LiSenNet: Lightweight Sub-band and Dual-Path Modeling for Real-Time Speech Enhancement
Haoyin Yan, Jie Zhang, Cunhang Fan, Yeping Zhou, Peiqi Liu

TL;DR
LiSenNet is a lightweight, real-time speech enhancement network that uses sub-band and dual-path modeling to achieve competitive performance with significantly reduced computational complexity, suitable for low-resource edge devices.
Contribution
The paper introduces LiSenNet, a novel lightweight SE model with sub-band and dual-path modules, and a noise detector for adaptive processing, reducing model size and computation.
Findings
Achieves competitive speech enhancement performance
Uses only 37k parameters, half of state-of-the-art models
Requires 56M MACs per second, suitable for real-time edge deployment
Abstract
Speech enhancement (SE) aims to extract the clean waveform from noise-contaminated measurements to improve the speech quality and intelligibility. Although learning-based methods can perform much better than traditional counterparts, the large computational complexity and model size heavily limit the deployment on latency-sensitive and low-resource edge devices. In this work, we propose a lightweight SE network (LiSenNet) for real-time applications. We design sub-band downsampling and upsampling blocks and a dual-path recurrent module to capture band-aware features and time-frequency patterns, respectively. A noise detector is developed to detect noisy regions in order to perform SE adaptively and save computational costs. Compared to recent higher-resource-dependent baseline models, the proposed LiSenNet can achieve a competitive performance with only 37k parameters (half of the…
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Taxonomy
TopicsSpeech and Audio Processing · Speech Recognition and Synthesis · Infant Health and Development
