一种用于入耳式耳机的前馈FxLMS有源降噪节能电路设计

Hong-Son Vu, Kuan-Hung Chen, Shih-Feng Sun, Tien-Mau Fong, Che-Wei Hsu, Lei Wang
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引用次数: 10

摘要

传统的主动降噪耳机在降低低频噪声和通过耳罩被动隔离高频噪声方面表现良好。这些系统通常使用高速数字信号处理器(dsp)来消除如此低频率的干扰噪声,这导致商用ANC耳机的高功耗。本文提出了一种基于滤波最小均方(FxLMS)自适应算法的高性能前馈ANC架构,并实现了相应的高性能低功耗电路设计。实验结果表明,所提出的高性能电路设计可以很好地降低各频段的干扰噪声,优于现有的工作。采用台积电90nm CMOS工艺制作后,在10mhz时钟频率下工作时,该设计可以以84.2 k栅极和6.42 mW的功耗衰减50-1500 Hz的宽带粉红噪声15 dB。
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A power-efficient circuit design of feed-forward FxLMS active noise cancellation for in-ear headphones
Conventional active noise cancelling (ANC) headphones perform well in reducing the low-frequency noise and isolate high-frequency noise by earmuffs passively. These systems often use high-speed digital signal processors (DSPs) to cancel out the disturbing noise at such low frequencies, which result in a high-power dissipation for a commercial ANC headphone. This paper proposes a high-performance feedforward ANC architecture and implements a high-performance low power circuit design accordingly based on the filtered-x least mean square (FxLMS) adaptive algorithm. Experimental results show that the proposed high-performance circuit design can reduce disturbing noise of various frequency bands very well, and outperforms the existing works. After fabricating by using the TSMC 90nm CMOS technology, the proposed design can attenuate 15 dB for the broadband pink noise between 50-1500 Hz when operated at 10 MHz clock frequency at the costs of 84.2 k gates and power consumption of 6.42 mW only.
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