Generalized Finsler Geometry in Einstein, String and Metric--Affine Gravity
arXiv:hep-th/0310132
Abstract
We develop the method of anholonomic frames with associated nonlinear connection (in brief, N--connection) structure and show explicitly how geometries with local anisotropy (various type of Finsler--Lagrange--Cartan--Hamilton geometry) can be modeled in the metric--affine spaces. There are formulated the criteria when such generalized Finsler metrics are effectively induced in the Einstein, teleparallel, Riemann--Cartan and metric--affine gravity. We argue that every generic off--diagonal metric (which can not be diagonalized by coordinate transforms) is related to specific N--connection configurations. We elaborate the concept of generalized Finsler--affine geometry for spaces provided with arbitrary N--connection, metric and linear connection structures and characterized by gravitational field strengths, i. e. by nontrivial N--connection curvature, Riemannian curvature, torsion and nonmetricity. We apply a irreducible decomposition techniques (in our case with additional N--connection splitting) and study the dynamics of metric--affine gravity fields generating Finsler like configurations. The classification of basic eleven classes of metric--affine spaces with generic local anisotropy is presented.
Latex2e, 55 pages + 26 pages for Appendix and Tables 1-11
References in corpus (1)
Cited by in corpus (4)
- Nonholonomic Deformations of Disk Solutions and Algebroid Symmetries in Einstein and Extra Dimension Gravity
- A Method of Constructing Off-Diagonal Solutions in Metric-Affine and String Gravity
- Noncommutative Symmetries and Stability of Black Ellipsoids in Metric--Affine and String Gravity
- Nonlinear Connections and Exact Solutions in Einstein and Extra Dimension Gravity