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The European Physical Journal Plus

Tunable cratering of lateral Goos–Hänchen shifts in reflection and transmission of structured light in chiral atomic medium

Rahat Ullah, Shehzad Khan, Amina, Javaid Khan

Published Nov 14, 2024• 5 citations
Publisher
DOI
10.1140/epjp/s13360-024-05792-x

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The reflection, transmission, and related Goos–Hänchen (GH) shifts of structured light are investigated by multi-wave mixing conditions in this paper. The terms absorption, dispersion, group index, and photon drag rotation of structured light are also studied by multi-wave mixing. The maximum values of group index of [Formula: see text] and rotary photon drag of [Formula: see text] micro-radian are reported in this work. Significant modifications of GH shift in reflection and transmission modes are investigated with azimuthal quantum number of structured light along with multi-wave mixing. Various crater shapes are reported in reflection and transmission modes and with their corresponding GH shifts in reflection and transmission modes. The reflection and transmission GH shifts exhibit a correlation where [Formula: see text]ve reflection GH shift regions correspond to −ve transmitted GH shift regions, and vice versa. The maximum of [Formula: see text]ve and −ve GH shift in reflection and transmission modes is investigated up to [Formula: see text]. The modified GH shifts in reflection and transmission modes have significant applications in high-resolution imaging, sensing, and optical signal processing.

Journal of Nonlinear Optical Physics & Materials•Jan 18, 2025•0 citations
The reflection, transmission, and related Goos–Hänchen (GH) shifts of structured light are investigated by multi-wave mixing conditions in this paper. The terms absorption, dispersion, group index, and photon drag rotation of structured light are also studied by multi-wave mixing. The maximum values of group index of [Formula: see text] and rotary photon drag of [Formula: see text] micro-radian are reported in this work. Significant modifications of GH shift in reflection and transmission modes are investigated with azimuthal quantum number of structured light along with multi-wave mixing. Various crater shapes are reported in reflection and transmission modes and with their corresponding GH shifts in reflection and transmission modes. The reflection and transmission GH shifts exhibit a correlation where [Formula: see text]ve reflection GH shift regions correspond to −ve transmitted GH shift regions, and vice versa. The maximum of [Formula: see text]ve and −ve GH shift in reflection and transmission modes is investigated up to [Formula: see text]. The modified GH shifts in reflection and transmission modes have significant applications in high-resolution imaging, sensing, and optical signal processing.