Fresnel-Gaussian shape invariant for optical ray tracing
Moisés Cywiak, A. Morales, J. Mauricio Flores, Manuel Servı́n
Abstract
Moisés Cywiak, A. Morales, J. Mauricio Flores, Manuel Servı́n
Abstract
We propose a technique for ray tracing, based in the propagation of a Gaussian shape invariant under the Fresnel diffraction integral. The technique uses two driving independent terms to direct the ray and is based on the fact that at any arbitrary distance, the center of the propagated Gaussian beam corresponds to the geometrical projection of the center of the incident beam. We present computer simulations as examples of the use of the technique consisting in the calculation of rays through lenses and optical media where the index of refraction varies as a function of position.
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We propose a technique for ray tracing, based in the propagation of a Gaussian shape invariant under the Fresnel diffraction integral. The technique uses two driving independent terms to direct the ray and is based on the fact that at any arbitrary distance, the center of the propagated Gaussian beam corresponds to the geometrical projection of the center of the incident beam. We present computer simulations as examples of the use of the technique consisting in the calculation of rays through lenses and optical media where the index of refraction varies as a function of position.
Key concepts: Optics, Ray tracing (physics), Gaussian, Physics, Ray transfer matrix analysis, Diffraction, Fresnel diffraction, Fresnel zone