A new design for an ultra-wideband microwave metamaterial absorber
Yongjun Yu, Pingyuan Sun, Yunfan Wang, Zhaoyang Chen
Abstract
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Yongjun Yu, Pingyuan Sun, Yunfan Wang, Zhaoyang Chen
Abstract
Open-access reader
Abstract In this paper we propose a new design for an ultra-wideband microwave metamaterial absorber. This metamaterial absorber has a sandwich structure, and the top metal pattern is periodically arranged on the copper background. This metamaterial absorber is combined with Fe–Co composites and metamaterials, which solves the narrow-band problem of microwave absorption. We realize an absorptivity of more than 90% in the 2.16–18 GHz frequency band for normal incidence. The thickness of the structure is 0.61 mm (about 1/48.8 wavelength at the central frequency). The performance of the proposed absorber is not sensitive to the polarization of incident waves.
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Abstract In this paper we propose a new design for an ultra-wideband microwave metamaterial absorber. This metamaterial absorber has a sandwich structure, and the top metal pattern is periodically arranged on the copper background. This metamaterial absorber is combined with Fe–Co composites and metamaterials, which solves the narrow-band problem of microwave absorption. We realize an absorptivity of more than 90% in the 2.16–18 GHz frequency band for normal incidence. The thickness of the structure is 0.61 mm (about 1/48.8 wavelength at the central frequency). The performance of the proposed absorber is not sensitive to the polarization of incident waves.
Key concepts: Metamaterial absorber, Metamaterial, Microwave, Molar absorptivity, Wideband, Materials science, Tunable metamaterials, Frequency band