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J. Gunasekaran et.al / IJOCTA, Vol.15, No.2, pp.354-367 (2025)
            Writing – review & editing:      Radhakrishnan    15. Wang Y, Tan W, Cui W. Tuning of linear ac-
            Thota Karunakaran                                     tive disturbance rejection controllers for second-
                                                                  order underdamped systems with time delay. ISA
                                                                  Trans. 2021;118:83–93.
            Availability of data                              16. Yi H, Wang PH, Zhao G. Fractional order ac-
                                                                  tive disturbance rejection control design for non-
            Data can be provided by the authors upon re-          integer order plus time delay models. Trans Inst
            quest.                                                Meas Control. 2023;45:1619–1633.
                                                              17. Nowak P, Czeczot J, Klopot T. Robust tuning of a
                                                                  first order reduced Active Disturbance Rejection
                                                                  Controller. Control Eng Pract 2018;74:44–57.
            References
                                                              18. Skupin P, Nowak P, Czeczot J. On the stabil-
              1. Han J. From PID to active disturbance rejection  ity of active disturbance rejection control for
                control. In: Transactions on Industrial Electron-  first-order plus delay time processes. ISA Trans.
                ics;2009:900–906.                                 2022;125:179–188.
              2. Gao Z, Huang Y, Han J. An alternative para-  19. Xue W, Huang Y. Performance analysis of ac-
                digm for control system design. Proceedings of    tive disturbance rejection tracking control for
                the IEEE Conference on Decision and Control       a class of uncertain LTI systems. ISA Trans.
                2001;5:4578–4585.                                 2015;58:133–154.
              3. Ahi  B,  Haeri  M.  Linear  Active  Distur-  20. Zhang B, Tan W, Li J. Tuning of linear active
                bance  Rejection  Control  from  the  Practi-     disturbance rejection controller with robustness
                cal Aspects. IEEE/ASME Trans Mechatron.           specification. ISA Trans. 2019;85:237–246.
                2018;23:2909–2919.                            21. Przybyla M, Kordasz M, Madonski R, Herman
              4. Herbst G. A simulative study on active distur-   P, Sauer P. Active Disturbance Rejection Con-
                bance rejection control (ADRC) as a control tool  trol of a 2DOF manipulator with significant mod-
                for practitioners. Electronics. 2013;2:246–279.   eling uncertainty. Bull Pol Acad Sci Tech Sci.
              5. Huang Y, Xue W. Active disturbance rejection     2012;60:509–520.
                control: Methodology and theoretical analysis.  22. Mart´ınez BV, Sanchis J, Garc´ıa-Nieto S, Mart´ınez
                ISA Trans. 2014;53:963–976.                       M. Tuning rules for active disturbance rejection
              6. Song J, Su J, Hu Y, Zhao M, Gao K. Stability and  controllers via multiobjective optimization—a
                performance comparison analysis for linear ac-    guide for parameters computation based on ro-
                tive disturbance rejection control–based system.  bustness. Mathematics. 2021;9:1–34.
                Trans Inst Meas Control. 2022;44:2037–2048.   23. Srikanth MV, Yadaiah N. Analytical tuning rules
              7. Fu C, Tan W. Tuning of linear ADRC with known    for second-order reduced ADRC with SOPDT
                plant information. ISA Trans. 2016;65:384–393.    models. ISA Trans. 2022;131:693–714.
              8. Jain S, Hote YV. Predictive generalised active dis-  24. Chen Z, Hao YS, Su Z gang, Sun L. Data-
                turbance rejection for load frequency control with  driven iterative tuning based active disturbance
                communication delay. Trans Inst Meas Control.     rejection control for FOPTD model. ISA Trans.
                2023;45:2027–2042.                                2022;128:593–605.
              9. Zhao S, Gao Z. Modified active disturbance rejec-  25. Herbst G, Hempel AJ, G¨ohrt T, Streif S. Half-
                tion control for time-delay systems. ISA Trans.   gain tuning for active disturbance rejection con-
                2014;53:882–888.                                  trol. In:  IFAC-PapersOnLine. Elsevier B.V.;
             10. Zheng Q, Gao Z. Predictive active disturbance re-  2020: 1319–1324.
                jection control for processes with time delay. ISA  26. Srikanth MV, Yadaiah N. Optimal parameter
                Trans. 2014;53:873–881.                           tuning of Modified Active Disturbance Rejec-
             11. Grelewicz P, Nowak P, Czeczot J, Musial J. In-   tion Control for unstable time-delay systems us-
                crement Count Method and Its PLC-Based Im-        ing an AHP combined Multi-Objective Quasi-
                plementation for Autotuning of Reduced-Order      Oppositional Jaya Algorithm. Appl Soft Comput
                ADRC with Smith Predictor. IEEE Trans Ind         J. 2020.
                Electron. 2021;68:12554–12564.                    https://doi.org/10.1016/j.asoc.2019.105881
             12. Sun L, Li D, Gao Z, Yang Z, Zhao S. Combined  27. He T, Wu Z, Li D, Wang J. A tuning method of
                feedforward and model-assisted active distur-     active disturbance rejection control for a class of
                bance rejection control for non-minimum phase     high-order processes. IEEE Trans Ind Electron.
                system. ISA Trans. 2016;64:24–33.                 2020;67:3191–3201.
             13. Zhang B, Tan W, Li J. Tuning of Smith predic-  28. Gao Z. Scaling and Bandwidth-Parameterization
                tor based generalized ADRC for time-delayed pro-  Based Controller Tuning.
                cesses via IMC. ISA Trans. 2020;99:159–166.   29. Astrom KJ, Hagglund T. PID Controllers: The-
             14. Torrico  BC,  Pereira  RDO,  Sombra  AKR,        ory, Design, and Tuning, 2nd ed. ISA - The In-
                Nogueira FG. Simplified filtered Smith predictor  strumentation, Systems and Automation Society,
                for high-order dead-time processes. ISA Trans.    Research Triangle Park, North Carolina, USA;
                2021;109:11–21.                                   1995.
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