Experimental Application of Global Fast Terminal Sliding Mode Controller to TITO System

Main Article Content

M.G. Ghogare
S.L. Patil
C. Y. Patil
L.R. Chaudhari

Abstract

Comprehensive analysis of a global fast terminal sliding mode control strategy (GFTSMC) for the multivariable laboratory level control system is presented in this paper. The performance of conventional sliding mode controller strategies experiences chattering as switching control input contains the sgn’ function and singularity issues. Moreover, the performance is degraded due to parametric uncertainties and external disturbances. Robustness issues are not well defined in conventional strategies. Global fast terminals remove the chattering effect and eliminate the singularity problem. It has a shorter convergence time and better reaching precision. It shows the finite-time convergence of output variables to the command input. Indirect stability is guaranteed using the direct Lyapunov function. To elicit the performance of the proposed strategy, simulation tests have been conducted on the wood-berry distillation process, while the experimental tests are carried out on a laboratory multivariable process control system. The performance of the proposed strategy is compared to that of conventional sliding mode control and fast terminal sliding mode control.

Article Details

How to Cite
Ghogare, M., Patil, S., Patil, C. Y. ., & Chaudhari, L. (2023). Experimental Application of Global Fast Terminal Sliding Mode Controller to TITO System. ECTI Transactions on Electrical Engineering, Electronics, and Communications, 21(2), 249727. https://doi.org/10.37936/ecti-eec.2023212.249727
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Author Biographies

M.G. Ghogare, College of Engineering Pune, India

M. G. Ghogare completed B. E. in Instrumentation Engineering in 2000 and M. E. in
Instrumentation and Control Engineering in 2009. He completed his Ph.D in 2021 from
College of Engineering Pune in Instrumentation and Control Engineering. His research areas include Control Systems and Signal Processing. He has published papers in International Journals and Conferences. Presently he is working as a Assistant Professor in Instrumentation Engineering department at Dr. D. Y. Patil Institute of Technology, Pune.

S.L. Patil, College of Engineering Pune

S. L. Patil is a Professor, Dean Alumni and International relations at College of Engineering Pune, India. He has completed his PhD from IIT Delhi in 2009. His research focuses on power electronics, power converters, power converter control, process instrumentation, biomedical instrumentation and signal processing. He has more that 28 years of teaching and research experience.

C. Y. Patil, Department of Instrumentation and Control at College of Engineering Pune

C. Y. Patil C. Y. Patil received the B.E. in Instrumentation Engineering in 1991, M.Tech.
i Instrumentation and Control Engineering in 1998, and Ph.D, in 2010. He is presently
working as a Professor in the Department of Instrumentation and Control at College
of Engineering Pune, India. His research interests include soft computing, signals and
systems and digital signal processing.

L.R. Chaudhari, Department of Instrumentation and Control at Dr. D. Y. Patil Institute of Technology, Pimpri, Pune

L. R. Chaudhari received the B.E. in Instrumentation Engineering from D. N. Patel College of Engineering, Shahada, Dist: Nanadurbar, Maharashtra State, India, in 1996
and M.Tech. degree from SGGS, Institute of Technology, Nanaded, Maharashtra, India in 1998. He is presently working as a Assistant Professor in the Department of Instrumentation and Control at Dr. D. Y.
Patil Institute of Technology, Pimpri, Pune, India. His research interests include Process Control, Control Systems, IOT

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