The analysis on the cavitation performance of a steam turbine lubricating oil pump with consideration of the fluid temperature effect

W X Ye, W P Yu, R F Huang and X W Luo
Institute of Physics (IOP)
Published 2018
Publication Date:
2018-07-31
Publisher:
Institute of Physics (IOP)
Print ISSN:
1755-1307
Electronic ISSN:
1755-1315
Topics:
Geography
Geosciences
Physics
Published by:
_version_ 1839208145412423681
autor W X Ye, W P Yu, R F Huang and X W Luo
beschreibung During the operation of the pump, cavitation can cause performance drop and erosion damage to its flow parts, even can produce noise and vibration. Further, it is well known that temperature variation is of great significance for cavitation in a pump. The present paper treated the numerical analysis of cavitation in a lubricating oil pump under different temperature. In this paper, we used UGS NX to make three-dimensional model of the pump impeller and ICEM to cut the non-structural mesh of the whole flow passage. For cavitating turbulent flow simulation, a newly developed cavitation model based on Rayleigh-Plesset equation was applied. The cavitating turbulent flows in the pump impeller at different oil temperatures from 35°C to 100°C were simulated. The numerical results at different flow discharge were compared with the available experimental data. It was noted that the numerical results by the proposed cavitation model agreed fairly well with the experimental data. The resul...
citation_standardnr 6311318
datenlieferant ipn_articles
feed_id 108844
feed_publisher Institute of Physics (IOP)
feed_publisher_url http://www.iop.org/
insertion_date 2018-07-31
journaleissn 1755-1315
journalissn 1755-1307
publikationsjahr_anzeige 2018
publikationsjahr_facette 2018
publikationsjahr_intervall 7984:2015-2019
publikationsjahr_sort 2018
publisher Institute of Physics (IOP)
quelle IOP Conference Series: Earth and Environmental Science
relation http://iopscience.iop.org/1755-1315/163/1/012069
search_space articles
shingle_author_1 W X Ye, W P Yu, R F Huang and X W Luo
shingle_author_2 W X Ye, W P Yu, R F Huang and X W Luo
shingle_author_3 W X Ye, W P Yu, R F Huang and X W Luo
shingle_author_4 W X Ye, W P Yu, R F Huang and X W Luo
shingle_catch_all_1 The analysis on the cavitation performance of a steam turbine lubricating oil pump with consideration of the fluid temperature effect
During the operation of the pump, cavitation can cause performance drop and erosion damage to its flow parts, even can produce noise and vibration. Further, it is well known that temperature variation is of great significance for cavitation in a pump. The present paper treated the numerical analysis of cavitation in a lubricating oil pump under different temperature. In this paper, we used UGS NX to make three-dimensional model of the pump impeller and ICEM to cut the non-structural mesh of the whole flow passage. For cavitating turbulent flow simulation, a newly developed cavitation model based on Rayleigh-Plesset equation was applied. The cavitating turbulent flows in the pump impeller at different oil temperatures from 35°C to 100°C were simulated. The numerical results at different flow discharge were compared with the available experimental data. It was noted that the numerical results by the proposed cavitation model agreed fairly well with the experimental data. The resul...
W X Ye, W P Yu, R F Huang and X W Luo
Institute of Physics (IOP)
1755-1307
17551307
1755-1315
17551315
shingle_catch_all_2 The analysis on the cavitation performance of a steam turbine lubricating oil pump with consideration of the fluid temperature effect
During the operation of the pump, cavitation can cause performance drop and erosion damage to its flow parts, even can produce noise and vibration. Further, it is well known that temperature variation is of great significance for cavitation in a pump. The present paper treated the numerical analysis of cavitation in a lubricating oil pump under different temperature. In this paper, we used UGS NX to make three-dimensional model of the pump impeller and ICEM to cut the non-structural mesh of the whole flow passage. For cavitating turbulent flow simulation, a newly developed cavitation model based on Rayleigh-Plesset equation was applied. The cavitating turbulent flows in the pump impeller at different oil temperatures from 35°C to 100°C were simulated. The numerical results at different flow discharge were compared with the available experimental data. It was noted that the numerical results by the proposed cavitation model agreed fairly well with the experimental data. The resul...
W X Ye, W P Yu, R F Huang and X W Luo
Institute of Physics (IOP)
1755-1307
17551307
1755-1315
17551315
shingle_catch_all_3 The analysis on the cavitation performance of a steam turbine lubricating oil pump with consideration of the fluid temperature effect
During the operation of the pump, cavitation can cause performance drop and erosion damage to its flow parts, even can produce noise and vibration. Further, it is well known that temperature variation is of great significance for cavitation in a pump. The present paper treated the numerical analysis of cavitation in a lubricating oil pump under different temperature. In this paper, we used UGS NX to make three-dimensional model of the pump impeller and ICEM to cut the non-structural mesh of the whole flow passage. For cavitating turbulent flow simulation, a newly developed cavitation model based on Rayleigh-Plesset equation was applied. The cavitating turbulent flows in the pump impeller at different oil temperatures from 35°C to 100°C were simulated. The numerical results at different flow discharge were compared with the available experimental data. It was noted that the numerical results by the proposed cavitation model agreed fairly well with the experimental data. The resul...
W X Ye, W P Yu, R F Huang and X W Luo
Institute of Physics (IOP)
1755-1307
17551307
1755-1315
17551315
shingle_catch_all_4 The analysis on the cavitation performance of a steam turbine lubricating oil pump with consideration of the fluid temperature effect
During the operation of the pump, cavitation can cause performance drop and erosion damage to its flow parts, even can produce noise and vibration. Further, it is well known that temperature variation is of great significance for cavitation in a pump. The present paper treated the numerical analysis of cavitation in a lubricating oil pump under different temperature. In this paper, we used UGS NX to make three-dimensional model of the pump impeller and ICEM to cut the non-structural mesh of the whole flow passage. For cavitating turbulent flow simulation, a newly developed cavitation model based on Rayleigh-Plesset equation was applied. The cavitating turbulent flows in the pump impeller at different oil temperatures from 35°C to 100°C were simulated. The numerical results at different flow discharge were compared with the available experimental data. It was noted that the numerical results by the proposed cavitation model agreed fairly well with the experimental data. The resul...
W X Ye, W P Yu, R F Huang and X W Luo
Institute of Physics (IOP)
1755-1307
17551307
1755-1315
17551315
shingle_title_1 The analysis on the cavitation performance of a steam turbine lubricating oil pump with consideration of the fluid temperature effect
shingle_title_2 The analysis on the cavitation performance of a steam turbine lubricating oil pump with consideration of the fluid temperature effect
shingle_title_3 The analysis on the cavitation performance of a steam turbine lubricating oil pump with consideration of the fluid temperature effect
shingle_title_4 The analysis on the cavitation performance of a steam turbine lubricating oil pump with consideration of the fluid temperature effect
timestamp 2025-07-31T23:46:10.735Z
titel The analysis on the cavitation performance of a steam turbine lubricating oil pump with consideration of the fluid temperature effect
titel_suche The analysis on the cavitation performance of a steam turbine lubricating oil pump with consideration of the fluid temperature effect
topic R
TE-TZ
U
uid ipn_articles_6311318