본문 바로가기
KERD
논문KCI 등재

Experimental validation on structure-borne underwater radiated noise transfer function analysis for marine structure

박성주|조대승|김국현|이주엽
대한조선학회 (The Society Of Naval Architects Of Korea)|2024.12|International Journal of Naval Architecture and Ocean Engineering|제16권 |pp. 1-9|DOI 10.1016/j.ijnaoe.2024.100585

1

조회

0

다운로드

0

인용

0

참고문헌

키워드

Practical applicationExperimental validationStructure-borne Underwater Radiated Noise (URN)Statistical Energy Analysis (SEA)Transfer Function (TF)
주제분류조선공학

초록

In this paper, an experimental validation of a numerical procedure for estimating the structure-borne Underwater Radiated Noise (URN) Transfer Function (TF) of a marine structure based on the SEA theory has been performed. For the purpose, the structure-borne URN TF of a central point-excited one-side fluid-loaded four-edge stiffened plate in a reverberant water tank has been measured and compared with the SEA result. Additionally, the practical applicability of the procedure for a real ship structure has been demonstrated by comparing the URN analysis result based on the transfer function method and the measurement result for a Korean research vessel, ‘Cheong-Hae’. From the results, it is confirmed that the presented procedure can be used to estimate the structure-borne URN level emitted from the vibrating fluid-loaded side shells of a ship structure.

Abstract

In this paper, an experimental validation of a numerical procedure for estimating the structure-borne Underwater Radiated Noise (URN) Transfer Function (TF) of a marine structure based on the SEA theory has been performed. For the purpose, the structure-borne URN TF of a central point-excited one-side fluid-loaded four-edge stiffened plate in a reverberant water tank has been measured and compared with the SEA result. Additionally, the practical applicability of the procedure for a real ship structure has been demonstrated by comparing the URN analysis result based on the transfer function method and the measurement result for a Korean research vessel, ‘Cheong-Hae’. From the results, it is confirmed that the presented procedure can be used to estimate the structure-borne URN level emitted from the vibrating fluid-loaded side shells of a ship structure.

참고문헌 (54)

  1. Andr´e, M., "Underwater noise emissions: Another challenge for ship design", Adv. Mar. Struct, - Proc. 3rd Int. Conf. Mar. Struct., MARSTRUCT 2011, pp.581~591 (2011)
  2. Badino, A., "Normative framework for ship noise : Present situation and future trends", Noise Control Eng. J, 60(6), pp.740~762 (2012)
  3. Bae, S. R., "Waterborne noise prediction of the reinforced cylindrical shell using the SEA technique", Trans Korean Soc. Noise Vib, 3(2), pp.155~161 (1993)
  4. Cheng, Z., "Radiation efficiency of submerged rectangular plates", Appl. Acoust, 73(2), pp.150~157 (2012)
  5. Choi, S. W., "Analysis of acoustic radiation efficiency and underwater radiated noise of double bottom-shaped structure", J. Soc. Nav. Archit. Korea, 49(2), pp.158~163 (2012)
  6. Choi, W. S., "Time domain broadband noise predictions for non-cavitating marine propellers with wall pressure spectrum models", Int. J. Nav. Archit, 13, pp.75~85 (2021)
  7. Choi, Y. S., "Investigation of the effect of adaptive characteristics on non-cavitating noise for flexible propeller in non-uniform flow via the fluid-structure interaction model", Int. J. Nav. Archit, 15, pp.100541~ (2023)
  8. Cochard, N., "Underwater acoustic noise measurement in test tanks", IEEE J. Ocean. Eng, 25(4), pp.516~522 (2000)
  9. Cotoni, V., "A statistical energy analysis subsystem formulation using finite element and periodic structure theory", J. Sound Vib, 318(5), pp.1077~1108 (2008)
  10. Cotoni, V., "Numerical and experimental validation of a hybrid finite element-statistical energy analysis method", J. Acoust. Soc. Am, 122(1), pp.259~270 (2007)
  11. Duan, J., "A hybrid algorithm of underwater structure vibration and acoustic radiation-propagation in ocean acoustic channel", Int. J. Nav. Archit, 12, pp.680~690 (2020)
  12. Gu, Y. W., "Experimental and numerical study on vibration and structure-borne noise of high-speed railway composite bridge", Appl. Acoust, 192, pp.108757~ (2022)
  13. Guasch, O., "Finding the dominant energy transmission paths in statistical energy analysis", J. Sound Vib, 330(10), pp.2325~2338 (2011)
  14. Han, S. J., "Measurement of acoustic radiation efficiency of the submerged circular cylindrical structure in water tank", Trans. Korean Soc. Noise Vib. Eng, 25(11), pp.747~752 (2015)
  15. Hashimoto, N., "Measurement of sound radiation efficiency by the discrete calculation method", Appl. Acoust, 62(4), pp.429~446 (2001)
  16. Hazelwood, R. A., "Underwater acoustic power measurements in reverberant fields", OCEANS 2007 - Europe, pp.1~6 (2007)
  17. Hirakawa, S., "Experimental determination of transient structureborne sound power from heavy impact sources on heavyweight floors with floating floors using an inverse form of transient statistical energy analysis", Appl. Acoust, 140, pp.74~82 (2018)
  18. IMO MEPC.1, "Circ.833: Guidelines for the Reduction of Underwater Noise from Commercial Shipping to Address Adverse Impacts on Marine Life", International Maritime Organization, 2014
  19. "Addressing Underwater Noise from Ships - Draft Revised Guidelines Agreed vol. 30" (2023)[URL]
  20. "Marine Environment Protection Committee (MEPC 80), 3-7 July 2023: 6. Addressing Underwater Noise - Revised Guidelines Adopted" (2023)[URL]
  21. Kim, H. S., "A study on the approximate formula for radiation efficiency of a simply supported rectangular plate in water", Trans. Korean Soc. Noise Vib. Eng, 24(1), pp.21~27 (2014)
  22. Kim, K. H., "Implementing framework for transfer function-based ship underwater radiated noise analysis", J. Soc. Nav. Archit. Korea, 47(6), pp.803~807 (2010)
  23. Kim, K. H., "Noise control of new Korean research vessel: Cheong-Hae", Proc. PRADS 2013, pp.935~940 (2013), CECO
  24. Langley, R. S., "Hybrid deterministic-statistical analysis of vibroacoustic systems with domain couplings on statistical components", J. Sound Vib, 321(5), pp.893~912 (2009)
  25. Lee, H. W., "Development of sound radiation analysis system using the results of power flow finite element method", J. Acoust Soc. Korea, 20(7), pp.21~30 (2001)
  26. Lee, J. H., "A numerical analysis on acoustic radiation efficiency of one side-wetted rectangular Mindlin plate with simply supported boundaries", J. Soc. Nav. Archit. Korea, 55(4), pp.281~288 (2018)
  27. Lee, J. Y., "Applicability and reliability of an experimental method measuring underwater acoustic radiation efficiency of floating box-type plate structures in a reverberant water tank", Int. J. Nav. Archit, 15, pp.100553~ (2023)
  28. Leppington, F. G., "The acoustic radiation efficiency of rectangular panels", Proc. Math. Phys. Eng. Sci, 382(1783), pp.245~271 (1982)
  29. Lin, T. R., "Sound radiation characteristics of a box-type structure", J. Sound Vib, 325(5), pp.835~851 (2009)
  30. Lyon, R. H., "Statistical Energy Analysis of Dynamical Systems: Theory and Applications" (1975), MIT Press
  31. Lyon, R. H., "Power flow between linearly coupled oscillators", J. Acoust. Soc. Am, pp.623~639 (1962)
  32. Lyon, R. H., "Statistical methods in vibration analysis", AIAA J, 2(6), pp.1015~1024 (1964)
  33. Maidanik, G., "Response of ribbed panels to reverberant acoustic fields", J. Acoust. Soc. Am, 34(6), pp.809~826 (1962)
  34. Manning, J. E., "Formulation of SEA parameters using mobility functions", Philos Trans. Royal Soc. A, 346(1681), pp.477~488 (1994)
  35. Manning, J. E., "Radiation properties of cylindrical shells", J. Acoust. Soc. Am, pp.1691~1698 (1964)
  36. Ming, R., "The measurement of coupling loss factors using the structural intensity technique", J. Acoust. Soc. Am, pp.401~407 (1998)
  37. Underwater Radiated Noise: Comments and Recommendations on Gearbox Mounting Arrangement, "Morrison, J. L.", BAESYSTEMS, ~ (2000)
  38. Pan, X., "The Effect of Boundary Conditions and Ribs on the Total Radiation Efficiency of Submerged Plates", 2nd Aust Acoust Soc Conf, pp.9~11 (2016)
  39. Pan, X., "Investigations on the total radiation efficiency of ribbed plates floating on water", Proc ACOUST 2017 Perth. Sound Sci Soc - 2017 Annu Conf Aust Acoust Soc AAS 2017, pp.19~22 (2017)
  40. Pan, X., "Investigation of sound radiation from a water-loaded cylindrical enclosure due to airborne noise", Proc ACOUST 2013. Victor Harbor, pp.17~20 (2013)
  41. Pan, X., "Investigation of underwater hull radiation due to machine noise", Proc ACOUST 2019. Cape Schanck, pp.10~13 (2019)
  42. Putra, A., "Sound radiation from rectangular baffled and unbaffled plates", Appl. Acoust, 71(12), pp.1113~1125 (2010)
  43. Ragnarsson, P., "Subcomponent modelling of input parameters for statistical energy analysis by using a wave-based boundary condition", J. Sound Vib, 329(1), pp.96~108 (2010)
  44. Skålevik, M., "Schroeder frequency revisited", Proc Forum Acoust 2011, pp.27~ (2011)
  45. Smith Jr. P. W., "Response and radiation of structural modes excited by sound", J. Acoust. Soc. Am, 34(5), pp.640~647 (1962)
  46. Squicciarini, G., "Use of a reciprocity technique to measure the radiation efficiency of a vibrating structure", Appl. Acoust, 89, pp.107~121 (2015)
  47. Uchida, S., "Prediction of underwater noise radiated from ship’s hull", Bull. Soc. Nav. Archit. Jpn, 686, pp.36~45 (1986)
  48. Vergote, K., "On the analysis of vibroacoustic systems in the mid-frequency range using a hybrid deterministic-statistical approach", Comput. Struct, 89, pp.868~877 (2011)
  49. Wang, W., "Machine vibration induced underwater acoustic radiation", J. Mar. Sci. Technol, 8(1), pp.30~40 (2000)
  50. Wu, H., "Application of coupled FEM", BEM on the analysis of underwater radiated noise of a surface ship induced by hull vibrations, 2017, pp.25(2), 196~204
  51. Xie, G., "The radiation efficiency of baffled plates and strips", J. Sound Vib, 280(1-2), pp.181~209 (2005)
  52. Yang, H. S., "Acoustic radiation efficiency of a submerged periodic ring-stiffened cylindrical shell with finite vibration loading", Appl. Acoust, 171, pp.107664~ (2021)
  53. Zhao, Z. G., "Calculation of sound radiant efficiency and sound radiant modes of arbitrary shape structures by BEM and general eigenvalue decomposition", Appl. Acoust, 69(9), pp.796~803 (2008)
  54. Zheng, H., "FEM", BEM analysis of diesel piston-slap induced ship hull vibration and underwater noise, 2001, pp.62(4), 341~358

관련 논문AI추천

Applicability and reliability of an experimental method measuring underwater acoustic radiation efficiency of floating box-type plate structures in a reverberant water tank김국현, 박성주, 이주엽, 조대승대한조선학회 · International Journal of Naval Architecture and Ocean Engineering2023 · 제15권 이중저 형상 구조물의 음향방사효율과 수중방사소음 해석김국현, 서규열, 조대승, 최성원대한조선학회 · 대한조선학회 논문집2012 · 제49권 제2호선박의 장비 공기소음이 수중소음에 미치는 영향김봉기, 김상렬, 김재승, 김현실, 이성현대한조선학회 · 대한조선학회 논문집2011 · 제48권 제6호Mindlin 판 이론을 적용한 단순지지 단면 접수평판의 음향방사효율 수치해석이종호, 조대승대한조선학회 · 대한조선학회 논문집2018 · 제55권 제4호전달함수 기반의 선박 수중방사소음 해석 프레임워크 구현김국현대한조선학회 · 대한조선학회 논문집2010 · 제47권 제6호잔향수조의 구조-음향 연성효과에 관한 수치 및 실험적 고찰박용, 김국현, 이종주, 조대승대한조선학회 · 대한조선학회 논문집2019 · 제56권 제1호

이 간행물의 다른 논문 (58건)

Interpretable, data-driven models for predicting shaft power, fuel consumption, and speed considering the effects of hull fouling and weather conditions노명일, 김현수pp. 1-20Exploring the performance impact of soft constraint integration on reinforcement learning-based autonomous vessel navigation: Experimental insightsXin Jiang, Jiawen Li, Zhenkai Huang, Ji Huang, Ronghui Lipp. 1-17Hull form optimization of fully parameterized small ships using characteristic curves and deep neural networks노명일, 여인창, 김진혁pp. 1-12Multi-vessel target tracking with camera fusion for unmanned surface vehicles이혜원, 노명일, 조영민, Jeong-Ho Park, 하지상, Nam-Sun Sonpp. 1-22Impact load measurement of small multi-bubble explosions near solid wall정노택, Nyo Me Thet Naing, Seung-Ho Hyunpp. 1-11
원문 보기