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A NOVEL Z-EBG STRUCTURE EMBEDDED BY DBCSRR FOR SUPPRESSION OF SIMULTANEOUS SWITCHING NOISE

By X.-J. Hu and Z.-M. Sun

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Abstract:
Aimed at solving the problems of high initial cutoff frequency, small stopband range and poor inhibition in the current electromagnetic band gap (EBG) structure, an electromagnetic band gap structure designed on the basis of periodic Z-bridge EBG inserted by a double complementary slit ring resonator (DBCSRR) cell is proposed. Compared with the traditional EBG structure, the proposed EBG structure can achieve 270 MHz-20 GHz bandwidth in a reference of -30 dB, which is wide in range. The measured and simulated results indicate the wideband of noise suppression. In addition, the lower and upper cutoff frequencies are estimated by using equivalent circuit models, respectively. Moreover, the IR-Drop and dc resistance is accurately investigated through 3-D simulations. Finally, the transfer characteristics of single signal line are studied.

Citation:
X.-J. Hu and Z.-M. Sun, "A Novel Z-EBG Structure Embedded by DBCSRR for Suppression of Simultaneous Switching Noise," Progress In Electromagnetics Research C, Vol. 74, 9-17, 2017.
doi:10.2528/PIERC17021601

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