Abstract
An ‘H’-shape three-dimensional meta-material structure which loaded on the sidewall of honeycomb structure absorbing material was designed and fabricated in this project. The simulation results demonstrated a super-wide absorption band below −10 dB between 2.3 and 18 GHz, which expanded 7 GHz compared with the absorber without meta-material. The relative impedance curve was analyzed, which showed that the meta-material has little impact on the impedance-matching characteristics of the honeycomb structure absorbing material. We further studied the distribution of both electronic field energy and magnetic field energy. The former one indicated that the low-frequency absorption peaks could easily be moved by adjusting the parameters of the parallel-plate capacitors which generate electric resonance, and the latter one illustrated that the three-dimensional meta-material could generate magnetic resonance between units which would not exist in two-dimensional meta-material. Then we verified the simulation results through experiment which display a similar absorbing curve. The differences between simulation results and experiment results were caused by the addition substrate of the meta-material, which could not be eliminated in this experiment. However, it still implied that we can obtain a meta-material absorber that has a super-wide absorbing band if we can put the meta-material on the sidewall of the honeycomb without attachments.
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This Project was supported by the National Defense Pre-research Foundation of China under Grant No. 9140A10030110HK5105.
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Huang, D., Kang, F., Zhou, Z. et al. An ‘H’-shape three-dimensional meta-material used in honeycomb structure absorbing material. Appl. Phys. A 118, 1099–1106 (2015). https://doi.org/10.1007/s00339-014-8922-1
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DOI: https://doi.org/10.1007/s00339-014-8922-1