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Stability of Laminated Shells Made of Materials with one Plane of Elastic Symmetry

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Abstract

The paper sets forth a technique, based on the Kirchhoff–Love theory of shells, for solving stability problems for thin-walled laminated shells of revolution made of an anisotropic material with one plane of elastic symmetry. The resolving system of differential equations is of the 16th order since the symmetric and asymmetric buckling modes are coupled. The results from a stability analysis of cylindrical shells made of carbon plastics and subjected to compression are analyzed against the angle of the principal directions of elasticity. The influence of boundary conditions is studied. The error due to neglecting the coupling of buckling modes is estimated

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Trach, V.M., Podvornyi, A.V. Stability of Laminated Shells Made of Materials with one Plane of Elastic Symmetry. International Applied Mechanics 40, 573–579 (2004). https://doi.org/10.1023/B:INAM.0000037305.78333.21

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  • DOI: https://doi.org/10.1023/B:INAM.0000037305.78333.21

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