3260 papers • 126 benchmarks • 313 datasets
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Both the residual signal of the linear acoustic echo cancellation system, and the output of the adaptive filter are adopted to form multiple streams for the Conv-TasNet, resulting in more effective echo suppression while keeping a lower latency of the whole system.
This work opens source two large datasets to train AEC models under both single talk and double talk scenarios, and opens source an online subjective test framework based on ITU-T P.808 for researchers to quickly test their results.
The proposed semi-blind source separation (SBSS) is based on the independence between the near-end signal and the reference signals, and is less sensitive to the mismatch of nonlinearity between the numerical and actual models.
The DTLN approach produces state-of-the-art performance on clean and noisy echo conditions reducing acoustic echo and additional noise robustly and outperforms the AEC-Challenge baseline by 0.30 in terms of Mean Opinion Score (MOS).
This paper proposes the Cross-Domain Echo-Controller (CDEC), submitted to the Interspeech 2021 AEC-Challenge, which achieves an overall MOS score of 3.80, while only using 2.1 million parameters at a system latency of 32ms.
This work enhances the ICASSP 2022 Acoustic Echo Cancellation Challenge by including mobile scenarios, adding speech recognition word accuracy rate as a metric, and making the audio 48 kHz.
Evaluation with simulated acoustic data confirms the benefit of the proposed joint AEC and beamforming filter estimation in comparison to updating both filters individually.
The recently proposed semi-blind source separation (SBSS) method for nonlinear acoustic echo cancellation (NAEC) outperforms adaptive NAEC in attenuating the nonlinear acoustic echo. However, the multiplicative transfer function (MTF) approximation makes it unsuitable for real-time applications, especially in highly reverberant environments, and the natural gradient makes it hard to balance well between fast convergence speed and stability. In this paper, two more effective SBSS methods based on auxiliary-function-based independent vector analysis (AuxIVA) and independent low-rank matrix analysis (ILRMA) are proposed. The convolutive transfer function approximation is used instead of the MTF so that a long impulse response can be modeled with a short latency. The optimization schemes used in AuxIVA and ILRMA are carefully regularized according to the constrained demixing matrix of NAEC. The experimental results validate significantly better echo cancellation performances of the proposed methods.
The proposed neural Kalman filtering (NKF), which uses neural networks to implicitly model the covariance of the state noise and observation noise and to output the Kalman gain in real-time, has superior convergence and re-convergence performance while ensuring low near-end speech degradation compared with the state-of-the-art model-based methods.
This work proposes a deep learning architecture with built-in self-attention based alignment, which is able to handle unaligned inputs, improving echo cancellation performance while simplifying the communication pipeline.
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