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Design of an off-axis see-through display based on a dynamic phase correction approach
Author(s) -
Marc Beuret,
Patrice Twardowski,
Joël Fontaine
Publication year - 2011
Publication title -
optics express
Language(s) - English
Resource type - Journals
SCImago Journal Rank - 1.394
H-Index - 271
ISSN - 1094-4087
DOI - 10.1364/oe.19.019688
Subject(s) - optics , optical transfer function , computer science , phase (matter) , point spread function , diffraction , point (geometry) , transfer function , diffraction efficiency , field (mathematics) , virtual image , physics , spatial light modulator , spatial frequency , field of view , position (finance) , mathematics , geometry , electrical engineering , quantum mechanics , pure mathematics , engineering , finance , economics
The design and the analysis of an off-axis (50°) diffractive imaging optical system is presented in this paper. A 10°x15° field of view is considered. The optical system is composed of two diffractive optical elements. A static diffractive optical element having a frozen phase transfer function is used to perform a virtual point in the considered field of view. A dynamic diffractive optical element having an adapted calculated phase transfer function is used to compensate for aberrations of the static element. Using a sequential creation of virtual image points and considering human eye characteristics, it is shown that a nine points virtual image can be obtained with current technology. Moreover, it is presented that aberrations can be compensated whatever the position of the virtual point in the 10°x15° field of view. Finally, using rigorous coupled wave analysis, it is shown that an average diffraction efficiency of 79% can be reached across the considered field of view with a standard deviation of nearly 5%.

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