Visible to the public Security Aware Spatial Modulation (SA-SM)

TitleSecurity Aware Spatial Modulation (SA-SM)
Publication TypeConference Paper
Year of Publication2018
AuthorsKhadr, Monette H., Elgala, Hany, Ayyash, Moussa, Little, Thomas, Khreishah, Abdallah, Rahaim, Michael
Conference Name2018 IEEE 39th Sarnoff Symposium
Keywordsadjacent channel interference, arising security concerns, bit-error-rate, communication system capacity, communication system reliability, composability, computer network reliability, computer network security, Decoding, degree of technology independent physical layer security, error statistics, forward error correction, forward-error-correction threshold, HN, interchannel interference, Internet of Things, Internet-of-Things deployments, IoT, Metrics, MIMO, MIMO communication, MIMO techniques, multiple-input multiple-output techniques, OFDM, optical transmitters, Peak to average power ratio, peak-to-average-power-ratio, pubcrawl, Radio frequency, radio range, radio receivers, Receivers, Resiliency, SA-SM, secure technique, security, security aware spatial modulation, SM, space division multiplexing, spatial multiplexing, spectral efficiency, system complexity, visible light range, VLC
AbstractMultiple-input multiple-output (MIMO) techniques are currently the de facto approach for increasing the capacity and reliability of communication systems. Spatial modulation (SM) is presently one of the most eminent MIMO techniques. As, it combines the advantages of having higher spectral efficiency than repetition coding (RC) while overcoming the inter-channel interference (ICI) faced by spatial multiplexing (SMP). Moreover, SM reduces system complexity. In this paper, for the first time in literature, the use of MIMO techniques is explored in Internet-of-Things(IoT) deployments by introducing a novel technique called security aware spatial modulation (SA-SM).SA-SM provides a low complexity, secure and spectrally efficient technique that harvests the advantages of SM, while facing the arising security concerns of IoT systems. Using an undemanding modification at the receiver, SA-SM gives an extra degree of technology independent physical layer security. Our results show that SA-SM forces the bit-error-rate (BER) of an eavesdropper to not exceed the range of 10-2, which is below the forward-error-correction (FEC) threshold. Hence, it eradicates the ability of an eavesdropper to properly decode the transmitted signal. Additionally, the efficiency of SA-SM is verified in both the radio and visible light ranges. Furthermore, SA-SM is capable of reducing the peak-to-average-power-ratio (PAPR) by 26.2%.
DOI10.1109/SARNOF.2018.8720503
Citation Keykhadr_security_2018