Numerical and experimental investigation of tank-type axial-flow pump device

By means of numerical simulation and experimental verification, this article investigates the hydraulic performance and pressure fluctuation of a tank-style axial-flow pump device. With orthogonal test, 16 schemes are designed concerning the different flow conditions of the inlet and outlet passages...

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Main Authors: Lijian Shi, Fangping Tang, Rongsheng Xie, Weipeng Zhang
Format: Article
Language:English
Published: SAGE Publishing 2017-03-01
Series:Advances in Mechanical Engineering
Online Access:https://doi.org/10.1177/1687814017695681
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spelling doaj-dceea5a7f7034c879e05ea6cc1b8a9ed2020-11-25T02:58:19ZengSAGE PublishingAdvances in Mechanical Engineering1687-81402017-03-01910.1177/1687814017695681Numerical and experimental investigation of tank-type axial-flow pump deviceLijian ShiFangping TangRongsheng XieWeipeng ZhangBy means of numerical simulation and experimental verification, this article investigates the hydraulic performance and pressure fluctuation of a tank-style axial-flow pump device. With orthogonal test, 16 schemes are designed concerning the different flow conditions of the inlet and outlet passages, and simulated calculations are done; then the non-steady numerical simulation of pressure fluctuation is carried out for the optimized pump device; a model test finally verifies the reliability of the simulated numerical values of the optimized scheme. The results show that using the orthogonal test, an optimized scheme of the inlet and outlet passages can be obtained; compared with the initial scheme, the optimized one reduces the hydraulic loss by 1.3 cm in the inlet passage and 7.96 cm in the outlet passage; numerical simulation witnesses the highest pump operating efficiency of 70.04%, efficiency of 66.82% with the design head of 1.36 m, and the corresponding flow of 34.31 m 3 /s; the model test verifies all the simulated values of the optimized scheme with the highest pump operating efficiency reaching 71.5% and the test efficiency arriving at about 64% when the design head is 1.36 m. Meanwhile, the highest pressure fluctuation appears at the entrance of the impeller; the main frequency of the impeller and guide vane pressure fluctuation is 5 Hz depending on the frequency of the blade. This study offers reference for similar pump station project.https://doi.org/10.1177/1687814017695681
collection DOAJ
language English
format Article
sources DOAJ
author Lijian Shi
Fangping Tang
Rongsheng Xie
Weipeng Zhang
spellingShingle Lijian Shi
Fangping Tang
Rongsheng Xie
Weipeng Zhang
Numerical and experimental investigation of tank-type axial-flow pump device
Advances in Mechanical Engineering
author_facet Lijian Shi
Fangping Tang
Rongsheng Xie
Weipeng Zhang
author_sort Lijian Shi
title Numerical and experimental investigation of tank-type axial-flow pump device
title_short Numerical and experimental investigation of tank-type axial-flow pump device
title_full Numerical and experimental investigation of tank-type axial-flow pump device
title_fullStr Numerical and experimental investigation of tank-type axial-flow pump device
title_full_unstemmed Numerical and experimental investigation of tank-type axial-flow pump device
title_sort numerical and experimental investigation of tank-type axial-flow pump device
publisher SAGE Publishing
series Advances in Mechanical Engineering
issn 1687-8140
publishDate 2017-03-01
description By means of numerical simulation and experimental verification, this article investigates the hydraulic performance and pressure fluctuation of a tank-style axial-flow pump device. With orthogonal test, 16 schemes are designed concerning the different flow conditions of the inlet and outlet passages, and simulated calculations are done; then the non-steady numerical simulation of pressure fluctuation is carried out for the optimized pump device; a model test finally verifies the reliability of the simulated numerical values of the optimized scheme. The results show that using the orthogonal test, an optimized scheme of the inlet and outlet passages can be obtained; compared with the initial scheme, the optimized one reduces the hydraulic loss by 1.3 cm in the inlet passage and 7.96 cm in the outlet passage; numerical simulation witnesses the highest pump operating efficiency of 70.04%, efficiency of 66.82% with the design head of 1.36 m, and the corresponding flow of 34.31 m 3 /s; the model test verifies all the simulated values of the optimized scheme with the highest pump operating efficiency reaching 71.5% and the test efficiency arriving at about 64% when the design head is 1.36 m. Meanwhile, the highest pressure fluctuation appears at the entrance of the impeller; the main frequency of the impeller and guide vane pressure fluctuation is 5 Hz depending on the frequency of the blade. This study offers reference for similar pump station project.
url https://doi.org/10.1177/1687814017695681
work_keys_str_mv AT lijianshi numericalandexperimentalinvestigationoftanktypeaxialflowpumpdevice
AT fangpingtang numericalandexperimentalinvestigationoftanktypeaxialflowpumpdevice
AT rongshengxie numericalandexperimentalinvestigationoftanktypeaxialflowpumpdevice
AT weipengzhang numericalandexperimentalinvestigationoftanktypeaxialflowpumpdevice
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