This book provides an innovative description of motion with large deformations and the possibility of defects and dislocations. The theory is based on the stretch and angular matrices of the polar decomposition allowing convex potentials. Third-order gradient theories are required to account for mechanical everyday experiments, for instance assemblies of solid structures with different spatial dimensions. Second-order gradient theories are required for thermal experiments. Using the principle of virtual power and new convex potentials, the position of either solid or fluid structures together with the matrix accounting for the defects and dislocations is computed. Defects and dislocations are present in case an internal stress is large enough. Engineers and scientists active in solid and fluid engineering, mathematics, and numerics should be aware of this predictive theory. Damage, shape memory alloys, Cosserat materials, and surface tension are investigated in this framework.

Showcases an innovative description of thermo-mechanics with large deformations, dislocations, and defects Investigates applications to solids and fluids, damage, shape memory alloys, Cosserat theory, and surface tension Is of interest to not only academics, but also designers and engineers who deal with real-world engineering problems

Autorentext

Michel Frémond was professor of Mechanics of Solids and Structures at the University of Rome Tor Vergata, Italy.

Inhalt

Introduction.- An Example A Point Table System.- A Soccer Ball Soccer Field System.- The Motion of a Continuum Medium.- The Change in Shape.