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2024-09-30
Near-Field Shaping with Arbitrary Patterns and Poarization by Conformal Tensor Impedance Modulated Holographic Metasurfaces
By
Progress In Electromagnetics Research Letters, Vol. 123, 1-6, 2024
Abstract
Arbitrarily shaped near field with arbitrary polarization is practical application requirements. Our previous work proposed combining the phase conjugation (PC) and planar tensor impedance modulated holographic metasurface (TIMHMS) for arbitrarily shaped near field with arbitrary polarization. This paper proposes to generate arbitrarily shaped near field with arbitrary polarization by cylindrical conformal TIMHMS based on PC and Blackman window function. For the first time to the knowledge of the authors, arbitrarily shaped near field with arbitrary polarization is generated by conformal TIMHMSs. As example, two cylindrical conformal TIMHMSs are constructed at 30GHz for rectangle-shaped near field: (LHCP, z = 100 mm) and (LP, z = 200 mm), where LHCP and LP are left hand circular and linear polarizations, respectively. Blackman window function is used to optimize the cylindrical conformal TIMHMS design for optimized field pattern efficiency and low sidelobe. The calculated, simulated, and measured results agree well, and validate the proposed design method for conformal TIMHMS. The designed conformal TIMHMSs have the advantages of high pattern efficiency 42.1%, flexibly shaped field patterns and polarizations, and low sidelobe (-15 dB). The design method does not need complicated calculations and can be used in the upcoming sixth-generation wireless networks with required shaped nearfield for Radio Frequency Identification, holographic imaging, biomedical applications, etc.
Citation
Hui-Fen Huang, and Zi-Yi Xiang, "Near-Field Shaping with Arbitrary Patterns and Poarization by Conformal Tensor Impedance Modulated Holographic Metasurfaces," Progress In Electromagnetics Research Letters, Vol. 123, 1-6, 2024.
doi:10.2528/PIERL24062503
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