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Numerical and experimental analysis of hybrid lubrication regime for internal gear motor and pump

机译:内齿轮电机和泵混合润滑制度的数值和实验分析

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摘要

This paper addresses the simultaneously existence problem of both hydrodynamic and hydrostatic pressure components in the oil lubrication film in case of internal gear motor and pump. Reynolds equation with concerning hybrid parameter is developed to calculate the hybrid pressure profile. Finite difference method with appropriate boundary condition is then used to solve the Reynolds equation to obtain 2D hybrid pressure distribution. The percentage of hydrodynamic and hydrostatic components corresponding to the change of the working pressure and rotating speed are analyzed. Experimental setup is then designed and built to verify the individual effect of hydrodynamic and hydrostatic action on the performance of the internal gear motor and pump under different working conditions. The numerical and experimental results pointed out that the eccentricity ratio optimal for good hybrid force is from 0.46 to 0.75. The hydrodynamic action increases with the increase of the rotating speed whilst the hydrostatic action increases with the increase of operating pressure. As the rotating speed at maximum value and working pressure at minimum value, the proportion percentage of hydrodynamic component gets the largest value. Whilst the hydrostatic component has the largest proportion percentage at minimum rotating speed and maximum working pressure.
机译:本文在内齿轮马达和泵的情况下,解决了油润滑膜中流体动力和静压压力分量的同时存在问题。开发了具有关于混合参数的reynolds方程以计算混合压力轮廓。然后使用具有适当边界条件的有限差分方法来解决雷诺等式以获得2D混合压力分布。分析了对应于工作压力和旋转速度的变化的流体动力学和静液压组分的百分比。然后设计实验设置并构建以验证流体动力和静压作用对内齿轮马达和泵在不同工作条件下的性能的各个效果。数值和实验结果指出,良好的良好杂种力的偏心比为0.46至0.75。随着旋转速度的增加而增加,流体动力学作用随着操作压力的增加而增加。随着最大值的旋转速度和最小值的工作压力,流体动力组分的比例百分比获得最大值。虽然静水组分具有最小旋转速度和最大工作压力的比例百分比。

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