Sage Journals: Discover world-class research

Abstract

Physical layer security will play a critical role in the next generation of fifth-generation (5G) communication system, and assume that global channel state information can be obtained, a hybrid unicast/multicast transmission system for eavesdroppers in a Three-Dimensional Multi-Input Multi-Output (3D MIMO) channel scenario anti-eavesdropping program can be proposed. This system is analyzed and simulated under the cylindrical antenna array scenario with mutual coupling channel. Users (UEs) are divided into three groups, multicast group, unicast group and eavesdropping group. In order to eliminate the interference within each group, this system adopts multicast transmission beamforming in multicast group and linear transmission precoding in unicast group, then the interference among groups can be eliminated by zero-space method, and the confidential signal cannot be received by eavesdroppers with the anti-eavesdropping scheme. The simulation results indicate that under the anti-eavesdropping scheme of transmitting signals from transmitters, beamforming/precoding and interference cancellation, the secrecy rate has obvious improved.

Keywords

Multicast secrecy rate massive MIMO

Get full access to this article

View all access options for this article.

References

Jeong

Quek

T.Q.S.

and Shin

, Stochastic wireless secure multicasting, IEEE International Conference on Communications (2013), 4718–4723.

Shannon

C.E.

, Communication theory of secrecy systems, Bell System Technical Journal 28(4) (1949), 656–715.

Khisti

and Wornell

, Secure Transmission with Multiple Antennas: The MISOME Wiretap Channel, Mathematics 57(7) (2007), 3088–3104.

Csiszar

and Korner

, Broadcast channels with confidential messages, IEEE Transactions on Information Theory 24(3) (1978), 339–348.

Apajalahti

Hyvönen

Niiranen

et al., Combining ontological modelling and probabilistic reasoning for network management, Journal of Ambient Intelligence & Smart Environments 9(1) (2017), 63–76.

Andrews

J.G.

Buzzi

Wan

et al., What Will 5G Be? IEEE Journal on Selected Areas in Communications 32(6) (2014), 1065–1082.

Puente

M.A.

Becvar

Rohlik

et al., A Seamless Integration of Computationally-Enhanced Base Stations into Mobile Networks towards 5G, Vehicular Technology Conference IEEE (2015), 1–5.

Rahaim

M.B.

and Little

T.D.C.

, Toward practical integration of dual-use VLC within 5G networks, IEEE Wireless Communications 22(4) (2015), 97–103.

and Hong

, Multicast-based replication for Hadoop HDFS, Ieee/acis International Conference on Software Engineering, Artificial Intelligence, NETWORKING and Parallel/distributed Computing (2015), 1–6.

10.

Xiang

Tao

and Wang

, Massive MIMO multicasting in noncooperative multicell networks, IEEE International Conference on Communications (2014), 4777–4782.

11.

Zheng

and Yin

, Massive MIMO channel models: A survey, International Journal of Antennas & Propagation 2014(11) (2014), 1–10.

12.

Liang

Kramer

Poor

H.V.

et al., Compound wiretap channels, EURASIP Journal on Wireless Communications and Networking 2009(1) (2009), 1–12.

13.

Sun

Gong

Rong

et al., An intelligent SDN framework for 5G heterogeneous networks, Communications Magazine IEEE 53(11) (2015), 142–147.

14.

Xiao

Wang

Rutagemwa

et al., High performance multicast services in 5G big data network with massive MIMO, IEEE International Conference on Communications (2017), 1–6.

15.

Zhang

and Guo

, BD precoding schemes for cognitive MIMO system, IEEE International Conference on Network Infrastructure and Digital Content (2009), 11–15.

An anti-eavesdropping scheme for hybrid multicast services with massive MIMO in 5G

Abstract

Keywords

Get full access to this article

References