Low-data simulation of diffractive optical elements based on the zones geometry

Design and simulation of two-dimensional diffractive optical elements are often limited by the amount of data required to represent the element in the computer's memory. We present a technique based on a geometrical description of the element, which requires fewer data than the traditional pixe...

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Published in:Journal of modern optics 2002-09, Vol.49 (11), p.1801-1809
Main Authors: RIPOLL, OLIVIER, KETTUNEN, VILLE, PETER HERZIG, HANS
Format: Article
Language:English
Subjects:
Diffraction and scattering
Exact sciences and technology
Filters, zone plates, and polarizers
Fundamental areas of phenomenology (including applications)
Gratings
Optical elements, devices, and systems
Optics
Physics
Wave optics
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container_title Journal of modern optics
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creator RIPOLL, OLIVIER
KETTUNEN, VILLE
PETER HERZIG, HANS
description Design and simulation of two-dimensional diffractive optical elements are often limited by the amount of data required to represent the element in the computer's memory. We present a technique based on a geometrical description of the element, which requires fewer data than the traditional pixel description. Moreover, the element is being described more accurately and consequently the pixel-related artefacts are suppressed. This technique can be used for both periodic and non-periodic structures of large dimensions under Fraunhofer or Fresnel approximations. We apply the method to analysis of far-field beam-shaping elements and discuss possible extensions and refinements of the technique.
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source Taylor and Francis Science and Technology Collection
subjects Diffraction and scattering
Exact sciences and technology
Filters, zone plates, and polarizers
Fundamental areas of phenomenology (including applications)
Gratings
Optical elements, devices, and systems
Optics
Physics
Wave optics
title Low-data simulation of diffractive optical elements based on the zones geometry
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