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引用次数: 1

摘要

我们介绍、设计并评估了一套通用接收机波束形成技术。我们的方法和系统DEFORM是一种基于深度学习(DL)的RX波束形成,可为多天线射频接收器实现显着增益,同时不受传输信号特征(例如调制或带宽)的影响。众所周知,组合来自多个天线的相干射频信号会产生与接收元件数量成正比的波束形成增益。然而,在实践中,这种方法严重依赖于显式信道估计技术,这是特定于链路的,需要大量的通信开销才能传输到接收器。DEFORM通过利用卷积神经网络来估计信道特性,特别是天线元件的相对相位,从而解决了这一挑战。它是专门设计来解决无线信号复杂样本的独特特点,如模糊的2π相位不连续和高灵敏度的链路误码率。信道预测随后用于最大比率组合算法,以实现接收信号的最优组合。在固定的基本RF设置上进行训练时,我们证明了DEFORM的DL模型是通用的,在广泛的评估中实现了双天线接收器高达3db的信噪比增益,展示了各种调制和带宽设置。
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Universal Beamforming: A Deep RFML Approach
We introduce, design, and evaluate a set of universal receiver beamforming techniques. Our approach and system DEFORM, a Deep Learning (DL)-based RX beamforming achieves significant gain for multi-antenna RF receivers while being agnostic to the transmitted signal features (e.g., modulation or bandwidth). It is well known that combining coherent RF signals from multiple antennas results in a beamforming gain proportional to the number of receiving elements. However in practice, this approach heavily relies on explicit channel estimation techniques, which are link specific and require significant communication overhead to be transmitted to the receiver. DEFORM addresses this challenge by leveraging Convolutional Neural Network to estimate the channel characteristics in particular the relative phase to antenna elements. It is specifically designed to address the unique features of wireless signals complex samples, such as the ambiguous 2π phase discontinuity and the high sensitivity of the link Bit Error Rate. The channel prediction is subsequently used in the Maximum Ratio Combining algorithm to achieve an optimal combination of the received signals. While being trained on a fixed, basic RF settings, we show that DEFORM's DL model is universal, achieving up to 3 dB of SNR gain for a two-antenna receiver in extensive evaluation demonstrating various settings of modulations and bandwidths.
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