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Experimental study on submerged supersonic gaseous jet induced tail cavity

Xu Hao Wang Cong Lu Hong-Zhi Huang Wen-Hu

Xu Hao, Wang Cong, Lu Hong-Zhi, Huang Wen-Hu. Experimental study on submerged supersonic gaseous jet induced tail cavity. Acta Phys. Sin., 2018, 67(1): 014703. doi: 10.7498/aps.67.20171617
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Experimental study on submerged supersonic gaseous jet induced tail cavity

Xu Hao, Wang Cong, Lu Hong-Zhi, Huang Wen-Hu
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  • Multiphase jets and cavitation problems are inevitable for high-speed underwater vehicles propelled by jet engines. Unlike being injected into stagnant water, the gaseous jet behind a underwater vehicle is usually conjugated with a tail cavity. The pulsation and collapse of such cavities can seriously affect the vehicle performance. In this study, the shape character, forming mechanism and control conditions for the supersonic gaseous jet induced tail cavity at the wake of a revolution body are experimentally investigated in a water tunnel. The induced cavity is ventilated only by a convergent-divergent nozzle with a designed Mach number of 2.45. The form of the cavity is recorded through two high-speed cameras both horizontally and vertically under different Froude numbers and ventilation rates. The time averaged form is thus obtained through digital image processing to eliminate the transient characteristics of the cavity. The experiment is conducted with the Froude number ranging from 3.2 to 16.2, and the ventilation rate 0 to 0.5. Due to the high density and velocity ratio between water and gas, the structure of such flow is usually very complicated. Many novel phenomena of the jet-cavity interaction are observed. With increasing stagnation pressure of the central jet, the induced cavities evolves form foamy, intact, partially break, to pulsating foamy closure type. The foamy and intact tail cavities share the same profile and characteristics that of a supercavity. And the pulsating foamy closure type was never observed before in a traditional supercavitating flow. The outline of the pulsating foamy cavity is the same as the foamy cavity's, indicating that they have the similar forming mechanism. A comparison with the jet-cavity interaction model is made and the following conclusions are obtained:the real ventilation rate, which corresponds to the re-entrant jet gas blocked by the cavity boundary, is the key factor in controlling the cavity form. When the gaseous jet is completely blocked by the water-gas interface, an intact or foamy cavity will be formed. A partially break cavity appears only when some fraction of the jet is blocked and this is when some of the strongest interactions between jet and cavity occurs. When little gas was blocked by the interface, a pulsating foamy cavity forms. With the structure of gaseous jet considered, the transition of the induced cavity closure between different types is in favour of the prediction from Paryshev's model of cavity closure to a central jet. The variation of the cavity form, thus the interaction strength between jet and cavity, coincides with the real ventilation rate estimated through the theoretical model.
      Corresponding author: Wang Cong, alanwang@hit.edu.cn
    • Funds: Project supported by the International Science Technology Cooperation Program of China (Grant No. 2015DFA70840).
    [1]

    Karn A, Arndt R E A, Hong J R 2016 J. Fluid Mech. 789 259

    [2]

    Wosnik M, Arndt R E A 2013 J. Fluids Eng. 135 011304

    [3]

    Shi H H, Wang J F, Chen S, Dong R L 2014 J. USTC 233 (in Chinese) [施红辉, 汪剑锋, 陈帅, 董若凌 2014 中国科学技术大学学报 233]

    [4]

    Wang C, Shi H H, Wang J F 2016 CIESC J. 67 2291(in Chinese) [王超, 施红辉, 汪剑锋 2016 化工学报 67 2291]

    [5]

    Berna C, Julia J E, Escriva A, Munoz-Cobo J L, Pastor J V, Mico C 2017 Exp. Therm Fluid Sci. 82 32

    [6]

    Kishnan M 2013 Annu. Rev. Fluid Mech. 45 379

    [7]

    Makiharju S A, Lee I H R, Filip G P, Maki K J, Ceccio S L 2017 J. Fluid Mech. 818 141

    [8]

    Rek Z, Gregorc J, Bouaifi M, Daniel C 2017 Chem. Eng. Sci. 172 667

    [9]

    Paryshev E V 2006 J. Eng. Math. 55 41

    [10]

    Kirschner I, Moeny M, Krane M, Kinzel M 2015 J. Phys.: Conference Series Lausanne, Switzerland, December 6-10, 2015 p012156

    [11]

    Moeny M, Krane M, Kirschner I, Kinzel M 2015 J. Phys.: Conference Series Lausanne, Switzerland, December 6-10, 2015 p012162

    [12]

    Kinzel M P, Krane M H, Kirschner I N, Moeny M J 2017 Ocean Eng. 136 304

    [13]

    He X, Lu C J, Cheng X 2010 J. Hydrodyn. 367 (in Chinese) [何晓, 鲁传敬, 陈鑫 2010 水动力学研究与进展: A辑 367]

    [14]

    Yi S H 2013 Supersonic and Hypersonic Nozzle Design (Beijing: National Defense Industry Press) p77 (in Chinese) [易仕和 2013 超声速与高超声速喷管设计(北京: 国防工业出版社)第77页]

    [15]

    Zhang X W, Wei Y J, Zhang J Z, Wang C, Yu K P 2007 J. Hydrodyn. 19 564

    [16]

    Kawakami E, Arndt R E 2011 J. Fluids Eng. 133 091305

    [17]

    Spazzini P G, Iuso G, Onorato M, Zurlo N, Di Cicca G M 2001 Exp. Fluids 30 551

    [18]

    Drazin P G, Reid W H 2004 Hydrodynamic Stability (Cambridge: Cambridge University Press) p17

    [19]

    Logvinovich G V 1972 Hydrodynamics of Free-boundary Flows (Jerusalem: Israel Program for Scientific Translations Ltd.) p109

    [20]

    Zhao F, Zhang Y L, Zhu R, Wang H 2014 J. USTB 36 366(in Chinese) [赵飞, 张延玲, 朱荣, 王慧 2014 北京科技大学学报 36 366]

    [21]

    Zhang X S, Xu H, Wang C, Lu H Z, Zhao J 2017 Acta Phys. Sin. 66 054702(in Chinese) [张孝石, 许昊, 王聪, 陆宏志, 赵静 2017 物理学报 66 054702]

    期刊类型引用(13)

    1. 曹越,俞建阳,汪思航,吕凌云,陈浮. 自然空化尾空泡内超声速射流流场特性数值研究仿真. 水下无人系统学报. 2024(03): 516-524 . 百度学术
    2. 崔祚,薛牧遥,尹超. 水下发射燃气射流特性及弹道影响研究综述. 战术导弹技术. 2024(03): 1-10+63 . 百度学术
    3. 周娟,杨丹. 水下固体火箭发动机复杂多相流场数值模拟. 中国造船. 2024(04): 216-229 . 百度学术
    4. 张春,许统华,刘新辉,王宝寿. 水下垂直运动航行体的尾喷流特性实验. 航空动力学报. 2024(10): 442-451 . 百度学术
    5. 曹亮亮,权晓波,尤天庆,王勇,陈香言. 不同尾部外形水下航行体附着空泡影响研究. 舰船科学技术. 2024(22): 39-44 . 百度学术
    6. 陈学军,王瑞,祁晓斌,张祯旖,范文涛. 燃气尾喷对水下航行体通气空泡形态及表面压力的影响. 固体火箭技术. 2023(04): 521-527 . 百度学术
    7. 张春,王宝寿. 水下航行体超声速射流与尾空泡耦合作用初期的流场特性. 兵工学报. 2022(07): 1685-1694 . 百度学术
    8. 张春,郁伟,王宝寿. 水下超声速过膨胀燃气射流的流场特性. 航空动力学报. 2022(08): 1633-1642 . 百度学术
    9. 权晓波,尤天庆,张晨星,王凡瑜,孔德才. 水下垂直发射航行体尾空泡振荡演化特性. 兵工学报. 2021(08): 1728-1734 . 百度学术
    10. 赵小宇,向敏,刘波,张为华. 通气空泡与超音速尾喷流耦合作用实验研究. 国防科技大学学报. 2021(05): 53-60 . 百度学术
    11. 赵小宇,向敏,张为华,刘波,李尚中. 超音速尾流作用下通气空泡稳定性及闭合位置数值研究. 力学学报. 2021(12): 3298-3309 . 百度学术
    12. 刘威,翁春生,李宁,黄孝龙. 脉冲爆轰发动机水下单次爆轰燃气射流初期流场特性. 兵工学报. 2020(S1): 104-109 . 百度学术
    13. 赵静,徐志程,陆宏志,魏洪亮,詹景坤,李明. 水下尾部喷流对航行体流体动力特性的影响. 强度与环境. 2020(05): 60-64 . 百度学术

    其他类型引用(7)

  • [1]

    Karn A, Arndt R E A, Hong J R 2016 J. Fluid Mech. 789 259

    [2]

    Wosnik M, Arndt R E A 2013 J. Fluids Eng. 135 011304

    [3]

    Shi H H, Wang J F, Chen S, Dong R L 2014 J. USTC 233 (in Chinese) [施红辉, 汪剑锋, 陈帅, 董若凌 2014 中国科学技术大学学报 233]

    [4]

    Wang C, Shi H H, Wang J F 2016 CIESC J. 67 2291(in Chinese) [王超, 施红辉, 汪剑锋 2016 化工学报 67 2291]

    [5]

    Berna C, Julia J E, Escriva A, Munoz-Cobo J L, Pastor J V, Mico C 2017 Exp. Therm Fluid Sci. 82 32

    [6]

    Kishnan M 2013 Annu. Rev. Fluid Mech. 45 379

    [7]

    Makiharju S A, Lee I H R, Filip G P, Maki K J, Ceccio S L 2017 J. Fluid Mech. 818 141

    [8]

    Rek Z, Gregorc J, Bouaifi M, Daniel C 2017 Chem. Eng. Sci. 172 667

    [9]

    Paryshev E V 2006 J. Eng. Math. 55 41

    [10]

    Kirschner I, Moeny M, Krane M, Kinzel M 2015 J. Phys.: Conference Series Lausanne, Switzerland, December 6-10, 2015 p012156

    [11]

    Moeny M, Krane M, Kirschner I, Kinzel M 2015 J. Phys.: Conference Series Lausanne, Switzerland, December 6-10, 2015 p012162

    [12]

    Kinzel M P, Krane M H, Kirschner I N, Moeny M J 2017 Ocean Eng. 136 304

    [13]

    He X, Lu C J, Cheng X 2010 J. Hydrodyn. 367 (in Chinese) [何晓, 鲁传敬, 陈鑫 2010 水动力学研究与进展: A辑 367]

    [14]

    Yi S H 2013 Supersonic and Hypersonic Nozzle Design (Beijing: National Defense Industry Press) p77 (in Chinese) [易仕和 2013 超声速与高超声速喷管设计(北京: 国防工业出版社)第77页]

    [15]

    Zhang X W, Wei Y J, Zhang J Z, Wang C, Yu K P 2007 J. Hydrodyn. 19 564

    [16]

    Kawakami E, Arndt R E 2011 J. Fluids Eng. 133 091305

    [17]

    Spazzini P G, Iuso G, Onorato M, Zurlo N, Di Cicca G M 2001 Exp. Fluids 30 551

    [18]

    Drazin P G, Reid W H 2004 Hydrodynamic Stability (Cambridge: Cambridge University Press) p17

    [19]

    Logvinovich G V 1972 Hydrodynamics of Free-boundary Flows (Jerusalem: Israel Program for Scientific Translations Ltd.) p109

    [20]

    Zhao F, Zhang Y L, Zhu R, Wang H 2014 J. USTB 36 366(in Chinese) [赵飞, 张延玲, 朱荣, 王慧 2014 北京科技大学学报 36 366]

    [21]

    Zhang X S, Xu H, Wang C, Lu H Z, Zhao J 2017 Acta Phys. Sin. 66 054702(in Chinese) [张孝石, 许昊, 王聪, 陆宏志, 赵静 2017 物理学报 66 054702]

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  • 期刊类型引用(13)

    1. 曹越,俞建阳,汪思航,吕凌云,陈浮. 自然空化尾空泡内超声速射流流场特性数值研究仿真. 水下无人系统学报. 2024(03): 516-524 . 百度学术
    2. 崔祚,薛牧遥,尹超. 水下发射燃气射流特性及弹道影响研究综述. 战术导弹技术. 2024(03): 1-10+63 . 百度学术
    3. 周娟,杨丹. 水下固体火箭发动机复杂多相流场数值模拟. 中国造船. 2024(04): 216-229 . 百度学术
    4. 张春,许统华,刘新辉,王宝寿. 水下垂直运动航行体的尾喷流特性实验. 航空动力学报. 2024(10): 442-451 . 百度学术
    5. 曹亮亮,权晓波,尤天庆,王勇,陈香言. 不同尾部外形水下航行体附着空泡影响研究. 舰船科学技术. 2024(22): 39-44 . 百度学术
    6. 陈学军,王瑞,祁晓斌,张祯旖,范文涛. 燃气尾喷对水下航行体通气空泡形态及表面压力的影响. 固体火箭技术. 2023(04): 521-527 . 百度学术
    7. 张春,王宝寿. 水下航行体超声速射流与尾空泡耦合作用初期的流场特性. 兵工学报. 2022(07): 1685-1694 . 百度学术
    8. 张春,郁伟,王宝寿. 水下超声速过膨胀燃气射流的流场特性. 航空动力学报. 2022(08): 1633-1642 . 百度学术
    9. 权晓波,尤天庆,张晨星,王凡瑜,孔德才. 水下垂直发射航行体尾空泡振荡演化特性. 兵工学报. 2021(08): 1728-1734 . 百度学术
    10. 赵小宇,向敏,刘波,张为华. 通气空泡与超音速尾喷流耦合作用实验研究. 国防科技大学学报. 2021(05): 53-60 . 百度学术
    11. 赵小宇,向敏,张为华,刘波,李尚中. 超音速尾流作用下通气空泡稳定性及闭合位置数值研究. 力学学报. 2021(12): 3298-3309 . 百度学术
    12. 刘威,翁春生,李宁,黄孝龙. 脉冲爆轰发动机水下单次爆轰燃气射流初期流场特性. 兵工学报. 2020(S1): 104-109 . 百度学术
    13. 赵静,徐志程,陆宏志,魏洪亮,詹景坤,李明. 水下尾部喷流对航行体流体动力特性的影响. 强度与环境. 2020(05): 60-64 . 百度学术

    其他类型引用(7)

Metrics
  • Abstract views:  7466
  • PDF Downloads:  270
  • Cited By: 20
Publishing process
  • Received Date:  13 July 2017
  • Accepted Date:  30 September 2017
  • Published Online:  05 January 2018

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