Effect of the Bionic Circular Groove Non-Smooth Structure on the Anti-Wear Performance of the Two-Vane Pump

Author:

Gu Yunqing,Yan MuhanORCID,Yu Jiayun,Xia KeORCID,Ma Longbiao,Mou Jiegang,Wu Denghao,Tang Jianxing

Abstract

The characteristics of the material transported by the two-vane pump can cause the impeller to wear out, leading to a deterioration in hydraulic efficiency. Appropriately, the research goal of this paper is to consolidate the anti-wear performance of the two-vane pump conveying a solid-liquid two-phase flow. Based on the bionic principle and the anti-wear structure of blood clams, the circular non-smooth structure adapted from blood clams is arranged in the wear-prone area. Through numerical simulation, we compare the main indexes of the pump: the head, the pressure distribution, the vortex pressures, and the average wear rate, to reveal the wear resistance mechanism of circular non-smooth structures. The results illustrate that the use of a circular non-smooth structure does not modify the external characteristics of the pump; the pressure distribution inside the impeller is similarly consistent, and the vortex pressures are all approximately the same. The average wear rate is higher when the diameter of the circular non-smooth structure is either 0.25 mm or 0.30 mm, and the simulation results are poor. At a diameter of 0.20 mm, the average wear rate of circular non-smooth blades is at its lowest point. The circular non-smooth surface structure causes impurities to be “caught” by the vortex zone and not freely struck against the wall, resulting in the particles migrating away from the blade.

Funder

Zhejiang Provincial Natural Science Foundation of China

Publisher

MDPI AG

Subject

Surfaces, Coatings and Films,Mechanical Engineering

Reference34 articles.

1. Experimental study of bionic wear resistance optimization for middle plates in scraper conveyors;Zhao;China Mech. Eng.,2020

2. Multi-Objective Optimization of Double Vane Pump Based on Radial Basis Neural Network and Particle Swarm;Wang;Trans. Chin. Soc. Agric. Eng.,2019

3. Flow Structure of Coarse-Grained Slurry in A Horizontal Pipe

4. Experimental investigation of centrifugal slurry pump casing wear handling solid-liquid mixtures

5. US Energy Information Administration’s International Energy Outlook 2020 (Ieo2020),2020

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