MIMO scheme performance and detection in epsilon noise
Sander Stepanov

TL;DR
This paper introduces a new analysis and detection method for MIMO systems operating under epsilon noise, a non-Gaussian impulsive noise model, demonstrating significant performance differences from Gaussian assumptions and proposing robust detection algorithms.
Contribution
Develops a novel analysis and detection approach for MIMO systems in epsilon (impulsive) noise environments, highlighting the limitations of Gaussian-based methods and offering more robust detection algorithms.
Findings
Non-Gaussian epsilon noise degrades MIMO performance compared to Gaussian noise.
The proposed detection rule outperforms Gaussian-designed detectors in impulsive noise environments.
Algorithms achieve performance close to theoretical bounds under epsilon noise.
Abstract
New approach for analysis and decoding MIMO signaling is developed for usual model of nongaussion noise consists of background and impulsive noise named epsilon - noise. It is shown that non-gaussion noise performance significantly worse than gaussion ones. Stimulation results strengthen out theory. Robust in statistical sense detection rule is suggested for such kind of noise features much best robust detector performance than detector designed for Gaussian noise in impulsive environment and modest margin in background noise. Proposed algorithms performance are comparable with developed potential bound. Proposed tool, is crucial issue for MIMO communication system design, since real noise environment has impulsive character that contradict with wide used Gaussian approach, so real MIMO performance much different for Gaussian a non-Gaussian noise model.
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Taxonomy
TopicsPower Line Communications and Noise · Advanced Wireless Communication Techniques · Wireless Communication Networks Research
