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第 44 卷 第 3 期             李聪等: 不同叶顶间隙对泵喷推进器流噪声特性的影响                                          571


                 2008, 25(6): 927–931.                             vestigation of marine propeller underwater radiated noise
             [14] di Francescantonio P. A new boundary integral formula-  using acoustic analogy. Part 2: The influence of eddy
                 tion for the prediction of sound radiation[J]. Journal of  viscosity turbulence models[J]. Ocean Engineering, 2021,
                 Sound and Vibration, 1997, 202(4): 491–509.       220: 108353.
             [15] Mao Y, Hu Z. Analysis of spurious sound due to vorti-  [19] Sezen S, Atlar M. Marine propeller underwater radiated
                 cal flow through permeable surfaces[J]. Aerospace Science  noise prediction with the FWH acoustic analogy. Part
                 and Technology, 2020, 96: 105544.                 3: Assessment of full-scale propeller hydroacoustic perfor-
             [16] Zhong S, Zhang X, Huang X. A comparison of acoustic far-  mance versus sea trial data[J]. Ocean Engineering, 2022,
                 field prediction methods for turbulent flows[J]. Interna-  266: 112712.
                 tional Journal of Aeroacoustics, 2019, 18(6–7): 579–595.  [20] Qin D, Pan G, Lee S, et al. Underwater radiated noise
             [17] Sezen S, Cosgun T, Yurtseven A, et al. Numerical in-  reduction technology using sawtooth duct for pumpjet
                 vestigation of marine propeller underwater radiated noise  propulsor[J]. Ocean Engineering, 2019, 188: 106228.
                 using acoustic analogy. Part 1: The influence of grid res-  [21] Roache P J. Quantification of uncertainty in computa-
                 olution[J]. Ocean Engineering, 2021, 220: 108448.  tional fluid dynamics[J]. Annual Review of Fluid Mechan-
             [18] Sezen S, Cosgun T, Yurtseven A, et al. Numerical in-  ics, 1997, 29(1): 123–160.
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