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NeuralKalman: A Learnable Kalman Filter for Acoustic Echo Cancellation
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The robustness of the Kalman filter to double talk and its rapid convergence make it a popular approach for addressing acoustic echo cancellation (AEC) challenges. However, the inability to model nonlinearity and the need to tune control parameters cast limitations on such adaptive filtering algorithms. In this paper, we integrate the frequency domain Kalman filter (FDKF) and deep neural networks (DNNs) into a hybrid method, called NeuralKalman, to leverage the advantages of deep learning and adaptive filtering algorithms. Specifically, we employ a DNN to estimate nonlinearly distorted far-end signals, a transition factor, and the nonlinear transition function in the state equation of the FDKF algorithm. Experimental results show that the proposed NeuralKalman improves the performance of FDKF significantly and outperforms strong baseline methods.
Forward citations
Cited by 3 Pith papers
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Room Impulse Response as a Prompt for Acoustic Echo Cancellation
Feeding a measured room impulse response into a neural acoustic echo canceller, especially as a synthesized echo input, improves its performance on unseen and real rooms.
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Attention-Enhanced Short-Time Wiener Solution for Acoustic Echo Cancellation
An attention-gated short-time Wiener filter is fed as an extra feature into an ICCRN acoustic echo cancellation network, improving reported PESQ, SDR, and MOS ECHO scores.
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Neural Kalman Filters for Acoustic Echo Cancellation
A unified benchmark shows DNN-supported Kalman filters for acoustic echo cancellation converge faster and cancel more echo than the classical FDKF, with per-bin methods best preserving near-end speech.
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