Beam Steering of Lens Antenna with 4x4 Element 4-Port Antenna in the 300-GHz Band

IF 0.3 Q4 ENGINEERING, ELECTRICAL & ELECTRONIC IEICE Communications Express Pub Date : 2025-01-28 DOI:10.23919/comex.2024XBL0167
Seiji Nishi;Kazuhiko Tamesue;Kunihisa Jitsuno;Toshio Sato;Takuro Sato;Tetsuya Kawanishi
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Abstract

A circular polarized 4x4 element 4-port antenna in the 300 GHz band was designed and fabricated. Antenna gain of more than 10 dBic and axial ratio of less than 3 dB were obtained at 285.12 GHz to 289.44 GHz, which are ch 16 and ch 17 of IEEE 802.15.3d. If the power of the four ports were ideally combined, the antenna gain would increase by 6 dB to 16 dBic. A lens was designed for the circularly polarized 4x4 element 4-port antenna. The focal length of the lens was 100 mm and lens radius is 35 mm. An antenna gain of 40 dBic was calculated using the lens. Placing the 4x4 element 4-port antenna at the focal length of the lens would provide maximum gain, but no beam steering by phase controle. Placing the antenna closer than the focal length would lower the antenna gain but allow beam steering by phase controle. The antenna gain and beam tilt angle were calculated for different distances between the lens and the 4x4 element 4-port antenna. A lens antenna with a lens height of 70 mm was assembled and beam steering was measured.
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300 ghz频段4 × 4单元4端口天线透镜天线的波束转向
设计并制作了一种300 GHz频段的圆形极化4x4单元4端口天线。285.12 GHz ~ 289.44 GHz频段的天线增益大于10dbic,轴比小于3db,为IEEE 802.15.3 3d的ch 16和ch 17频段。如果四个端口的功率理想地组合在一起,天线增益将增加6 dB至16 dBic。为圆偏振4x4元四端口天线设计了透镜。透镜焦距为100mm,透镜半径为35mm。利用该透镜计算了40 dBic的天线增益。将4x4单元4端口天线放置在透镜的焦距处将提供最大的增益,但没有通过相位控制来控制波束。将天线放置在比焦距更近的位置会降低天线增益,但可以通过相位控制来控制波束。计算了透镜与4 × 4单元4端口天线之间不同距离下的天线增益和波束倾斜角。装配了透镜高度为70 mm的透镜天线,并进行了波束转向测量。
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IEICE Communications Express
IEICE Communications Express ENGINEERING, ELECTRICAL & ELECTRONIC-
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33.30%
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