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2025-01-12
PIER M
Vol. 131, 9-17, 2025
download: 23
Highly Isolated and Miniaturized SIW Based Self-Quadplexing Antenna with Modified CSRR-Inspired Slots for S-Band Wireless Applications
Matta Venkata Pullarao, Singam Aruna and Kethavathu Srinivasa Naik
This paper presents a highly miniaturized self-quadplexing antenna based on a quarter-mode substrate integrated waveguide. The miniaturization of the antenna is achieved by utilizing a pair of complementary split-ring resonator-inspired slots. The quadplexing characteristics of the antenna are achieved by varying the width of the inner CSRR-shaped slot. The antenna is designed to resonate at four distinct frequencies: 2.09 GHz, 2.18 GHz, 2.26 GHz, and 2.36 GHz. It demonstrates a minimum port isolation exceeding 32.6 dB between the ports. Additionally, this self-quadplexing antenna offers frequency tunability and maintains a unidirectional radiation pattern across the designated operating frequencies. The antenna's simulated and measured gains are 5.32 dBi (5.44 dBi), 5.58 dBi (5.42 dBi), 5.41 dBi (5.15 dBi), and 5.18 dBi (5.26 dBi). The design supports independent frequency tunability through the activation of four ports, with a compact size of 0.037 λ02, where λ0 is determined at lowest resonant frequency. These features indicate the antenna's suitability for S-band applications.
Highly Isolated and Miniaturized SIW Based Self-quadplexing Antenna with Modified CSRR-inspired Slots for S-band Wireless Applications
2025-01-11
PIER M
Vol. 131, 1-7, 2025
download: 16
Broadband High-Gain Magneto-Electric Dipole Antenna Loaded with T-Slot
Yan Yan Wang, Yu Wang and Wu-Sheng Ji
This paper proposes a magneto-electric dipole antenna with broadband, good directivity, and high gain. By changing the shape of the radiating patch and loading the T-slot to improve the impedance matching ability of the antenna, the bandwidth is effectively expanded. Low cross-polarization and high gain are achieved by using a square metal reflective cavity and a hollow metal cylinder loaded on top of the antenna. Test results show a relative impedance bandwidth (|S11|<-10 dB) of 94.40% (1.32 GHz-3.68 GHz) with a maximum gain of 10.7 dBi. The antenna has excellent performance and has applications in wireless communication systems.
Broadband High-gain Magneto-electric Dipole Antenna Loaded with T-slot