Numerical investigation on hydrodynamic performance of shaftless rim-driven thruster

被引:1
作者
Peng, Liang [1 ]
Wang, Changfa [1 ]
Tan, Yongqiang [1 ]
Hu, Yi [1 ]
Chen, Zhenlei [1 ]
Xia, Shaohua [2 ]
Shi, Fan [1 ]
机构
[1] Ningbo Univ, Fac Maritime & Transportat, Meishan Campus,169 Qixing South Rd, Ningbo, Zhejiang, Peoples R China
[2] Ningbo Haibo Grp Co Ltd, Ningbo, Peoples R China
关键词
D O I
10.1080/20464177.2023.2266886
中图分类号
U6 [水路运输]; P75 [海洋工程];
学科分类号
0814 ; 081505 ; 0824 ; 082401 ;
摘要
As a new type of propulsion method, the shaftless rim-driven thruster (RDT) has become a research hotspot for ship propulsion due to the absence of the propeller propulsion shaft system setting and the advantages of small cabin occupancy, low noise and low vibration. Numerical investigations were performed to study the effect of blade inclination angle on the hydrodynamic performance of shaftless Rim-driven Thruster. To verify the feasibility of the simulation method, the No.19A + Ka4-70 duct propeller was analysed first and the geometric model of the RDT for the hydrodynamic properties was established in reverse engineering. The hydrodynamic performance of the shaftless rim thruster was studied based on the RANS method, and the performance data of this shaftless rim thruster at each inlet speed coefficient were obtained. Additionally, the characteristics of the change in the inclination angle of the blade relative to its centre axis were examined and the effect of the change in inclination angle on the hydrodynamic performance of the shaftless rim thruster was investigated. Additionally, the numerical calculation results show that a five degree increase in the Z-axis circumferential inclination results in the increase of all the hydrodynamic coefficients of the RDT. Among them, the total thrust is increased by about 14%, the total torque is increased by about 15% and the total efficiency is also comparable to the original thruster efficiency.
引用
收藏
页码:47 / 54
页数:8
相关论文
共 23 条
[1]  
[Anonymous], 2009, P 1 INT S MAR PROP S
[2]  
[Anonymous], 2000, SNAME P PROP SHAFT S
[3]  
[Anonymous], 2019, P RINA PROP IMP RES
[4]   Application of the body force method in the rim driven thruster [J].
Cai, Boao ;
Tian, Binbin ;
Qiu, Liaoyuan ;
Xu, Qing ;
Mao, Xiaofei ;
He, Wei ;
Chai, Wei .
INTERNATIONAL JOURNAL OF NAVAL ARCHITECTURE AND OCEAN ENGINEERING, 2022, 14
[5]   Numerical modelling of rotor-stator interaction in rim driven thrusters [J].
Dubas, Aleksander J. ;
Bressloff, N. W. ;
Sharkh, S. M. .
OCEAN ENGINEERING, 2015, 106 :281-288
[6]   Numerical design of a RIM-driven thruster using a RANS-based optimization approach [J].
Gaggero, Stefano .
APPLIED OCEAN RESEARCH, 2020, 94
[7]  
Lea M., 2003, J. Ship Prod, V19, P121, DOI [10.5957/jsp.2003.19.2.121, DOI 10.5957/JSP.2003.19.2.121]
[8]   Hydrodynamic performance of a rim-driven thruster improved with gap geometry adjustment [J].
Lin, Jianfeng ;
Yao, Hua-Dong ;
Wang, Chao ;
Su, Yumin ;
Yang, Chun .
ENGINEERING APPLICATIONS OF COMPUTATIONAL FLUID MECHANICS, 2023, 17 (01)
[9]   Numerical study of scale effects on the open water performance of a rim-driven thruster [J].
Liu, Bao ;
Vanierschot, Maarten ;
Buysschaert, Frank .
APPLIED OCEAN RESEARCH, 2023, 138
[10]   Optimization design of the duct of a rim-driven thruster using the adjoint approach [J].
Liu, Bao ;
Vanierschot, Maarten ;
Buysschaert, Frank .
OCEAN ENGINEERING, 2023, 278