用于频率选择曲面模拟的表面阻抗吸收边界条件

Weibo Liang, Hongxing Zheng
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摘要

频率选择表面(Frequency Selective Surface, FSS)是一种新兴的人工超材料,在研究和工程领域得到了广泛的应用,越来越受到人们的关注。本文采用含表面阻抗吸收边界条件(SIABC)的时域有限差分法对不同的FSS进行了数值模拟。实现了磁场(H-)和电场(E-)同时配置的SIABC。h -并置SIABC可直接与周期边界条件结合而无需额外的公式推导,同时导出了e -并置SIABC与PBC结合的更新方程。分析了该方法的反射误差和稳定性,并在正入射条件下对偶极子FSS和耶路撒冷交叉FSS进行了模拟。得到了fss的共极化反射系数和透射系数。该方法与包含卷积完美匹配层的FDTD方法具有较好的一致性,可节省41.88%的时间和40.98%的内存。
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Surface impedance absorbing boundary condition used for the simulation of frequency selective surfaces
Frequency Selective Surface (FSS), which is a kind of emerging artificial metamaterial, is widely used in research and engineering areas and attracting more and more attention. In this paper, we apply the finite difference time domain method including the surface impedance absorbing boundary condition (SIABC) to simulate different FSS. Both the magnetic field (H-) and electric field (E-) collocated SIABC are implemented. The H-collocated SIABC could be directly combined with the periodic boundary condition without extra formula derivation while the updating equations for the E-collocated SIABC combined with PBC are derived. The reflection error and stability of the proposed method are analyzed, and different FSSs including a dipole FSS and a Jarusalem cross are simulated under normal incidence. The co-polarized reflection and transmission coefficients of the FSSs are obtained. Good agreement is reached with the FDTD method including convolutional perfectly matched layer, while up to 41.88% of time and 40.98% of memory is saved.
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