AEROSPACE SHANGHAI, Volume. 41, Issue 3, 74(2024)

Review on the Fluid-structure Coupling Characteristicsin the Water Entry of Cross-media Vehicles

Hui QI*, Jing GUO, Fuqing CHU, Hao WU, Xianglong YANG, Haibo ZHAO, Hao FU, and Peng WANG
Author Affiliations
  • College of Aerospace and Civil Engineering,Harbin Engineering University,Harbin150001,,China
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    References(76)

    [1] A M WORTHINGTON, R S COLE. Impact with a liquid surface studied by the aid of instantaneous photography. Paper Ⅱ Philos Trans R Soc A Math Phys Eng Sci, 194, 175-199(1900).

    [2] T H VON KARMAN. The impact on seaplane floats during landing(1929).

    [3] H WAGNER. Phenomena associated with impacts and sliding on liquid surfaces. Journal of Applied Mathematics and Mechanics, 12, 193-215(1932).

    [4] L SEDOV. The impact of a solid body floating on the surface of an incompressible fluid(1934).

    [5] G BIRKHOFF, R ISAACS. Transient cavities in air-water entry(1951).

    [6] J H G VERHAGEN. The impact of a flat plate on a water surface. Journal of Ship Research, 11, 211-223(1967).

    [8] R S JOHNSON. A modern introduction to the mathematical theory of water waves(1997).

    [9] G N BULLOCK, A R GRAWFORD, P I HEWSON et al. The influence of air and scale on wave impact pressures. Coastal Engineering, 42, 291-312(2001).

    [10] N A LANGE, T RUNG. Impact tests in pure and aerated water, 559-567(2011).

    [11] S KULKARNIS, R PRATAP. Studies on the dynamics of a supercavitating projectile. Applied Mathematical Modelling, 24, 113-129(2000).

    [12] C DUEZ et al. Dynamics of transient cavities. Journal of Fluid Mechanics, 591, 1-19(2007).

    [13] M A JEFFREY, W M JOHN. Water entry of small hydrophobic spheres. Journal of Fluid Mechanics, 619, 45-78(2009).

    [14] J M ARISTOFF, T T TRUSCOTT, A H TECHET et al. The water entry of decelerating spheres. Physics of Fluids, 22(2010).

    [15] Z T GUO, W ZHANG, X K XIAO et al. An investigation into horizontal water entry behaviors of projectiles with different nose shapes. International Journal of Impact Engineering, 49, 43-60(2012).

    [16] W ZHANG, Z T GUO, C WANG. Experimental and theoretical study on the high-speed horizontal water entry behaviors of cylindrical projectiles. Journal of Hydrodynamics, 24, 217-225(2012).

    [18] A DYMENT. Violent water entry of spheres. European Journal of Mechanics - B/Fluids, 74, 331-341(2019).

    [19] S Y WU, Z Y SHAO, S S FENG et al. Water-entry behavior of projectiles under the protection of polyurethane buffer head. Ocean Engineering, 197, 106809(2020).

    [20] J C WOODHULL. Drag coefficients of steel spheres entering water vertically. Journal of Applied Physics, 19, 1109-1121(1948).

    [22] D GILBARG, R A ANDERSON. Influence of atmospheric pressure on the phenomena accompanying the entry of spheres into water. Journal of Applied Physics, 19, 127-139(1948).

    [23] G H BOTTOM. The impact of a model seaplane float on water(1919).

    [24] Z Y WEI, X H SHI, Y H WANG et al. The oblique water entry impact of a torpedo and its ballistic trajectory simulation. Int J Numer Anal Model, 9, 312-325(2012).

    [26] K G BODILY, S J CARLSON, T T TRUSCOTT et al. The water entry of slender axisymmetric bodies. Physics of Fluids, 26(2014).

    [28] W ZHANG, Y F QI, W HUANG et al. Experimental investigation on underwater trajectory deviation of high-speed projectile with different nose shape. Research Article, 1793(2017).

    [29] J C LI, Y J WEI, C WANG et al. Cavity formation during water entry of heated spheres. Chinese Physics B, 27(2018).

    [30] Y H JIANG, T BAI, Y GAO et al. Water entry of a constraint posture body under different entry angles and ventilation rates. Ocean Engineering, 153, 53-59(2018).

    [31] N B SPEIRS, M M MANSOOR, J BELDEN et al. Water entry of spheres with various contactangles. Journal of Fluid Mechanics, 862(2019).

    [32] N B SPEIRS, J BELDEN, Z PAN et al. The water entry of a sphere in a jet. Journal of Fluid Mechanics, 863, 956-968(2019).

    [33] T CHEN, W HUANG, W ZHANG et al. Experimental investigation on trajectory stability of high-speed water entry projectiles. Ocean Engineering, 175, 16-24(2019).

    [34] N KIM, H PARK. Water entry of rounded cylindrical bodies with different aspect ratios and surface conditions. Journal of Fluid Mechanics, 863, 757-788(2019).

    [35] C CHEN, X L YUAN, X Y LIU et al. Experimental and numerical study on the oblique water-entry impact of a cavitating vehicle with a disk cavitator. International Journal of Naval Architecture and Ocean Engineering, 11, 482-494(2019).

    [36] Y SHI, G H WANG, G PAN. Experimental study on cavity dynamics of projectile water entry with different physical parameters. Physics of Fluids, 31(2019).

    [38] R ZHAO, O M FALTINSEN. Water entry of two-dimensional bodies. Journal of Fluid Mechanics, 246, 593-612(1993).

    [39] K KLEEFSMAN, G FEKKEN, A VELDMAN et al. A volume-of-fluid based simulation method for wave impact problems. Journal of Computational Physics, 206, 363-393(2005).

    [40] T TAKAMI, S MATSUI et al. A numerical simulation method for predicting global and local hydroelastic response of a ship based on CFD and FEA coupling. Marine Structures, 59, 368-386(2018).

    [41] J J MONAGHAN. Simulating free surface flows with SPH. Journal of Computational Physics, 110, 399-406(1994).

    [42] Y ZHANG, D WAN. MPS-FEM coupled method for sloshing flows in an elastic tank. Ocean Engineering(2018).

    [46] Z HOU, T Z SUN, X B QUAN et al. Large eddy simulation and experimental investigation on the cavity dynamics and vortex evolution for oblique water entry of a cylinder. Applied Ocean Research, 81, 76-92(2018).

    [47] C XU, J HUANG, Y W WANG et al. Supercavitating flow around high-speed underwater projectile near free surface induced by air entrainment. AIP Advances, 8(2018).

    [48] S DERAKHSHANIANM, M HAGHDEL, M M ALISHAHI et al. Experimental and numerical investigation for a reliable simulation tool for oblique water entry problems. Ocean Engineering, 160, 231-243(2018).

    [49] C CHEN, T SUN, Y WEI et al. Computational analysis of compressibility effects on cavity dynamics in high-speed water-entry. International Journal of Naval Architecture and Ocean Engineering, 11, 495-509(2019).

    [50] J G GAO, Z H CHEN, Z G HUANG et al. Numerical investigations on the oblique water entry of high-speed projectiles. Applied Mathematics and Computation, 362, 124547(2019).

    [51] A Z CHAUDHRY, G PAN, Y SHI. Numerical evaluation of the hydrodynamic impact characteristics of the air launched AUV upon water entry. Modern Physics Letters B, 34, 2050149(2020).

    [52] X YANG, GUANG PAN, S YAO et al. Experimental and numerical investigation of water impact on air-launched AUVs. Ocean Engineering, 167, 156-168(2018).

    [53] M ALYA, M ASAI. Water entry of decelerating spheres simulations using improved ISPH method. Journal of Hydrodynamics, 30, 1120-1133(2018).

    [54] P SUN, A M ZHANG, S MARRONE et al. An accurate and efficient SPH modeling of the water entry of circular cylinders. Applied Ocean Research, 72, 60-75(2018).

    [56] M SHIFFMAN, D C SPENCER. The force of impact on a cone striking a water surface (vertical entry). Communications on Pure & Applied Mathematics, 4, 379-417(1951).

    [57] P GARABEDIAN. Oblique water entry of a wedge. Communications on Pure & Applied Mathematics, 6, 157-165(1953).

    [58] G D XU, W Y DUAN, G X WU. Numerical simulation of oblique water entry of an asymmetrical wedge. Ocean Engineering, 35, 1597-1603(2008).

    [59] O H HASSOON, M TARFAOUI, A E MOUMEN et al. Mechanical performance evaluation of sandwich panels exposed to slamming impacts:Comparison between experimental and SPH results. Composite Structures, 220, 776-783(2019).

    [60] C DONG, S SUN, H SONG et al. Numerical and experimental study on the impact between a free falling wedge and water. International Journal of Naval Architecture and Ocean Engineering, 11, 233-243(2019).

    [61] Y CHENG, G LI, C JI et al. Numerical investigation of waves slamming on a rotating flap in free motion using a fully nonlinear HOBEM. Ocean Engineering, 106795.1-106795.16(2020).

    [62] D QI, J F FENG, B W XU et al. Investigation of water entry impact forces on airborne-launched AUVs. Engineering Applications of Computational Fluid Mechanics, 10, 473-484(2016).

    [63] C HURDR, J BELDEN, M A JANDRON et al. Water entry of deformable spheres. Journal of Fluid Mechanics, 824, 912-930(2017).

    [64] Y SHI, G PAN, S C YIM et al. Numerical study on the cavity characteristics and impact loads of AUV water entry. Applied Ocean Research, 89, 44-58(2019).

    [65] Y SHI, G PAN, S C YIM et al. Numerical investigation of hydroelastic water-entry impact dynamics of AUVs. Journal of Fluids and Structures, 91, 44-58(2019).

    [66] Y SHI, X F GAO, G PAN et al. Experimental and numerical investigation of the frequency-domain characteristics of impact load for AUV during water entry. Ocean Engineering, 202, 107203(2020).

    [67] X Y ZHANG, Y SHI, G PAN et al. Study on the impact performance of sandwich hollow cylinders hitting water based on SPH method. Ocean Engineering, 197, 106808(2020).

    [68] Y SHI, G PAN, S C YIM et al. Numerical investigation of hydroelastic water-entry impact dynamics of AUVs. Journal of Fluids and Structures, 91, 102760-102778(2019).

    [69] A A KOROBKIN, V V PUKHNACHOV. Initial stage of water impact. Annual Review of Fluid Mechanics, 20, 159-185(1998).

    [70] R PANCIROLI, G FALCUCCI, G ERME et al. Fluid-structure Interaction During the Water Entry of Flexible Cylinders, 22-28(2014).

    [71] M JALALISENDI, M PORFIRI. Water entry of cylindrical shells:theory and experiments. AIAA J, 56, 4500-4514(2018).

    [72] S HOSSEINZADEH, K TABRI, S HIRDARIS et al. Slamming loads and responses on a non-prismatic stiffened aluminium wedge:Part I.Experimental study. Ocean Eng, 279, 19(2023).

    [73] S TAVAKOLI, T MIKKOLA, S HIRDARIS. A fluid-solid momentum exchange method for the prediction of hydroelastic responses of flexible water entry problems. J Fluid Mech, 965, 36(2023).

    [82] K YUAN, J W YU, Z HE. et al Numerical study on the dynamic response of liquid-filled closed hollow cylinder under water impact. Ocean Eng, 288, 12(2023).

    [83] L YANG, Y J WEI, C WANG et al. Numerical study on the deformation behaviors of elastic spheres during water entry. Fluids Struct, 99, 17(2020).

    [84] D GILBARG, R A ANDERSON. Influence of atmospheric pressure on the phenomena accompanying the entry of spheres into water. Journal of Applied Physics, 9, 127-139(1948).

    [85] E G RICHARDSON. The impact of a solid on a liquid surface. Proceedings of the Physical Society of London, 61, 352-366(1948).

    [86] Z GUO, W ZHANG, C WANG. Experimental and theoretical study on the high-speed horizontal water entry behaviors of cylindrical projectiles. Journal of Hydrodynamics, 24, 217-225(2012).

    [87] Z T GUO, W ZHANG, X K XIAO et al. An investigation into horizontal water entry behaviors of projectiles with different nose shapes. International Journal of Impact Engineering, 43-60(2012).

    [88] V DUCLAUX, F CAILLÉ, C DUEZ et al. Dynamics of transient cavities. Journal of Fluid Mechanics, 591, 1-19(2007).

    [89] T G SHEPARD, K SEAMUS, W SAMUEL. Trajectory model for vertical sphere water-entry in presence of deep-seal cavity. Applied Ocean Research, 82, 478-488(2019).

    [91] A E M ALAOUI, A NÊME, Y M SCOLAN. Experimental investigation of hydrodynamic loads and pressure distribution during a pyramid water entry. Journal of Fluids and Structures, 54, 925-935(2015).

    [92] G X YAN, G PAN, Y SHI et al. Experimental and numerical investigation of water impact on air-launched AUVs, 167, 156-168(2018).

    [94] F C KORKMAZ, B GUZEL. Water entry of cylinders and spheres under hydrophobic effects;Case for advancing deadrise angles. Ocean Engineering, 129, 240-252(2017).

    [96] M S PARK, Y R JUNG, W G PARK. Numerical study of impact force and ricochet behavior of high speed water-entry bodies. Computers & Fluids, 32, 939-951(2003).

    [98] X LIU, K LUO, X YUAN et al. Numerical study on the impact load characteristics of a trans-media vehicle during high-speed water entry and flat turning. Ocean engineering, 273, 113986(2023).

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    Hui QI, Jing GUO, Fuqing CHU, Hao WU, Xianglong YANG, Haibo ZHAO, Hao FU, Peng WANG. Review on the Fluid-structure Coupling Characteristicsin the Water Entry of Cross-media Vehicles[J]. AEROSPACE SHANGHAI, 2024, 41(3): 74

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    Paper Information

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    Received: May. 20, 2024

    Accepted: --

    Published Online: Sep. 3, 2024

    The Author Email:

    DOI:10.19328/j.cnki.2096-8655.2024.03.008

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