用fpga实现低成本个人电子实验室设备的案例

IF 1.7 Q3 COMPUTER SCIENCE, INTERDISCIPLINARY APPLICATIONS
Timothy Olanrewaju Adegbite, Olawale Babatunde Akinwale
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引用次数: 0

摘要

可重构计算领域正在获得大量关注,并为此开发了几个用例。在可重构计算的中心是现场可编程门阵列(FPGA)由于其计算速度和多功能性。这里报告的工作目标是表明单个FPGA板与计算机显示器配对可以作为资金紧张的教育机构或个人的唯一实验室设备。一个Terasic DE1-SoC板被编程为示波器和数字万用表。为了保持本工作的低成本主题,没有使用外部信号调理电路,而是使用板载LTC2308 ADC进行信号采集。在低于15 kHz的频率下,所开发的FPGA实验室仪器的电压测量平均误差为58 mV。电压测量误差随频率的增加而增大,当信号频率超过100 kHz时误差显著。在使用FPGA取代多个实验室仪器方面,FPGA上13%的dsp用于实现,80%的自适应逻辑模块用于实现。因此,我们证明了300美元,多个实验室设备可以由单个FPGA板和监视器取代。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
A Case for Low-Cost Personal Electronic Laboratory Equipment using FPGAs
The field of reconfigurable computing is gaining a lot of following, and several use cases have been developed for it. At the centre of reconfigurable computing is the field programmable gate array (FPGA) due to its computational speed and versatility. The goal of the work reported here was to show that a single FPGA board paired with a computer monitor can be used as the sole laboratory equipment in a cash-strapped educational institution or by an individual. A Terasic DE1-SoC board was programmed as an oscilloscope, and digital multimeter. In keeping with the low-cost theme of this work, no external signal conditioning circuit was used and the on-board LTC2308 ADC was used for signal acquisition. At frequencies below 15 kHz, the voltage measurements of the developed FPGA lab instrument had a mean error of 58 mV. The voltage measurement errors, however, increased with an increase in frequency and the errors were significant when the signal frequencies exceeded 100 kHz. In terms of the use of the FPGA to replace multiple lab instruments, 13% of the DSPs on the FPGA were used for the implementation and 80% of the Adaptive logic modules. We therefore demonstrate that with $300 dollars, multiple pieces of laboratory equipment can be replaced by a single FPGA board and a monitor.
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来源期刊
CiteScore
4.00
自引率
46.20%
发文量
143
审稿时长
12 weeks
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