Design and Implementation of a Neural Network Aided Self-Interference Cancellation Scheme for Full-Duplex Radios
Yann Kurzo, Andreas Burg, Alexios Balatsoukas-Stimming

TL;DR
This paper presents a neural network-based self-interference cancellation scheme for full-duplex radios, demonstrating higher throughput and resource efficiency compared to traditional polynomial methods.
Contribution
It introduces a novel hardware architecture for neural network-based non-linear self-interference cancellation in full-duplex radios.
Findings
Neural network canceller achieves comparable cancellation performance to polynomial methods.
Neural network implementation requires fewer hardware resources.
Neural network canceller has significantly higher throughput.
Abstract
In-band full-duplex systems are able to transmit and receive information simultaneously on the same frequency band. Due to the strong self-interference caused by the transmitter to its own receiver, the use of non-linear digital self-interference cancellation is essential. In this work, we present a hardware architecture for a neural network based non-linear self-interference canceller and we compare it with our own hardware implementation of a conventional polynomial based canceller. We show that, for the same cancellation performance, the neural network canceller has a significantly higher throughput and requires fewer hardware resources.
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Taxonomy
TopicsFull-Duplex Wireless Communications · Radar Systems and Signal Processing · Electromagnetic Compatibility and Measurements
