Transitivity in the theory of the Lorentz group and the Stokes -- Mueller formalism in optics
V.M. Red'kov, E.M. Ovsiuyk

TL;DR
This paper applies Lorentz group theory to analyze polarization devices in optics, deriving explicit formulas for Mueller parameters from measurements and extending the analysis to Lorentzian devices.
Contribution
It introduces a group-theoretical framework for polarization device analysis, providing explicit formulas for Mueller parameters in both non-relativistic and Lorentzian cases.
Findings
Derived explicit formulas for Mueller parameters from polarization measurements.
Extended analysis from 3D orthogonal matrices to 4D Lorentzian matrices.
Established a group-theoretical basis for polarization device characterization.
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.
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Taxonomy
TopicsOptical Polarization and Ellipsometry · Surface Roughness and Optical Measurements · Optical measurement and interference techniques
