用于有效处理音频信号的高衰减电磁接口滤波器

Dasari Lakshmi Prasanna, S. Tripathi, Mufti Mahmud, Inung Wijayanto
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引用次数: 0

摘要

抑制原始信号中的噪声或无用信号可使系统高效工作。电磁干扰(EMI)会导致系统/设备丢失数据、损坏电子设备、中断音频或视频信号、导致接收不良等。EMI 滤波器广泛应用于电信、军事设备、卫星通信等领域。在工业领域,EMI 滤波器用于家用电器、医疗设备、电机控制、测试设备等。本文设计了有源和无源 EMI 滤波器,以避免或衰减 EMI 或噪声(不需要的 EMI 信号),并在 Xilinx Nexys 4 Artix 7 FPGA 板上实现。这些滤波器大大改善了 EMI 的衰减效果。滤波器采用 MATLAB 工具设计,对不需要的信号有很强的抗干扰能力,稳定性更好,频率范围广。根据滤波器系数的不同,频率响应也会发生变化。计算 EMI 滤波器的相位响应和振幅响应。有源滤波器的插入损耗为 1.5836,无源滤波器的插入损耗为 1.9382。有源和无源滤波器的增益分别为 0.7359 和 0.912。有源和无源 EMI 滤波器的回波损耗均为 20dB。使用 MATLAB 生成 HDL 代码,以便在 FPGA 上实现滤波器。使用 MATLAB HDL 编码器实现滤波器是一项新技术,它简化了设计,从而缩短了开发时间。有源滤波器的实现使用了 Xilinx Vivado 工具。片上总功耗为 0.146W。动态功耗为 0.049W,器件静态功耗为 0.097W。与之前的滤波器实现相比,LUT 和片寄存器的利用率更低,从而降低了硬件实现的成本。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
High attenuation electromagnetic interface filter for effective processing of audio signals
Suppressing the noise or unwanted signal from the raw signal makes the system work efficiently. Electromagnetic interface (EMI) can cause the system/device to lose the data, damage the electronic equipment, interrupt the audio, or video signals, lead to poor reception, etc. EMI filters are used in telecommunications, military equipment, satellite communication, etc. At the industry level, EMI filters are used for home appliances, medical equipment, motor controls, test equipment, etc. In this paper, active and passive EMI filters are designed to avoid or attenuate EMI or noise (unwanted EMI signal) and implemented on Xilinx Nexys 4 Artix 7 FPGA board. The filters provide a significant improvement in the attenuation of the EMI. MATLAB tool is used to design the filters, which are highly immune to undesired signals, give better stability, and perform over a wide range of frequencies. Depending on the filters' coefficients, the frequency response will be changed. Phase response and amplitude response of the EMI filters are calculated. Insertion loss of the active filter is 1.5836, and for the passive filter, 1.9382. The gain of active and passive filters is 0.7359 and 0.912 respectively. The return loss of the active and passive EMI filters is 20dB. HDL code is generated using MATLAB for the implementation of filter on FPGA. Using MATLAB HDL coder for implementing is new and it simplifies the design, as a result development time is reduced. Xilinx Vivado tool is used for the implementation of active filter. The total on-chip power is 0.146W. Dynamic power is 0.049W, and device static power is 0.097W. The utilization of LUTs and slice registers are less, compared to the previous filter implementation, which leads to reduce the cost of hardware implementation.
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