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Surface plasmon resonance enhances the photonic spin hall shift at four-level atomic system

Qaisar Khan, Ibrahim Al-Dayel, Meraj Ali Khan, Majid Khan

Published Feb 2, 2026• 0 citations
Publisher
DOI
10.1007/s11128-026-05059-7

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Abstract We investigate magneto-optical rotation (MOR) of surface plasmon polaritons (SPPs) at the interface of a metal and a four-level atomic system. The MOR of SPPs can be controlled and modified with the intensity and frequency of the applied fields. We show the birefringence enhancement of the weak probe fields propagating through the atomic medium in the presence of the static magnetic field. The external magnetic field has a vital role in the generation and control over the MOR of SPPs. The MOR completely stops when either the external magnetic field or the probe field or both are tuned to resonance. A pretty behavior of MOR of SPPs is observed for a specific set of control field frequency. The enhanced MOR of SPP has significant applications in atomic spectroscopy, optical communication, nano-photonics, optical switches, and precise measurement.