Pre-buckling plus post-buckling cross-section distortions vary with lengths L-sub-g and L-sub-u a) Shear buckling of a short cantilevered cylindrical shell with shear force V applied at the upper end, which has to remain circular and rotation free; b) longer shell in which both shear buckling and axial compresion buckling occur; c) compression buckling of shell with a weld sinkage Normalized buckling load and buckling mode shapes as functions of dimensionless length, L/r, of a cylindrical tube with various radius/thickness, r/t cantilevercylsheartocompbuck2 Wall construction of a multi-layered pipe for offshore application
Pre-buckling plus post-buckling cross-section distortions vary with lengths L-sub-g and L-sub-u a) Shear buckling of a short cantilevered cylindrical shell with shear force V applied at the upper end, which has to remain circular and rotation free; b) longer shell in which both shear buckling and axial compresion buckling occur; c) compression buckling of shell with a weld sinkage Normalized buckling load and buckling mode shapes as functions of dimensionless length, L/r, of a cylindrical tube with various radius/thickness, r/t cantilevercylsheartocompbuck2 Wall construction of a multi-layered pipe for offshore application
A possibly critical event during the life of the multi-layered offshore piping Buckling of the multi-layered flexible offshore pipe under the condition shown in the previous image Dented aluminum alloy cylindrical shells before testing under uniform axial compression Distribution of wind pressure on cylindrical tanks (left) and equivalent uniform pressure (right) First 5 vibration modes of a thick cylindrical shell
A possibly critical event during the life of the multi-layered offshore piping Buckling of the multi-layered flexible offshore pipe under the condition shown in the previous image Dented aluminum alloy cylindrical shells before testing under uniform axial compression Distribution of wind pressure on cylindrical tanks (left) and equivalent uniform pressure (right) First 5 vibration modes of a thick cylindrical shell
External lateral explosive on a sector of a sand-filled cylindrical shell External explosive on a sector of a sand-filled cylindrical shell (Fig.2) and post-test deformation shapes for three values of the sector angle (phi): 45, 90 and 135 degrees (Fig. 3) Dynamic stress concentration coefficient in tunnel lineing with different values of buried depth in soft surrounding rock Dynamic fracture of a notched cylindrical shell with an internal explosion Flaring process of a steel tube
External lateral explosive on a sector of a sand-filled cylindrical shell External explosive on a sector of a sand-filled cylindrical shell (Fig.2) and post-test deformation shapes for three values of the sector angle (phi): 45, 90 and 135 degrees (Fig. 3) Dynamic stress concentration coefficient in tunnel lineing with different values of buried depth in soft surrounding rock Dynamic fracture of a notched cylindrical shell with an internal explosion Flaring process of a steel tube

unstiffened cylindrical shells

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Sunday, December 27, 2020