合结构制动器的尺寸、结构和设计载荷。为了确定制动器结构的最佳参数,文章将从理论、实验设计等方面进行分析。目标函数为最大制动扭矩。约束条件为手动绞车参数、安装、摩擦面材料和负载条件。根据田口方法对相应因素进行编码,正交规划矩阵为 L18。研究使用 Minitab 软件分析信噪比,确定了螺纹螺距、摩擦系数(螺纹)、锥角、摩擦系数(制动器)和大锥度制动器半径等五个因素的最优值。研究结果选出了制动器的最佳参数,且最佳值满足了约束条件。锥形制动器的扭矩比盘式制动器大约 37.7%。与盘式制动器表面相比,摩擦表面的压力降低了约 55
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Application of the Taguchi method to determine optimized parameters for designing brake of hand winch
Brakes are used to stop movement or adjust speed to ensure safety for mechanisms or machines. In this paper, the brake applied to hand winch will be studied. This hand winch has been studied by us in previous stages. However, the disadvantage of the winch is that the drum wall attached to the friction surfaces is not reasonable in terms of layout, as well as the parameters to optimize braking moment have not been calculated. A new brake structure is proposed in this study to solve the above problem. This structure does not use the drum wall as the friction surface. It does not affect the drum wall and it is easy to replace the friction surface when necessary. Instead, the cone brake is suitable for the structure brake and the size, structure, and design load. To determine the optimal parameters of the brake structure, the article will analyze the theory, and experiment design. The objective function is the maximum braking torque. Constraints are hand winch parameters, installation, friction surface material, and loading conditions. The corresponding factors are coded according to the Taguchi method, the orthogonal planning matrix is L18. Using Minitab software to analyze the Signal/Noise ratio, the study determined the optimal values for five factors including screw thread pitch, coefficient of friction (screw thread), cone angle, friction coefficient (brake), and large cone brake radius. Research results have selected the optimal parameters of the brake, and the optimal values have satisfied the constraints. The torque at the cone brake is greater than that of the disc brake approximately 37.7 %. The pressure at the friction surface is reduced by about 55 % compared to the disc brake surface
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来源期刊
EUREKA: Physics and Engineering
EUREKA: Physics and Engineering Engineering-Engineering (all)
CiteScore
1.90
自引率
0.00%
发文量
78
审稿时长
12 weeks
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