Hardware/software co-design techniques for compass search self-tuning PID controller in DC drive applications

Nawfal N. Al-Saaty, M. Algreer, M. Armstrong
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引用次数: 2

Abstract

This paper presents the development of a self-tuning digital controller for DC motor applications, specifically designed using hardware/software co-design techniques. Two tuning structures are investigated and then implemented, both reliant on a compass direct search algorithm. The developed structures overcome many of the typical limitations of classical self-tuning methods; such as computation complexity, simplicity of adaptation, and ease of real-time tuning. The self-tuning processes are based on measuring the closed loop impulse response by injecting an excitation signal and comparing the measured signal with the desired ideal impulse response. Optimal PID parameters are achieved once the measured and the desired impulse response are matched. Special focus is given on rapid implementation of the presented on-line tuning mechanism for the digital PID controller using the National Instruments-RIO architecture and LabVIEW-FPGA design tools. Validation of the self-tuning and hardware/software co-design approach is demonstrated on an experimental position controlled DC motor drive application.
直流驱动中罗盘搜索自整定PID控制器的软硬件协同设计技术
本文介绍了一种用于直流电机应用的自调谐数字控制器的开发,专门使用硬件/软件协同设计技术进行设计。研究并实现了两种调谐结构,它们都依赖于罗盘直接搜索算法。所开发的结构克服了经典自调谐方法的许多典型局限性;例如计算复杂性、适应性的简单性和实时调优的便利性。自整定过程的基础是通过注入激励信号来测量闭环脉冲响应,并将测量信号与期望的理想脉冲响应进行比较。一旦测量的脉冲响应与期望的脉冲响应相匹配,就可以实现最优PID参数。特别关注的是使用美国国家仪器公司- rio架构和LabVIEW-FPGA设计工具快速实现数字PID控制器的在线调谐机制。在位置控制直流电机驱动的实验应用中,验证了自调谐和软硬件协同设计方法。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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