Effect Mechanism of Splitter Blade Length on the Energy Performance of Centrifugal Pump

This study integrates numerical simulation and experimental validation to thoroughly examine the effects of splitter blades and their lengths on the energy performance of centrifugal pumps. The results demonstrate that numerical simulations closely align with experimental data in terms of head and efficiency, with an error margin of less than 5%, underscoring the accuracy and reliability of the simulations. Further analysis reveals that centrifugal pumps equipped with splitter blades display distinct performance characteristics compared to conventional impellers, particularly under low-flow conditions. The head curve of pumps with splitter blades exhibits a pronounced extremum and a positive slope in the low-flow region. Splitter blades play a crucial role in enhancing the head performance of centrifugal pumps, effectively expanding their high-head operating range. However, this improvement is accompanied by some efficiency loss, primarily due to fluid kinetic energy losses within the impeller and volute, as well as the structural design of the splitter blades. This research offers valuable theoretical insights and data to support the hydraulic design optimization of centrifugal pumps.

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Institutions

Publication Details

Journal
Journal of Applied Fluid Mechanics
Published
2025-06-07
DOI
https://doi.org/10.47176/jafm.18.8.3317
Citations
1
Primary Topic
Cavitation Phenomena in Pumps
Type
article
Field-Weighted Citation Impact
0.86

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article

Effect Mechanism of Splitter Blade Length on the Energy Performance of Centrifugal Pump

Shengqiang Jiang, Ziwei Liu, Qi Ma
1 citations
Journal of Applied Fluid Mechanics
Cavitation Phenomena in Pumps
0.86
article

Effect Mechanism of Splitter Blade Length on the Energy Performance of Centrifugal Pump

Shengqiang Jiang, Ziwei Liu, Qi Ma
article en
1 citations

Abstract

This study integrates numerical simulation and experimental validation to thoroughly examine the effects of splitter blades and their lengths on the energy performance of centrifugal pumps. The results demonstrate that numerical simulations closely align with experimental data in terms of head and efficiency, with an error margin of less than 5%, underscoring the accuracy and reliability of the simulations. Further analysis reveals that centrifugal pumps equipped with splitter blades display distinct performance characteristics compared to conventional impellers, particularly under low-flow conditions. The head curve of pumps with splitter blades exhibits a pronounced extremum and a positive slope in the low-flow region. Splitter blades play a crucial role in enhancing the head performance of centrifugal pumps, effectively expanding their high-head operating range. However, this improvement is accompanied by some efficiency loss, primarily due to fluid kinetic energy losses within the impeller and volute, as well as the structural design of the splitter blades. This research offers valuable theoretical insights and data to support the hydraulic design optimization of centrifugal pumps.

Journal of Applied Fluid MechanicsVol. 18(8)
Jiangsu University (CN), Hefei University of Technology (CN), Chuzhou University (CN), Masteel (China) (CN)
Chuzhou University
Openalex Percentile: Top 30%
Cavitation Phenomena in Pumps
0.86
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