Abstract
A novel technique for measuring the fluid sloshing in an opaque cylindrical tank is presented. The proposed measuring technique is fast and low cost but still maintains sufficient accuracy while offering multiple measuring points on the tank's circumference. The method expands the number of measuring points significantly compared to most reviewed methods. To measure all points, a single camera is mounted above the tank, pointing toward its center. Markers on the internal face of the tank are used to calibrate the nonlinear pixels-to-height ratio of the water level as captured by the camera. The technique can capture different sloshing flow regimes under lateral sinusoidal excitation: planar waves, swirling waves, as well as chaotic motion.
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Acknowledgments
PAZY Foundation funds the work described in this paper (Grant 298/18) and is part of a research in collaboration between the NRCN and Technion on “Liquid Sloshing in Seismically Excited Tanks: Prediction and Mitigation of Structural Damage.”
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TK was involved in writing the code, analyzing the data, and writing. GS participated in overseeing the work, directing, and correcting the text.
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Tamir, U., Katsir, O., Gendelman, O.V. et al. Development of a novel technique for measuring the sloshing elevation along the circumference in cylindrical tanks. Exp Fluids 65, 17 (2024). https://doi.org/10.1007/s00348-023-03755-z
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DOI: https://doi.org/10.1007/s00348-023-03755-z