Speed Control of Separately Excited D.C. Motor using Self-Tuned Parameters of PID Controller
Main Article Content
Abstract
This paper presents a simulation and hardware implementation of a closed loop
control of a separately excited D.C. motor using a self-tuning PID controller. The PID
controller design is based on using the Field Programmable Analog Array (FPAA)
technology. Parameters tuning of the PID controller is achieved by using the genetic
algorithm (GA). The FPAA controller based technology gives the advantage of low
power, no quantization noise, high bandwidth and high speed response. The practical
results show that a self-tuning controller can outperform a hand-tuned solution and
demonstrate adaptability to plant drift; also it gives very acceptable results in the
reduction of overshoot, stability time and the steady-state transient response of the
controlled plant.
Article Details
Section

This work is licensed under a Creative Commons Attribution 4.0 International License.
THIS IS AN OPEN ACCESS ARTICLE UNDER THE CC BY LICENSE http://creativecommons.org/licenses/by/4.0/
References
Mohamed. S. Haji Ali, Maan M.
Shaker and Thair A. Salih, "Design
and Implementation of a Dynamic
Analog Matched Filter Using FPAA
Technology", World Academy of
Science, Engineering and
Technology, vol. 48, pp.206-210,
Loan Lita, Daniel Alexandru Visan,
Ion Bogdan Cioe, “FPAA based
PID controller with applications in
the nuclear domain”, 32nd
International Spring Seminar on
Electronics Technology, pp. 1-4,
Li Xu-zhou, Yu Fei, Wang Youbo,”
PSO Algorithm based Online
Self-Tuning of PID Controller”,
International Conference on
Computational Intelligence and
Security, pp. 128-132, 2007.
Mohammed Obaid Ali, S. P. Koh,
K. H. Chong, S.K.Tiong and Zeyad
Assi Obaid, “Genetic Algorithm
Tuning Based PID Controller for
Liquid-Level Tank System”,
Proceedings of the International
Conference on Man-Machine
Systems, 2009.
Yongbin Ma,Yongxin Liu,Cun
Wang, "Design of Parameters Selftuning
Fuzzy PID Control for DC
Motor". The 2nd International
Conference on Industrial
Mechatronics and Automation, pp.
-348, 2010.
Timothy L. Skvarenina, "The Power
Electronics Handbook”, Industrial
Electronics Series, CRC Press LLC.
ISBN 0-8493-7336-0, 2002.
Philips Semiconductors, datasheet
of the CMOS 8-bit ADC0804
converters, 2002.