A secure optimal relay selection for full-duplex two-way relay network with two-sided eavesdroppers

Fang Liu, Tingting Wang
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Abstract

This paper presents a novel full-duplex (FD) two-way (TW) decode-and-forward (DF) relay network with two-sided eavesdroppers, which includes two FD sources A B, multiple FD relays and two eavesdroppers. The two-sided eavesdroppers E1 and E2 are considered, and A, E1 are distributed in a same cluster different from the cluster of B, E2, which will lead a more complex eavesdropping environment. We propose an optimal relay selection (ORS) scheme based on maximizing secrecy capacity to improve the security performance of proposed system. The closed-form expression for secrecy outage probability (SOP) of the proposed FD-TW ORS scheme is derived by appropriately ignoring the interference imposed on the two eavesdroppers side. Furthermore, the impact of average signal-to-noise (SNR), number of relays (K) and the average residual self-interference imposed on full-duplex nodes are analyzed and simulations show that the proposed FD-TWR ORS scheme under better self-interference suppression scheme always outperform the traditional HD-TWR ORS scheme in terms of SOP performance.
具有双面窃听器的全双工双向中继网络的安全最佳中继选择
提出了一种新型的双面窃听器全双工(FD)双向译码转发(DF)中继网络,该网络由两个FD源a B、多个FD中继和两个窃听器组成。考虑双面窃听者E1和E2,并且A、E1与B、E2分布在不同的集群中,这将导致更复杂的窃听环境。为了提高系统的安全性能,提出了一种基于最大保密容量的中继选择优化方案。通过适当忽略对窃听双方的干扰,推导出FD-TW ORS方案的保密中断概率(SOP)的封闭表达式。分析了平均信噪比(SNR)、中继数(K)和施加在全双工节点上的平均剩余自干扰的影响,仿真结果表明,在更好的自干扰抑制方案下,FD-TWR ORS方案在SOP性能方面始终优于传统HD-TWR ORS方案。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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