Examined parameters for joint shear behaviour were grouped by material property, joint panel geometry, reinforcement confinement, column axial load, and reinforcement bond condition.
The dependence of damping on material properties, fluidic properties, geometry, size, confinement, mode, frequency, pressure, and temperature has been captured well by models (see, for example,[14, 16, 40 42, 64, 68 70]).
The dependence of damping on material properties, fluidic properties, geometry, size, confinement, mode, frequency, pressure, and temperature has been captured well by models (see, for example, [14, 16, 40 42, 64, 68 70]).
Transport properties in semiconductor nanostructures, spanning nanometer dimensions comparable to the de Broglie wavelength of charge carriers, are shown to depend upon the geometry of confinement as quantum waves are encountered.
Artificial confined systems can effectively regulate the synthesis of materials with defined structures according to the geometry of confinements.
The energy eigenvalues of the confined electron states are determined by the geometry of the confinement potential (the size and shape of the island).
Confinement geometry target assemblies are very important in the study of laser shocked materials.
In nanosize G structures, confinement geometry and increased edge-to-area ratio are expected to influence the electronic properties of G significantly.
The shock pressure in confinement geometry depends on incident laser intensity and has main limitation of dielectric breakdown of transparent materials used for confinement.
All results are found consistent with the earlier published results and are used in designing the confinement geometry targets for laser shock experiments.
