On the fundamentals of the three-dimensional translation gauge theory of dislocations
arXiv:1003.3549 · doi:10.1177/1081286510370889
Abstract
We propose a dynamic version of the three-dimensional translation gauge theory of dislocations. In our approach, we use the notions of the dislocation density and dislocation current tensors as translational field strengths and the corresponding response quantities (pseudomoment stress, dislocation momentum flux). We derive a closed system of field equations in a very elegant quasi-Maxwellian form as equations of motion for dislocations. In this framework, the dynamical Peach-Koehler force density is derived as well. Finally, the similarities and the differences between the Maxwell field theory and the dislocation gauge theory are presented.
17 pages, to appear in: Mathematics and Mechanics of Solids
References in corpus (3)
Cited by in corpus (11)
- A unifying perspective: the relaxed linear micromorphic continuum
- Chiral Topological Elasticity and Fracton Order
- Extended Einstein-Cartan theory a la Diakonov: the field equations
- Scaling theory of continuum dislocation dynamics in three dimensions: Self-organized fractal pattern formation
- Distributional and regularized radiation fields of non-uniformly moving straight dislocations, and elastodynamic Tamm problem
- A gauge theoretic approach to elasticity with microrotations
- Quantized Dislocations
- An action for nonlinear dislocation dynamics
- On the non-uniform motion of dislocations: The retarded elastic fields, the retarded dislocation tensor potentials and the Liénard-Wiechert tensor potentials
- Rotational elasticity and couplings to linear elasticity
- Plasticity as Spontaneous Breaking of Symmetry