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2025-01-21
Reconfigurable Designs of Sectoral Microstrip Antennas for Single Band and Tunable Circular Polarized Response
By
Progress In Electromagnetics Research B, Vol. 110, 73-90, 2025
Abstract
The circularly polarized design of a 350° sectoral microstrip antenna is proposed. Orthogonal surface current components at TM10 mode on the sectoral patch provide circularly polarized characteristics. With the substrate thickness of 0.087λcAR, it yields the simulated axial ratio bandwidth of 18 MHz (1.9%) that lies inside the reflection coefficient bandwidth of 487 MHz (44.66%). A reduction in the substrate thickness by 0.012λcAR in the 350° Sectoral design is achieved by employing an H-shape ground plane profile. This design yields the axial ratio bandwidth of 13 MHz (1.45%), which is present inside the reflection coefficient bandwidth of 386 MHz (36.9%). The antenna using modified ground plane offers peak broadside gain of larger than 6 dBi. On conventional and H-shape ground plane design, reconfigurable design of 350° Sectoral patch is presented that offers switching between the wideband and circularly polarized characteristics. For operation at TM30 mode in the Sectoral patch, circularly polarized reconfigurable configuration for sectoral angle decreasing from 340° to 280° is presented. Over this angle variation, antenna offers tuning in the center frequency of axial ratio bandwidth by 367 MHz (20.6%) with a broadside gain of larger than 5 dBi. A design methodology for circularly polarized antennas functioning at TM10 and TM30 modes is proposed. It helps in realizing similar configuration as per specific wireless application. Experimental verifications for all the obtained results are carried out which show close agreement with the simulated results.
Citation
Amit A. Deshmukh, Heet Mistry, Venkata A. P. Chavali, Aniruddh Viswanathan, and Prasanna Nadkarni, "Reconfigurable Designs of Sectoral Microstrip Antennas for Single Band and Tunable Circular Polarized Response," Progress In Electromagnetics Research B, Vol. 110, 73-90, 2025.
doi:10.2528/PIERB24122404
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