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Wireless Personal Communications

Cooperative Physical Layer Security Transmission Scheme Based on Energy Harvesting

Lishuang Dong, Jialun Li, Xiaomei Fu

Published Sep 29, 2020• 0 citations
Publisher
DOI
10.1007/s11277-020-07842-w

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This paper investigates physical layer security of cooperative NOMA in a severe scenario where there is no direct link from the source to far destination while the direct link between the eavesdropper and source exists. An energy harvesting (EH) jammer aided cooperative NOMA (namely EJCN) scheme is proposed to enable secure communications for the scenario. In particular, the EH jammer can opportunistically harvest energy from ambient radio frequency (RF) signals without occupying special time and power resources, and the harvested energy is exploited to emit the artificial noise (AN) for confusing the eavesdropper. The closed-form expressions of secrecy throughput achieved by the EJCN scheme are derived to evaluate the secrecy performance for the scenario. An iterative algorithm is presented to obtain the optimal codeword rate. The analysis and simulation results show that the EJCN scheme can achieve better secrecy performance than conventional transmission scheme without an EH jammer, indicating the superiority of the proposed scheme. In addition, the codeword rate of users should be carefully designed to maximize the secrecy throughput.
Non-orthogonal multiple access (NOMA) and wireless energy harvesting are two promising technologies for improving spectral efficiency and energy efficiency, respectively. In this paper, we study the physical layer security of a wireless-powered full-duplex (FD) relay-aided cooperative NOMA system. In particular, the source is wiretapped by an eavesdropper, and the FD relay assists the transmission from the source to a near user and a far user with self-energy recycling. To enhance the security performance of the system, we propose an artificial noise (AN)-aided cooperative transmission scheme, in which the relay emits a jamming signal to confuse the eavesdropper while receiving the signal from the source. For the proposed scheme, the ergodic secrecy sum rate (ESSR) is derived to characterize the secrecy performance and a lower bound of ESSR is obtained. Finally, numerical results verify the accuracy of the theoretical analysis of the proposed AN-aided secure transmission scheme. The superiority of the proposed scheme is also demonstrated since this scheme can achieve better secrecy performance, compared to the conventional cooperative NOMA scheme.
Energy harvesting (EH) technology has imposed new constraints on the amount of time an energy-constrained relay node needs to use for EH and information forwarding. Moreover, EH techniques may increase vulnerability to eavesdropping, since a power receiver, as a potential eavesdropper, usually has a shorter access distance than an information receiver. Motivated by this issue, in this paper, we investigate a tradeoff between energy consumption and physical layer security in a wireless powered-untrusted cooperative communication (WPUCC) network consisting of one source-destination pair and multiple amplify-and-forward untrusted relays. To minimize the energy consumption of the network, we propose a secure adaptive relay-based cooperation approach. Moreover, a greedy battery-aware relay-selection scheme is proposed to minimize the power consumption in WPUCC systems. Using power-splitting-based energy accumulation, untrusted relays attempt to intercept the information intended to the legitimate destination while harvesting energy at the same time. To keep the information secure from potential eavesdropping, the source injects a jamming signal along with its data signal. By modeling the dynamic behavior of the relay battery as a finite-state Markov chain, we derive an analytical expression for the secrecy outage probability of our proposed secure adaptive harvest-use-store cooperative communication scheme and show that it is more secure than its direct transmission and pure two-hop transmission counterparts.