Transitivity in the theory of the Lorentz group and the Stokes -- Mueller formalism in optics
arXiv:1005.4212
Abstract
Group-theoretical analysis of arbitrary polarization devices is performed, based on the theory of the Lorentz group. In effective "non-relativistic" Mueller case, described by 3-dimensional orthogonal matrices, results of the one polarization measurement determine group theoretical parameters within the accuracy of an arbitrary numerical variable. There are derived formulas, defining Muller parameter of the non-relativistic Mueller device uniquely and in explicit form by by the results of two independent polarization measurements. Analysis is extended to Lorentzian optical devices, described by 4-dimensional Mueller matrices.
arXiv comment22 pages; Report to be held: XV International School-Conference "Foundations and Advances in Nonlinear Science" September 20-23, Minsk 2010
References in corpus (14)
- Stokes Parameters as a Minkowskian Four-vector
- Maxwell-Schroedinger Equation for Polarized Light and Evolution of the Stokes Parameters
- Singular polarimetry: Evolution of polarization singularities in electromagnetic waves propagating through a weakly anisotropic medium
- Stokes-vector evolution in a weakly anisotropic inhomogeneous medium
- Jones-matrix Formalism as a Representation of the Lorentz Group
- Wigner Rotations and Iwasawa Decompositions in Polarization Optics
- Polarization Elements-A Group Theoretical Study
- Interferometers and Decoherence Matrices
- Sliderule-like property of Wigner's little groups and cyclic S-matrices for multilayer optics
- Lens optics as an optical computer for group contractions
- Binary Representations of ABCD Matrices
- Relativistic Operator Description of Photon Polarization
- A POVM view of the ensemble approach to polarization optics
- Space-time Symmetry Transformations of Elementary Particles realized in Optics Laboratories