PERFORMANCE OF ORTHOGONAL FREQUENCY DIVISION MULTIPLEXING WITH SIGNAL SPACE DIVERSITY VIA SUBCARRIER COORDINATE INTERLEAVING OVER NAKAGAMI-M AND RICIAN FADING CHANNELS

Year 2018, Volume: 13 Issue: 4, 291 - 301, 13.10.2018

Serdar Özyurt

Abstract

In this work, orthogonal frequency division multiplexing technique is combined with signal space diversity and error probability performance of the system is inspected for binary phase shift keying modulation over slow frequency-selective Nakagami-m and Rician fading channels. First, appropriate subcarrier coordinate interleaving techniques are obtained based on the number of subcarriers, the number of resolvable multipaths, and the fading parameters. It is shown that appropriate subcarrier coordinate interleaving techniques under some of the investigated scenarios are the same as the ones under the Rayleigh fading scenario. Subsequently, the bit error rate of the studied system is compared with the bit error rate of the original system. Further, it is demonstrated that the considered system provides significant performance gain beyond the original orthogonal frequency division multiplexing technique under different scenarios.

Keywords

Orthogonal Frequency Division Multiplexing, Signal Space Diversity, Subcarrier Coordinate Interleaving, Nakagami-M Fading Channel, Rician Fading Channel

PERFORMANCE OF ORTHOGONAL FREQUENCY DIVISION MULTIPLEXING WITH SIGNAL SPACE DIVERSITY VIA SUBCARRIER COORDINATE INTERLEAVING OVER NAKAGAMI-M AND RICIAN FADING CHANNELS

Abstract

In this work, orthogonal frequency division
multiplexing technique is combined with signal space diversity and error
probability performance of the system is inspected for binary phase shift
keying modulation over slow frequency-selective Nakagami-m and Rician fading
channels. First, appropriate subcarrier coordinate interleaving techniques are
obtained based on the number of subcarriers, the number of resolvable
multipaths, and the fading parameters. It is shown that appropriate subcarrier
coordinate interleaving techniques under some of the investigated scenarios are
the same as the ones under the Rayleigh fading scenario. Subsequently, the bit
error rate of the studied system is compared with the bit error rate of the
original system. Further, it is demonstrated that the considered system
provides significant performance gain beyond the original orthogonal frequency
division multiplexing technique under different scenarios.

Keywords

Orthogonal Frequency Division Multiplexing, Signal Space Diversity, Subcarrier Coordinate Interleaving, Nakagami-M Fading Channel, Rician Fading Channel

References

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