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TECHNICAL PAPERS

Experimental Investigation of Two Cylindrical Water Columns Subjected to Planar Shock Wave Loading

[+] Author and Article Information
D. Igra, K. Takayama

Shock Wave Research Center, Institute of Fluid Science, Tohoku University, Japan

J. Fluids Eng 125(2), 325-331 (Mar 27, 2003) (7 pages) doi:10.1115/1.1538628 History: Received April 25, 2001; Revised July 01, 2002; Online March 27, 2003
Copyright © 2003 by ASME
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References

Wierzba, A., and Takayama, K., 1987, Experimental Investigation Liquid Droplet Breakup in a Gas Stream, Institute of High Speed Mechanics, Tohoku University, Sendai, Japan.
Wierzba,  A., and Takayama,  K., 1988, “Experimental Investigation of the Aerodynamic Breakup of Liquid Drops,” AIAA J., 26, pp. 1329–1335.
Ranger,  A. A., and Nicholls,  J. A., 1969, “Aerodynamic Shattering of Liquid Drops,” AIAA J., 7, pp. 285–290.
Simpkins,  P. G., and Bales,  E. L., 1972, “Water Drop Response to Sudden Accelerations,” J. Fluid Mech., 55, pp. 629–639.
Joseph,  D. D., Belanger,  J., and Beavers,  G. S., 1999, “Breakup of a Liquid Drop Suddenly Exposed to a High-Speed Airstream,” Int. J. Multiphase Flow, 25, pp. 1263–1303.
Yoshida,  T., and Takayama,  K., 1990, “Interaction of Liquid Droplets With Planar Shock Waves,” ASME J. Fluids Eng., 112, pp. 481–486.
Igra,  D., and Takayama,  K., 2001, “Investigation of Aerodynamic Breakup of a Cylindrical Water Droplet,” Atomization Sprays, 11, pp. 167–185.
Raju,  M. S., and Sirignano,  W. A., 1990, “Interaction Between Two Vaporizing Droplets in an Intermediate Reynolds Number Flow,” Phys. Fluids, 2, pp. 1780–1796.
Yoshida, T., Wierzba, A., and Takayama, K. 1988. “Breakup and Interaction of Two Droplet Columns in a Shock Wave Induced High-Speed Air Flow,” ICLASS 88, Sendai.
Igra, D., and Takayama, K., 2001, “Experimental and Numerical Study of Water Column Breakup due to Interaction With a Planar Shock Wave,” ISSW 23.

Figures

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Experimental setup and optical arrangement. 1–test section, 2–driven section, 3–driver, 4–diaphragm, 5–water columns, 6–pressure transducers, 7–universal counter, 8–delay, 9–ruby laser, 10–He-Ne laser, 11–power supply, 12–beam splitter, 13–paraboloidal schlieren mirror, 14–plane mirrors, 15–lens, 16–film holder, 17–filter, 18–half mirror
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The shape of water column view from the side
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Infinite fringe double exposure holographic interferogram at the time instant: (a) 70 μs, t*=3.137: (b) 140 μs, t*=6.335; (c) 210 μs, t*=12.578; (d) 350 μs, t*=15.919; (e) 560 μs, t*=25.544; (f ) 700 μs, t*=30.885; (g) 910 μs, t*=41.285; (h) 1050 μs, t*=47.23
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Water columns deformation in the lateral direction
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Water columns deformation in the direction of the flow
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Area change of the water columns
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Water columns trajectory
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Distance changes between the water columns
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Water columns drag coefficients
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Temporal variation of unsteady drag coefficient

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