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2024-09-11
PIER C
Vol. 148, 9-18, 2024
download: 14
Transmission Characterization of Four-Layer PCB Differential Lines Based on Modified Kron's Methodology
Weibing Xiao , Kuangang Fan , Fazhu Zhou , Jizan Zhu and Shuliang Li
This paper addresses the high-frequency signal transmission problem of high-speed differential lines on four-layer printed circuit boards (PCBs). It establishes a mathematical model of high-speed differential lines in conjunction with modified Kron's methodology (MKM), a nontraditional circuit modeling method. The article builds the model through diakoptics of differential lines, then generates the corresponding topology maps, and finally creates the model through tensorial analysis of the network (TAN). The differential line model is simulated and optimized by HFSS. This paper mainly analyzes the influence of differential line spacing and grounding vias on the signal transmission of differential lines. Secondly, it analyzes the problem of multi-group differential line arrangement based on the above work. Finally, the experimental results obtained are consistent with the simulation ones.
Transmission Characterization of Four-Layer PCB Differential Lines Based on Modified Kron's Methodology
2024-09-11
PIER C
Vol. 148, 1-7, 2024
download: 27
SRA-DGS-NL Based Decoupling Scheme for MIMO Antenna
Revati C. Godi and Rajendra R. Patil
In this paper, a novel decoupling strategy for a MIMO antenna is proposed. This MIMO antenna system consists of two symmetric inverted L shaped antenna elements. To improve the isolation between radiating antenna elements, split ring arrays, neutralisation line and ground slots are employed. The MIMO antenna operates at 6.27 GHz. Neautralization line aids in cancelling the coupling by introducing reverse coupling. Ground slots introduce band-stop characteristic to nullify the coupling effect, and split ring array blocks the electromagnetic coupling reaching the other antenna element. The isolation parameters |S12| and S21 obtained are less than -21 dB. The diversity parameters envelope correlation coefficient and diversity gain are investigated. Envelope correlation coefficient is within acceptable limit. These diversity parameters indicate that good diversity performance is achieved by the proposed MIMO antenna. Measured results are in good agreement with simulated ones. The suggested antenna is appropriate for many wireless applications, including IEEE 802.11 and 802.16 standards, as we deal with the sensitive environment.
SRA-DGS-NL Based Decoupling Scheme for MIMO Antenna