Effect of the Stator Slot Indents on Fluid Damping Loss in Submersible Pump Applications

Didem Tekgun, M. M. Coşdu, B. Tekgun, I. Alan
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引用次数: 1

Abstract

In this study, the effect of fluid damping on the performance of a 2-pole, 4-kW line start synchronous reluctance machine (LS-SynRM) with different slot opening structures for submersible water pump applications is investigated. Since the submersible pump motors run inside a fluid-filled environment and the fluid viscosity and density differ from the air, it causes an increased damping effect comparing air-filled machines. Hence, a non-negligible damping loss occurs. In this study, the damping effects of the fluids in a 24 slot LS-SynRM for various stator slot indentations are investigated with computational fluid dynamics (CFD) finite element analysis (FEA) to highlight the importance of the fluid damping loss in flooded machines. Results show that the damping loss can go as high as 10% of the motor output power when the stator surface has indentations, and this loss can be cut down to 3.5 % when the surface indentations are eliminated with custom no-slotting wedge structures.
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定子槽凹痕对潜水泵流体阻尼损失的影响
在本研究中,研究了流体阻尼对用于潜水泵的2极、4kw线路启动同步磁阻电机(LS-SynRM)不同开槽结构性能的影响。由于潜水泵电机在充满流体的环境中运行,并且流体的粘度和密度与空气不同,因此与充满空气的机器相比,它会产生更大的阻尼效果。因此,出现了不可忽略的阻尼损失。本研究采用计算流体动力学(CFD)有限元分析(FEA)方法,研究了24槽LS-SynRM中不同定子槽压痕下流体的阻尼效应,以突出流体阻尼损失在淹水机械中的重要性。结果表明,当定子表面有压痕时,阻尼损耗可达电机输出功率的10%,而当采用定制的无槽楔结构消除表面压痕时,阻尼损耗可降至3.5%。
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