Embedded System Real Time Data Acquisition System Using FPGA Technology for Detection and Counting of PD Signal from PICO Pulse Generator

Emilliano, C. Chakrabarty, A. Basri, A. Ramasamy, N. Suhendi
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Abstract

The FPGA (Field Programmable Gate Array) technology is widely used today for signal processing and control owing to its fast digital processing capabilities. Using this, a test-bed high-speed data acquisition system that combines a commercial FPGA board (ML405) with the ADC in PIC micro-controller 16F877A that has 8 bit in resolution, sampling rate of 20 MS/s and bandwidth of 10 MHz for counting very high speed transient signals has been developed and successfully tested in the lab. This system enables direct measurement and counting of the transient signals at 50–100 ns pulse width at a sampling frequency 20MHz from Pico pulse generator as simulator of Partial Discharge signals on the site. All the results are shown to proof the concept for detecting partial discharge with pulse width of 5 ns in high power underground cables. The advantage of this system is that it can easily be deployed and count simulated Partial Discharge signal without the use of an oscilloscope and PC. The work in this paper comprises of using VHDL programming in FPGA to capture and discriminate the high-speed transient signals that has been digitized by the ADC in PIC micro-controller. In implementation of the test in the laboratory for the detection circuit, it is shown that it can detect the amount of impulses quite accurately. This is shown in PD detector system whereby LCD reads 84,746 impulses per second when it was set at 84.746 KHz repetitive using Pico pulse generator. The result show that the output peak detector can detect peak signal from input signal of the ADC when the pulse width of PD signal more than 30 ns using the ADC of the PIC Microcontroller 16F877A. Several features such as counting and discrimination between pulses are integrated in the system are also shown. This concept will be used in the future to detect real partial discharge generated in high power underground cables in the field.
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基于FPGA技术的嵌入式系统实时数据采集系统对PICO脉冲发生器PD信号的检测与计数
FPGA(现场可编程门阵列)技术由于其快速的数字处理能力而被广泛应用于信号处理和控制。在此基础上,开发了一种8位分辨率、20 MS/s采样率、10 MHz带宽的高速数据采集试验台系统,该系统将商用FPGA板(ML405)与PIC微控制器16F877A中的ADC相结合,用于计数高速瞬态信号,并在实验室中成功进行了测试。该系统可直接测量和计数50 - 100ns脉冲宽度的瞬态信号,采样频率为20MHz,来自Pico脉冲发生器,作为现场局部放电信号模拟器。所有结果都证明了在高功率地下电缆中检测脉冲宽度为5ns的局部放电的概念。该系统的优点是它可以很容易地部署和计数模拟局部放电信号,而无需使用示波器和PC机。本文的工作包括在FPGA上使用VHDL编程,对PIC微控制器中的ADC数字化后的高速瞬态信号进行捕获和判别。在实验室对该检测电路进行了测试,结果表明,该电路能较准确地检测出脉冲量。这显示在PD检测器系统中,其中LCD读取84,746脉冲每秒当它被设置在84.746千赫重复使用Pico脉冲发生器。结果表明,采用PIC单片机16F877A的ADC,当PD信号脉宽大于30 ns时,输出峰值检测器可以检测到ADC输入信号中的峰值信号。该系统还集成了脉冲计数和脉冲识别等功能。该概念将在未来用于现场检测大功率地下电缆产生的真实局部放电。
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