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Journal Articles

Change in Cavitation Regime on NACA0015 Hydrofoil by Heating the Hydrofoil Surface

Ning Yang, Junnosuke Okajima, Yuka Iga

J. Fluids Eng. July 2023, 145(7): 071201.

Paper No: FE-22-1512

DOI: https://doi.org/10.1115/1.4057004

Published Online: March 13, 2023

View Article titled, Change in Cavitation Regime on NACA0015 Hydrofoil by Heating the Hydrofoil Surface

Topics: Cavitation, Cavities, Heating, Hydrofoil, Image processing, Temperature, Flow (Dynamics), Vapors

Journal Articles

The Prevention of Failures of Surface-Condenser Tubes

R. E. Dillon, G. C. Eaton, H. Peters

J. Fluids Eng. April 1937, 59(3): 147–150.

DOI: https://doi.org/10.1115/1.4020424

Published Online: February 10, 2023

View Article titled, The Prevention of Failures of Surface-Condenser Tubes

Topics: Condensers (steam plant), Failure, Vapors, Vortices, Water, Cavitation, Pressure, Bubbles, Cavities, Guide vanes

Journal Articles

Progress in Cavitation Research at Princeton University

Lewis F. Moody, Alfred E. Sorenson

J. Fluids Eng. October 1935, 57(7): 425–428.

DOI: https://doi.org/10.1115/1.4020075

Published Online: February 10, 2023

View Article titled, Progress in Cavitation Research at Princeton University

Topics: Cavitation, Cavities, Vapors

Journal Articles

The Distribution of Energy in the Pulverized-Coal Furnace

W. J. Wohlenberg, D. E. Wise

J. Fluids Eng. October 1938, 60(7): 531–547.

DOI: https://doi.org/10.1115/1.4020841

Published Online: February 10, 2023

View Article titled, The Distribution of Energy in the Pulverized-Coal Furnace

Topics: Coal, Furnaces, Particulate matter, Gases, Combustion, Cavities, Temperature, Absorption, Equilibrium (Physics), Heat conduction

Journal Articles

Cavitation on Marine Propellers

Lybrand P. Smith

J. Fluids Eng. July 1937, 59(5): 409–431.

DOI: https://doi.org/10.1115/1.4020480

Published Online: February 10, 2023

View Article titled, Cavitation on Marine Propellers

Topics: Cavitation, Marine propellers, Thrust, Torque, Blades, Pressure, Propellers, Water, Cavities, Delays

Journal Articles

Large Eddy Simulation Study on the Relationship Between Large-Scale Turbulence Vortices and Unsteady Cavitation Around a Hydrofoil

Kie Okabayashi, Ayumu Furukawa, Takeshi Otsu, Takeo Kajishima

J. Fluids Eng. April 2023, 145(4): 041204.

Paper No: FE-22-1110

DOI: https://doi.org/10.1115/1.4056525

Published Online: February 1, 2023

View Article titled, Large Eddy Simulation Study on the Relationship Between Large-Scale Turbulence Vortices and Unsteady Cavitation Around a Hydrofoil

Topics: Cavitation, Cavities, Flow (Dynamics), Hydrofoil, Pressure, Turbulence, Vortices, Large eddy simulation, Oscillations

Journal Articles

Radiation Configuration Factors Using Light in Furnace Models

Fred England, H. O. Croft

J. Fluids Eng. October 1942, 64(7): 691–702.

DOI: https://doi.org/10.1115/1.4019242

Published Online: December 20, 2022

View Article titled, Radiation Configuration Factors Using Light in Furnace Models

Topics: Furnaces, Radiation (Physics), Heat, Cavities, Computation, Mathematical analysis, Visibility

Journal Articles

Closure to “Discussions of ‘The Shock Produced by a Collapsing Cavity in Water’” (1947, Trans. ASME, 69, pp. 262–265)

M. F. M. Osborne

J. Fluids Eng. April 1947, 69(3): 265–266.

DOI: https://doi.org/10.1115/1.4017373

Published Online: December 6, 2022

View Article titled, Closure to “Discussions of ‘The Shock Produced by a Collapsing Cavity in Water’” (1947, Trans. ASME, 69, pp. 262–265)

Topics: Cavities, Shock (Mechanics)

Journal Articles

Discussion: “The Shock Produced by a Collapsing Cavity in Water” (Osborne, M. F. M., 1947, Trans. ASME, 69, pp. 253–262)

B. G. Rightmire

J. Fluids Eng. April 1947, 69(3): 264–265.

DOI: https://doi.org/10.1115/1.4017372

Published Online: December 6, 2022

View Article titled, Discussion: “The Shock Produced by a Collapsing Cavity in Water” (Osborne, M. F. M., 1947, Trans. ASME, 69, pp. 253–262)

Topics: Cavities, Shock (Mechanics), Water

Journal Articles

Discussion: “The Shock Produced by a Collapsing Cavity in Water” (Osborne, M. F. M., 1947, Trans. ASME, 69, pp. 253–262)

T. C. Poulter

J. Fluids Eng. April 1947, 69(3): 264.

DOI: https://doi.org/10.1115/1.4017371

Published Online: December 6, 2022

View Article titled, Discussion: “The Shock Produced by a Collapsing Cavity in Water” (Osborne, M. F. M., 1947, Trans. ASME, 69, pp. 253–262)

Topics: Cavities, Shock (Mechanics), Water

Journal Articles

Discussion: “The Shock Produced by a Collapsing Cavity in Water” (Osborne, M. F. M., 1947, Trans. ASME, 69, pp. 253–262)

M. P. O’Brien

J. Fluids Eng. April 1947, 69(3): 262–264.

DOI: https://doi.org/10.1115/1.4017370

Published Online: December 6, 2022

View Article titled, Discussion: “The Shock Produced by a Collapsing Cavity in Water” (Osborne, M. F. M., 1947, Trans. ASME, 69, pp. 253–262)

Topics: Cavities, Shock (Mechanics), Water

Journal Articles

The Shock Produced by a Collapsing Cavity in Water

M. F. M. Osborne

J. Fluids Eng. April 1947, 69(3): 253–262.

DOI: https://doi.org/10.1115/1.4017369

Published Online: December 6, 2022

View Article titled, The Shock Produced by a Collapsing Cavity in Water

Topics: Cavities, Shock (Mechanics), Water, Bubbles, Collapse, Noise (Sound), Acoustics, Cavitation, Shapes

Journal Articles

Thermodynamic Suppression Effect of Cavitation Arising in a Hydrofoil in 140 °C Hot Water

Yuka Iga, Junnosuke Okajima, Yuki Yamagichi, Hirotoshi Sasaki, Yu Ito

J. Fluids Eng. January 2023, 145(1): 011207.

Paper No: FE-22-1274

DOI: https://doi.org/10.1115/1.4055600

Published Online: October 17, 2022

View Article titled, Thermodynamic Suppression Effect of Cavitation Arising in a Hydrofoil in 140 °C Hot Water

Topics: Cavitation, Cavities, Temperature, Water, Hydrofoil, Hot water

Journal Articles

Recent Investigations of the Mechanics of Cavitation and Cavitation Damage

Robert T. Knapp

J. Fluids Eng. October 1955, 77(7): 1045–1054.

DOI: https://doi.org/10.1115/1.4014586

Published Online: July 1, 2022

View Article titled, Recent Investigations of the Mechanics of Cavitation and Cavitation Damage

Topics: Cavitation, Damage, Aluminum, Cavities, Water tunnels

Journal Articles

On the Mechanism of Cavitation Damage

M. S. Plesset, A. T. Ellis

J. Fluids Eng. October 1955, 77(7): 1055–1064.

DOI: https://doi.org/10.1115/1.4014587

Published Online: July 1, 2022

View Article titled, On the Mechanism of Cavitation Damage

Topics: Cavitation, Damage, Water, Cavities, Deformation, Failure, Fatigue, Hard materials, Helium, Magnetostriction

Journal Articles

Cavitation Characterization of Fluid Machinery Based on Cyclostationary Analysis: Part 2—Cavity Development Evaluation by Modulation Intensity

Kelin Wu, Chengshuo Wu, Peng Wu, Linlin Cao, Haojie Ye, Dazhuan Wu, Jérôme Antoni

J. Fluids Eng. September 2022, 144(9): 091210.

Paper No: FE-22-1078

DOI: https://doi.org/10.1115/1.4054291

Published Online: April 28, 2022

View Article titled, Cavitation Characterization of Fluid Machinery Based on Cyclostationary Analysis: Part 2—Cavity Development Evaluation by Modulation Intensity

Topics: Cavitation, Cavities, Signals, Propellers, Impellers

Journal Articles

Cavitation Characterization of Fluid Machinery Based on Cyclostationary Analysis: Part 1—Cavity Type Identification by Carrier Distribution

Kelin Wu, Chengshuo Wu, Peng Wu, Linlin Cao, Haojie Ye, Dazhuan Wu, Jérôme Antoni

J. Fluids Eng. September 2022, 144(9): 091209.

Paper No: FE-22-1077

DOI: https://doi.org/10.1115/1.4054290

Published Online: April 28, 2022

View Article titled, Cavitation Characterization of Fluid Machinery Based on Cyclostationary Analysis: Part 1—Cavity Type Identification by Carrier Distribution

Topics: Cavitation, Cavities, Signals, Blades, Propellers, Fluids, Noise (Sound), Machinery

Journal Articles

Stability of Hydrogen Turbopump Rotor Shaft Axially Self-Balanced

Seive Martin, Nguyen Duc Jean-Michel, Patrice Fonteyn

J. Fluids Eng. September 2022, 144(9): 091206.

Paper No: FE-21-1361

DOI: https://doi.org/10.1115/1.4054025

Published Online: April 5, 2022

View Article titled, Stability of Hydrogen Turbopump Rotor Shaft Axially Self-Balanced

Topics: Cavities, Damping, Design, Flow (Dynamics), Fluids, Hydrogen, Pressure, Rotors, Stability, Valves

Journal Articles

A New Turbulent Viscosity Correction Model With URANS Solver for Unsteady Turbulent Cavitation Flow Computations

Shijie Zhang, Zhifeng Yao, Hongfei Wu, Qiang Zhong, Ran Tao, Fujun Wang

J. Fluids Eng. September 2022, 144(9): 091403.

Paper No: FE-22-1028

DOI: https://doi.org/10.1115/1.4053958

Published Online: March 22, 2022

View Article titled, A New Turbulent Viscosity Correction Model With URANS Solver for Unsteady Turbulent Cavitation Flow Computations

Topics: Cavitation, Flow (Dynamics), Hydrofoil, Turbulence, Viscosity, Cavities, Computer simulation, Water vapor, Vortices, Pressure

Journal Articles

Numerical Investigation on Blockage-Related Cavitation Surge and Pressure Gain of a Mixed-Flow Pump With Influence of Blade Leading Edge Shape on Suction Performance

Yong-In Kim, Hyeon-Mo Yang, Kyoung-Yong Lee, Young-Seok Choi

J. Fluids Eng. September 2022, 144(9): 091205.

Paper No: FE-21-1282

DOI: https://doi.org/10.1115/1.4053956

Published Online: March 22, 2022

View Article titled, Numerical Investigation on Blockage-Related Cavitation Surge and Pressure Gain of a Mixed-Flow Pump With Influence of Blade Leading Edge Shape on Suction Performance

Topics: Blades, Cavitation, Flow (Dynamics), Pressure, Pumps, Suction, Surges, Cavities, Design, Shapes

Journal citation

NARROW

Change in Cavitation Regime on NACA0015 Hydrofoil by Heating the Hydrofoil Surface

The Prevention of Failures of Surface-Condenser Tubes

Progress in Cavitation Research at Princeton University

The Distribution of Energy in the Pulverized-Coal Furnace

Cavitation on Marine Propellers

Large Eddy Simulation Study on the Relationship Between Large-Scale Turbulence Vortices and Unsteady Cavitation Around a Hydrofoil

Radiation Configuration Factors Using Light in Furnace Models

Closure to “Discussions of ‘The Shock Produced by a Collapsing Cavity in Water’” (1947, Trans. ASME, 69, pp. 262–265)

Discussion: “The Shock Produced by a Collapsing Cavity in Water” (Osborne, M. F. M., 1947, Trans. ASME, 69, pp. 253–262)

Discussion: “The Shock Produced by a Collapsing Cavity in Water” (Osborne, M. F. M., 1947, Trans. ASME, 69, pp. 253–262)

Discussion: “The Shock Produced by a Collapsing Cavity in Water” (Osborne, M. F. M., 1947, Trans. ASME, 69, pp. 253–262)

The Shock Produced by a Collapsing Cavity in Water

Thermodynamic Suppression Effect of Cavitation Arising in a Hydrofoil in 140 °C Hot Water

Recent Investigations of the Mechanics of Cavitation and Cavitation Damage

On the Mechanism of Cavitation Damage

Cavitation Characterization of Fluid Machinery Based on Cyclostationary Analysis: Part 2—Cavity Development Evaluation by Modulation Intensity

Cavitation Characterization of Fluid Machinery Based on Cyclostationary Analysis: Part 1—Cavity Type Identification by Carrier Distribution

Stability of Hydrogen Turbopump Rotor Shaft Axially Self-Balanced

A New Turbulent Viscosity Correction Model With URANS Solver for Unsteady Turbulent Cavitation Flow Computations

Numerical Investigation on Blockage-Related Cavitation Surge and Pressure Gain of a Mixed-Flow Pump With Influence of Blade Leading Edge Shape on Suction Performance

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