DYNAMICS OF A TWO-LAYERED TIMOSHENKO-TYPE CYLINDRICAL SHELL INCLUDING THE EFFECTS OF SHEAR DEFORMATION OF THE INTERLAYER BOND,
Abstract
Equations of (axially symmmetric) motion are derived for a cylindrical shell whose two layers are connected by a thin, deformable bond. Effects of shear deformation and rotatory inertia are accounted for in each of the shell layers. A thin, inertialess, interlayer bond that deforms only in shear is assumed. A nondimensional bond stiffness parameter is introduced, and the effect of bond stiffness on the dynamic behavior of the shell is investigated for the case of axial wave propagation in an infinitely long shell. The bond stiffness parameter has a profound influence on some of the wave propagation frequencies. An expression is given for a critical value of the bond stiffness parameter that separates 'stiff' and 'soft' bonds. For the limiting cases of very stiff or very soft bonds, simplified theoretical approaches give adequate accuracy; however, it appears necessary to use the theory in full for bonds of intermediate thickness. (Author)
Document Details
- Document Type
- Technical Report
- Publication Date
- Jun 01, 1967
- Accession Number
- AD0656338
Entities
People
- J. P. Jones
- J. S. Whittier
Organizations
- The Aerospace Corporation