Numerical results for the parametric resonance response of layered anisotropic circular cylindrical shells are presented based on a theoretical development given in part I [1]. The principal regions of parametric resonance are determined numerically from the system of Mathieu equations derived in pa
Dynamic Instability Of Layered Anisotropic Circular Cylindrical Shells, Part I: Theoretical Development
โ Scribed by A. Argento; R.A. Scott
- Publisher
- Elsevier Science
- Year
- 1993
- Tongue
- English
- Weight
- 359 KB
- Volume
- 162
- Category
- Article
- ISSN
- 0022-460X
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โฆ Synopsis
A theoretical development is presented for the parametric resonance of layered anisotropic circular cylindrical shells. The shell's ends are clamped and subjected to axial loading consisting of a static part and a harmonic part. The shell is modelled by using linear shell theory; classical lamination theory is used to determine the stiffness of the overall composite shell structure. The shell's response is divided into a pre-instability (unperturbed) part and an incremental perturbation - which can be dynamically unstable. Rather than assuming the unperturbed state to be a static membrane state of stress, here unperturbed response inertia and spatial variations are retained. A successful solution strategy is developed by employing several Fourier expansions. By means of it, the equations of motion of the perturbed response are reduced to a system of Mathieu equations. The stability of such a system can be determined by known methods. Numerical results are presented in part II.
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