基于现成元件和SoC-FPGA的模拟-信息转换器

A. López-Parrado, Alexander Vera-Tasama, Juan Felipe Medina Lee, Duvier de Jesus Bohorquez-Palacio
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引用次数: 0

摘要

提出了一种基于随机解调器(RD)的100 mhz模拟-信息转换器(AIC)的设计与实现;为此,我们使用现成的组件来实现模拟前端,并使用SoC-FPGA芯片来实现数字硬件/软件子系统。模拟前端由一个混频器和一个低通滤波器组成,分别采用吉尔伯特单元和无源RC电路实现。硬件/软件子系统在SoC-FPGA芯片的现场可编程阵列(FPGA)和硬处理器系统(HPS)端实现,其中FPGA端实现RD管理硬件,HPS端实现频谱恢复算法。最后,验证结果表明,所设计的AIC可以恢复100 MHz带宽的稀疏信号,其中使用4 MHz的亚奈奎斯特速率以及两种压缩感知(CS)恢复算法。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Analog-to-Information Converter Based on Off-the-Shelf Components and SoC-FPGA
This paper presents design and implementation of a 100-MHz Analog-to-Information Converter (AIC) based on Random Demodulator (RD); for this purpose, we used off-the-shelf components to implement the analog front-end and a SoC-FPGA chip to implement the digital hardware/software subsystem. Analog front-end is composed of one mixer and one low-pass filter, which were implemented by using a Gilbert Cell and a passive RC circuit, respectively. Hardware/software sub-system was implemented on the Field Programmable Array (FPGA) and Hard Processor System (HPS) sides of the SoC-FPGA chip, where FPGA side was used to implement the hardware that manages RD and HPS side was used to implement spectrum recovery algorithms. Finally, verification results showed that designed AIC can recover sparse signals of 100 MHz bandwidth, where a sub-Nyquist rate of 4 MHz is used along with two Compressive Sensing (CS) recovery algorithms.
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