Regular ArticleVIBRATIONS OF FLUID-FILLED HERMETIC CANS
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Journal of Sound and Vibration
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Journal of Sound and Vibration
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Journal of Sound and Vibration
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Journal of Sound and Vibration
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Journal of Sound and Vibration
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Journal of Sound and Vibration
Cited by (14)
Vibration analysis of a system of partially-filled interconnected cylindrical shells representing a fast reactor
2022, Journal of Fluids and StructuresCitation Excerpt :More complex fluid–shell systems have also been studied in the past. These include a fully-filled cylindrical shell partially immersed in dense fluid (Amabili, 1999), a system of partially-filled cylindrical shell with two circular plates attached at both ends (Amabili, 2000b), partially-filled cylindrical tank supported at the top (Yu and Whittaker, 2020), a system of a rigid solid cylinder submerged in fluid contained inside a concentric rigid cylinder (Fritz, 1972), a system of two concentric cylinders with fluid present through the height of the cylinders (Chen and Rosenberg, 1975; Yu and Whittaker, 2021), a system of two completely-filled concentric cylinders with the inner cylinder suspended from the top of the outer cylinder (Au-Yang, 1976), a cylinder with one or more smaller cylinder(s) placed inside eccentrically (Chung and Chen, 1977; Jeong et al., 2001), and a partially-filled cylinder supported at the bottom with a concentrically placed inverted cylinder supported at the top (Askari and Daneshmand, 2009; Askari et al., 2011; Moshkelgosha et al., 2017). The dynamic behavior of such systems has been found to depend on number, dimensions and location of cylinders, height of fluid, and support conditions.
Vibro-acoustic analysis of combined elliptical–cylindrical–elliptical shells immersed in acoustic medium
2021, Journal of Fluids and StructuresCitation Excerpt :However, it should not be denied that more and more scholars have paid attention to the vibration and acoustics of combined shell structure. Amabili (1997b, 2018, 2000) studied the vibrations of cylindrical shell-plate structures partially filled with liquids, which can be regarded as a finite-fluid-medium problem, and the effects of the liquid level on the vibrations are studied. Qu et al. (2015) and Qu and Meng (2016) predicted vibration and acoustic responses of submerged coupled spherical–cylindrical–spherical shells by a semi-analytical method, where the structure was stiffened by circumferential rings and longitudinal stringers.
Free vibration of multiple rectangular plates coupled with a liquid
2013, International Journal of Mechanical SciencesCoupled vibration of a partially fluid-filled cylindrical container with a cylindrical internal body
2009, Journal of Fluids and StructuresHydroelastic vibration of two annular plates coupled with a bounded compressible fluid
2006, Journal of Fluids and StructuresHydroelastic analysis of fluid storage tanks by using a boundary integral equation method
2004, Journal of Sound and VibrationCitation Excerpt :For the symmetric and anti-symmetric mode shapes (i=0,j=0), the finite element predictions are, respectively, 11.2% and 23.7% higher than those analytically calculated by Huang and Soedel [24], in which similar discrepancies were observed between their predictions based on the receptance method and finite element calculations. On the other hand, the predicted wet frequencies in Table 10 show a maximum difference of 5.1% in comparison with the analytical calculations of Amabili [23], except for the anti-symmetric mode shape (i=0,j=0). It should also be noted that there is no results presented for the plate-dominant symmetric modes (i=0,j=0) and (i=0,j=1) in Table 10.