Fluid-Structure Interaction of Propellers

被引:8
|
作者
Neugebauer, Jens [1 ]
Abdel-Maksoud, Aloustafa [1 ]
Braun, Manfred [2 ]
机构
[1] Inst Ship Technol & Transport Syst, Duisburg, Germany
[2] Inst Mechatron & Syst Dynam, Duisburg, Germany
关键词
D O I
10.1007/978-1-4020-8630-4_17
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
The performance of a propeller is influenced by the wake of the ship, which results in an unsteady inflow to the propeller. Thus, the pressure on the propeller and its distribution as well as the resulting torque and thrust fluctuate during, a revolution. The se variations may evoke vibration of the propulsion system and it further transfer of the induced vibration into the hull structure can take place. For special purpose applications, e.g. cruise liners, fishing research vessels and submarines, vibration and the resulting noise level is a strong design criterion. In order to minimise pressure fluctuations, a propeller with a high blade number and skew angle is recommended. Beside the reduction of the noise level it is also an advantage to minimise the displacement effect by application of thin blade shapes. During the Calculation of the pressure fluctuation, the deformation of the propeller due to thrust loading is mostly neglected, but as the blades are thin, already at partial load, the dynamic structural reaction influences the flow around the propeller. As the pressure distribution changes, CFD calculations considering the deformation of the propeller become even more important.
引用
收藏
页码:191 / +
页数:2
相关论文
共 50 条
  • [31] Fluid-structure interaction in pipe flow
    Benyahia, Nabil
    Souidi, Ferhat
    [J]. PROGRESS IN COMPUTATIONAL FLUID DYNAMICS, 2007, 7 (06): : 354 - 362
  • [32] A NONREFLECTING BOUNDARY IN FLUID-STRUCTURE INTERACTION
    SHARAN, SK
    [J]. COMPUTERS & STRUCTURES, 1987, 26 (05) : 841 - 846
  • [33] Fluid-structure interaction in deformable microchannels
    Chakraborty, Debadi
    Prakash, J. Ravi
    Friend, James
    Yeo, Leslie
    [J]. PHYSICS OF FLUIDS, 2012, 24 (10)
  • [34] Parallel methods for fluid-structure interaction
    Jenssen, CB
    Kvamsdal, T
    Okstad, KM
    Amundsen, J
    [J]. APPLIED PARALLEL COMPUTING: LARGE SCALE SCIENTIFIC AND INDUSTRIAL PROBLEMS, 1998, 1541 : 263 - 274
  • [35] Dimensional analysis in fluid-structure interaction
    de Langre, E
    [J]. HOUILLE BLANCHE-REVUE INTERNATIONALE DE L EAU, 2000, (3-4): : 14 - 18
  • [36] New Advances in Fluid-Structure Interaction
    Chen, Wenli
    Yang, Zifeng
    Hu, Gang
    Jing, Haiquan
    Wang, Junlei
    [J]. APPLIED SCIENCES-BASEL, 2022, 12 (11):
  • [37] SPH modeling of fluid-structure interaction
    Luhui Han
    Xiangyu Hu
    [J]. Journal of Hydrodynamics, 2018, 30 (01) : 62 - 69
  • [38] Fluid-structure interaction in the safety of infrastructures
    Cesteiro, A.
    Ramos, H. M.
    [J]. INTEGRATING WATER SYSTEMS, 2010, : 613 - 619
  • [39] Fluid-structure interaction for aeroelastic applications
    Kamakoti, R
    Shyy, W
    [J]. PROGRESS IN AEROSPACE SCIENCES, 2004, 40 (08) : 535 - 558
  • [40] SPH modeling of fluid-structure interaction
    Han, Luhui
    Hu, Xiangyu
    [J]. JOURNAL OF HYDRODYNAMICS, 2018, 30 (01) : 62 - 69