A dynamic optimal decoupling controller design for a multi-variable system with stability analysis: an algebraic approach.
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| Title: | A dynamic optimal decoupling controller design for a multi-variable system with stability analysis: an algebraic approach. |
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| Authors: | Mahapatro, Soumya Ranjan1 (AUTHOR) mahapatro.soumya@gmail.com, Mahapatra, Subhashish2 (AUTHOR), Govinda, Achu2 (AUTHOR), Mahapatra, Ranjan Kumar3 (AUTHOR) |
| Source: | International Journal of Modelling & Simulation. Feb2026, Vol. 46 Issue 1, p272-285. 14p. |
| Subjects: | PID controllers, Robust stability analysis, Scientific method, Feedback control system stability, Closed loop systems, Robust control, Feedback control systems |
| Abstract: | This study describes the design and implementation of an algebraic approach for a dynamic optimal decoupling controller in a multi-variable liquid-level system. This method aligns with model-matching criteria and the frequency-matching technique. The prime objective of the proposed approach is to create a closed-loop feedback system using a PID controller that aligns with a user-defined linear system model in terms of both system dynamics and static behavioral response. To illustrate robust stability, the study incorporates multiplicative input and output uncertainty. Simulation results verify the efficacy of the proposed decentralized controller, presenting its effectiveness in achieving both set-point accuracy and disturbance attenuation. Furthermore, the study employs disk margin analysis to ascertain safe ranges for gain and phase margin. [ABSTRACT FROM AUTHOR] |
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| Database: | Engineering Source |
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| Abstract: | This study describes the design and implementation of an algebraic approach for a dynamic optimal decoupling controller in a multi-variable liquid-level system. This method aligns with model-matching criteria and the frequency-matching technique. The prime objective of the proposed approach is to create a closed-loop feedback system using a PID controller that aligns with a user-defined linear system model in terms of both system dynamics and static behavioral response. To illustrate robust stability, the study incorporates multiplicative input and output uncertainty. Simulation results verify the efficacy of the proposed decentralized controller, presenting its effectiveness in achieving both set-point accuracy and disturbance attenuation. Furthermore, the study employs disk margin analysis to ascertain safe ranges for gain and phase margin. [ABSTRACT FROM AUTHOR] |
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| ISSN: | 02286203 |
| DOI: | 10.1080/02286203.2024.2331834 |
