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2024-12-21
Observation of Polarization-Maintaining Near-Field Directionality
By
Progress In Electromagnetics Research, Vol. 181, 35-41, 2024
Abstract
Directional and highly-efficient excitation of guided waves is closely related to the on-chip information processing and is of fundamental importance to plasmonics, nanophotonics, and chiral quantum optics. However, during the directional coupling between propagating waves and guided waves, there is a loss of information about the incident polarization state. It remains elusive and challenging to preserve the incident polarization information in the near-field directionality. Here we experimentally demonstrate polarization-maintaining and polarization-dependent near-field directionality at a microwave frequency of 9.5 GHz by exploiting a reflection-free, anisotropic, and gradient metasurface. The s- and p-polarized guided waves are excited only by the s- and p-polarized components of incident waves, respectively, and they propagate predominantly to opposite designated directions. Remarkably, the measured coupling efficiency between propagating waves and guided waves exceeds 85% for arbitrary incident polarization states. Our work thus reveals a promising route to directly and efficiently convert the polarization-encoded photon qubits to polarization-encoded guided waves, a process that is highly sought after in the context of optical network and plasmonic circuitry.
Supplementary Information
Citation
Tong Cai, Yuhan Zhong, Dan Liu, Hailin Huang, Dengpan Wang, Yi Yang, Hongsheng Chen, and Xiao Lin, "Observation of Polarization-Maintaining Near-Field Directionality," Progress In Electromagnetics Research, Vol. 181, 35-41, 2024.
doi:10.2528/PIER24120802
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