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Twenty-First Symposium on Naval Hydrodynamics (1997)
Commission on Physical Sciences, Mathematics, and Applications (CPSMA)

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. "Influence of the Cavitation Nuclei on the Cavitation Bucket when Predicting the Full-Scale Behavior of a Marine Propeller." Twenty-First Symposium on Naval Hydrodynamics. Washington, DC: The National Academies Press, 1997.

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Twenty-First Symposium on NAVAL HYDRODYNAMICS

17. Kuiper, G., “Some Experiments With Distinguished Types of Cavitation on Ship Propellers ”, Journal of Fluid Engineering, 1982, vol. 104.

18. Kuiper, G., “Reflections on Cavitation Inception,” Proceedings of the Cavitation and Multiphase Flow Forum, ASME, 1985.

19. Gindroz, B., Avellan, F., Henry, P., “Similarity rules of cavitation tests: The case of the Francis turbine ”, Proceedings of the 14th I.A.H.R. Symp. on Progress within large and high-specific energy units, June 1988, Trondheim, vol. 2, Session L, pp 755–766.

20. Gindroz, B., Henry, P., Avellan, F., “Similarity of cavitation inception in Francis turbine”, Proceedings of the 15h I.A.H.R. Symp., September, 1990, Belgrade, Yugoslavia.

21. Gindroz, B., Avellan, F., Henry, P., “Guide lines for performing cavitation tests”, Proceedings of the 15h I.A.H.R. Symp., September, 1990, Belgrade, Yugoslavia.

22. Gowing, S., Shen, Y.T., “The Role of Microbubbles on Cavitation Inception on Head Forms”, 1982, David Taylor Research Center Report.

23. Gowing, S., Shen, Y.T., “Cavitation Susceptibilities in Ocean Waters” , 1987, David Taylor Research Center Report DTNSRDC-SHD-1241–01, Aug.

24. Brennen, C.E., Kuhn de Chizelle, Y., “Cavitation Nuclei Concentrations and Event Rates”, Internal Report, CALTEC, Pasadena, CA, July 1992.

25. Shen, Y.T., Gowing, S., Pierce, R., “Cavitation Susceptibility Measurements by a Venturi”, Proceedings of the International Symposium on Cavitation Inception, ASME WAM, 1984, New Orleans.

26. Shen, Y.T., Gowing, S., Eckstein, B., “Cavitation Susceptibility Measurements of Ocean, Lake and Laboratory Water”, 1986, David Taylor Research Center Report No. 86/019.

27. Liu, Z., Brennen, C.E., “Cavitation Nuclei Measurements and Population Dynamics”, Internal Report, California Institute of Technology (CALTEC), Pasadena, California, July 1992.

28. Tanger, H., Strechwall, H., Weitendorf, E.-A., Mills, L., “Recent Investigations of the Free Air Content and its Influence on Cavitation and Propeller-Exited Pressure Fluctuations”, Proceedings of the ISPC, Hamburg, Germany, June 1992.

29. Keller, A.P., “Scale effects at beginning cavitation applied to submerged bodies ” , Proceedings of the ASME Int. Symp. on Cavitation Inception, 1984.

30. Meyer, R.S., Billet, M.L., Holl, J.W., “Free Stream Nuclei and Travelling-Bubble Cavitation”, JFM, Vol. 114, December 1992.

31. Lavigne, S., Noe, Ph., “Venturi à ogive centrale”, Rapport d'essais, R. 21.025, 1988.

32. Lindgren, H., Johnsson, C.A., “Cavitation Inception on Head Forms—ITTC Comparative Experiments”, 1966, Pub. of the Swedish State Shipbuilding Exper. Tank No58.

33. 20 ITTC, “Report of Cavitation Committee”, 19–24 September 1993, San Francisco.

34. Lavigne, S., “Le Venturi analyseur de germes”, Proceedings of the Journées DRET Cavitation, Arcueil 1991.

35. Gindroz, B., Billard, J.-Y., Lavigne, S., “Complete Study of a Well-improved Centerbody Venturi”, Proceedings of the Second International Symposium on Cavitation, April 1994, Tokyo, Japan.

36. Gindroz, B., Briançon-Marjollet, L., “Experimental Comparison Between Different Techniques of cavitation Nuclei Measurements”, Proceedings of the 2nd International Symposium on Propeller and Cavitation, September 1992, Hangzhou, China.

37. Gindroz, B., “Qualification of a Centerbody Cavitation Nuclei Counter Using Optical Techniques”, Proceedings of the 16h I.A.H.R. Symp., September 1992, São Paulo, Brazil.

38. Gindroz, B., “Propeller Cavitation Characteristics: The practical Interest of Nuclei Measurements in Test Facilities and at Sea”, Proceedings of the ASME FED Symposium on Cavitation, August 1995, Hilton Head Island, USA.

39. Gindroz, B., Billard, J.-Y., Geistdoerfer, P., “Cavitation Nuclei Measurements at Sea”, Proceedings of the ASME WAM, November 1995, San Francisco CA, USA.

40. 19 ITTC, “Report of Cavitation Committee”, 12–22 September 1990, Madrid, Spain.

Page
850
Front Matter (R1-R16)
Opening Remarks (1-4)
Progress Toward Understanding How Waves Break (5-28)
Radiation and Diffraction Waves of a Ship at Forward Speed (29-44)
Nonlinear Ship Motions and Wave-Induced Loads by a Rankine Method (45-63)
Nonlinear Water Wave Computations Using a Multipole Accelerated, Desingularized Method (64-74)
Computations of Wave Loads Using a B-Spline Panel Method (75-92)
Simulation of Strongly Nonlinear Wave Generation and Wave-Body Interactions Using a 3-D Model (93-109)
Analysis of Interactions Between Nonlinear Waves and Bodies by Domain Decomposition (110-119)
Fourier-Kochin Theory of Free-Surface Flows (120-135)
24-inch Water Tunnel Flow Field Measurements During Propeller Crashback (136-146)
Accuracy of Wave Pattern Analysis Methods in Towing Tanks (147-160)
Unsteady Three-Dimensional Cross-Flow Separation Measurements on a Prolate Spheroid Undergoing Time-Dependent Maneuvers (161-176)
Time-Domain Calculations of First-and Second-Order Forces on a Vessel Sailing in Waves (177-188)
Third-Order Volterra Modeling Ship Responses Based on Regular Wave Results (189-204)
Nonlinearly Interacting Responses of the Two Rotational Modes of Motion-Roll and Pitch Motions (205-219)
Nonlinear Shallow-Water Flow on Deck Coupled with Ship Motion (220-234)
Radar Backscatter of a V-like Ship Wake from a Sea Surface Covered by Surfactants (235-248)
Turbulent Free-Surface Flows: A Comparison Between Numerical Simulations and Experimental Measurements (249-265)
Conductivity Measurements in the Wake of Submerged Bodies in Density-Stratified Media (266-277)
Macro Wake Measurements for a Range of Ships (278-290)
Time-Marching CFD Simulation for Moving Boundary Problems (291-311)
Yaw Effects on Model-Scale Ship Flows (312-327)
A Multigrid Velocity-Pressure-Free Surface Elevation Fully Coupled Solver for Calculation of Turbulent Incompressible Flow around a Hull (328-345)
The Shoulder Wave and Separation Generated by a Surface-Piercing Strut (346-358)
Vorticity Fields due to Rolling Bodies in a Free Surface-Experiment and Theory (359-376)
Numerical Calculations of Ship Stern Flows at Full-Scale Reynolds Numbers (377-391)
Near-and Far-Field CFD for a Naval Combatant Including Thermal-Stratification and Two-Fluid Modeling (392-407)
Water Entry of Arbitrary Two-Dimensional Sections with and Without Flow Separation (408-423)
Coupled Hydrodynamic Impact and Elastic Response (424-437)
A Practical Prediction of Wave-Induced Structural Responses in Ships with Large Amplitude Motion (438-452)
Evaluation of Eddy Viscosity and Second-Moment Turbulence Closures for Steady Flows Around Ships (453-469)
On the Modeling of the Flow Past a Free-Surface-Piercing Flat Plate (470-477)
Self-Propelled Maneuvering Underwater Vehicles (478-489)
Spray Formation at the Free Surface of Turbulent Bow Sheets (490-505)
Numerical Simulation of Three-Dimensional Breaking Waves About Ships (506-519)
Generation Mechanisms and Sources of Vorticity Within a Spilling Breaking Wave (520-533)
The Flow Field in Steady Breaking Waves (534-549)
Freak Waves-A Three-Dimensional Wave Simulation (550-560)
Bluff Body Hydrodynamics (561-579)
Large-Eddy Simulation of the Vortical Motion Resulting from Flow over Bluff Bodies (580-591)
The Wake of a Bluff Body Moving Through Waves (592-604)
Low-Dimensional Modeling of Flow-Induced Vibrations via Proper Orthogonal Decomposition (605-621)
Measurements of Hydrodynamic Damping of Bluff Bodies with Application to the Prediction of Viscous Damping of TLP Hulls (622-634)
Hydrodynamics in Advanced Sailing Design (635-660)
Divergent Bow Waves (661-679)
A Method for the Optimization of Ship Hulls from a Resistance Point of View (680-696)
Hydrodynamic Optimization of Fast-Displacement Catamarans (697-714)
On Ships at Supercritical Speeds (715-726)
The Influence of a Bottom Mud Layer on the Steady-State Hydrodynamics of Marine Vehicles (727-742)
A Hybrid Approach to Capture Free-Surface and Viscous Effects for a Ship in a Channel (743-755)
Shock Waves in Cloud Cavitation (756-771)
Asymptotic Solution of the Flow Problem and Estimate of Delay of Cavitation Inception for a Hydrofoil with a Jet Flap (772-782)
Examination of the Flow Near the Leading Edge and Closure of Stable Attached Cavitation (783-793)
Numerical Investigation on the Turbulent and Vortical Flows Beneath the Free Surface Around Struts (794-811)
Steep and Breaking Faraday Waves (812-826)
The Forces Exerted by Internal Waves on a Restrained Body Submerged in a Stratified Fluid (827-838)
Influence of the Cavitation Nuclei on the Cavitation Bucket when Predicting the Full-Scale Behavior of a Marine Propeller (839-850)
Inception, Development, and Noise of a Tip Vortex Cavitation (851-864)
Velocity and Turbulence in the Near-Field Region of Tip Vortices from Elliptical Wings: Its Impact on Cavitation (865-881)
Calculations of Pressure Fluctuations on the Ship Hull Induced by Intermittently Cavitating Propellers (882-897)
Hydroacoustic Considerations in Marine Propulsor Design (898-912)
Prediction of Unsteady Performance of Marine Propellers with Cavitation Using Surface-Panel Method (913-929)
A Comparitive Study of Conventional and Tip-Fin Propeller Performance (930-945)
A New Way of Stimulating Whale Tail Propulsion (946-958)
Effects of Tip-Clearance Flows (959-972)
Experiments in the Swirling Wake of a Self-Propelled Axisymmetric Body (973-985)
Hydrodynamic Forces on a Surface-Piercing Plate in Steady Maneuvering Motion (986-996)
Advances in Panel Methods (997-1006)
Effect of Ship Motion on DD-963 Ship Airwake Simulated by Multizone Navier-Stokes Solution (1007-1017)
Large-Eddy Simulation of Decaying Free-Surface Turbulence with Dynamic Mixed Subgrid-Scale Models (1018-1032)
Fully Nonlinear Hydrodynamic Calculations for Ship Design on Parallel Computing Platforms (1033-1047)
Validation of Incompressible Flow Computation of Forces and Moments on Axisymmetric Bodies Undergoing Constant Radius Turning (1048-1060)
The Validation of CFD Predictions of Nominal Wake for the SUBOFF Fully Appended Geometry (1061-1076)
Appendix-List of Participants (1077-1084)