Online partial discharge counting system using microcontroller PIC 16F877A and FPGA technology

Emilliano, C. Chakrabarty, Ahmad Basri Abdul Ghani, A. Ramasamy
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引用次数: 3

Abstract

This paper is purely a design circuit to implement Partial Discharge (PD) detection in FPGA technology using Xilinx ML405 board (Virtex 4) and real time ADC in microcontroller PIC 16F877A. The research involve ISE Simulator version 10.1i (Xilinx) and ISE Xilinx Synthesized Technology (XST) using Very high integrated circuit Hardware Description Language (VHDL) programming to evaluate the use of Field Programming Gate Array (FPGA) for the detection and counting of partial discharge signals in high voltage underground cable. The research also involve PCWH CCS C Compiler using C programming to run real time ADC in microcontroller PIC 16F877A. The impulse of PD signals is simulated by impulse generator in the lab simulation. The input data (PD signals) in high voltage underground cable have very fast rise time in the range of 1 ns to 2 ns in the real system. The speed clock of the real time ADC in microcontroller PIC is 20 MHz. This paper shows analysis data of ability of real time ADC in microcontroller PIC to measurement, detect and counting PD signal using FPGA technology. The combination of all blocks of PD detection circuit system is tested by using ISE Xilinx Synthesis Technology (XST) and ISE implementation. In the next stage, this method will be implemented on a next lab simulation scale using real PD signals that is detected by 3D magnetic probe sensor in real underground cable in laboratory for testing and validation before test in the real situation.
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局部放电在线计数系统采用单片机pic16f877a和FPGA技术
本文采用Xilinx ML405板(Virtex 4)和单片机PIC 16F877A中的实时ADC,在FPGA技术中实现局部放电(PD)检测的设计电路。该研究涉及ISE模拟器版本10.1i (Xilinx)和ISE Xilinx合成技术(XST),使用高集成电路硬件描述语言(VHDL)编程来评估现场编程门阵列(FPGA)在高压地下电缆局部放电信号检测和计数中的使用。本文还研究了PCWH CCS C编译器在单片机pic16f877a上使用C语言编程来运行实时ADC。在实验室仿真中,利用脉冲发生器模拟了PD信号的脉冲。在实际系统中,高压地下电缆输入数据(PD信号)的上升时间非常快,在1ns ~ 2ns范围内。单片机PIC中实时ADC的速度时钟为20mhz。本文给出了基于FPGA技术的单片机PIC实时ADC对PD信号的测量、检测和计数能力的分析数据。采用ISE Xilinx合成技术(XST)和ISE实现对PD检测电路系统各模块的组合进行了测试。下一阶段,该方法将在下一个实验室模拟规模上实施,使用三维磁探头传感器在实验室真实地下电缆中检测到的真实PD信号进行测试和验证,然后再进行真实情况下的测试。
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