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IOSS Criterion for Lipschitz Nonlinear Fixed Point Discrete -Time Systems Employing External Interference and Saturation Overflow

Author(s): Swagatika Nayak1, Smita Rani Parija2, Pushpendra Kumar Gupta3, V. Krishna Rao Kandanvli4

Publisher : FOREX Publication

Published : 30 June 2026

e-ISSN : 2347-470X

Page(s) : 572-580




Swagatika Nayak, Department of Electronics and Communication Engineering, C. V. Raman Global University, Bhubaneswar, Odish; Email: swagatikanayak06@gmail.com

R. Dhanalakshmi, Department of Electronics and Communication Engineering, C. V. Raman Global University, Bhubaneswar, Odisha; Email: smitaparija@gmail.com

Rambabu Busi,Department of Electronics and Communication Engineering, C. V. Raman Global University, Bhubaneswar, Odisha; Email: pushpendranit30@gmail.com

V. Krishna Rao Kandanvli,Department of Electronics and Communication Engineering, Motilal Nehru National Institute of Technology Allahabad, Prayagraj-211004, India; Email: krishnaraonit@yahoo.co.in

    [1] Coulon R, Dumazert J, Kondrasovs V, Normand S. Implementation of a nonlinear filter for online nuclear counting. Radiation Measurements. 2016 Apr 1;87:13-23.
    [2] Dey A, Kokil P, Kar H. Stability of two-dimensional digital filters described by the Fornasini–Marchesini second model with quantisation and overflow. IET signal processing. 2012 Sep 14;6(7):641-7.
    [3] Pitas I, Venetsanopoulos AN. Nonlinear digital filters: principles and applications. Springer Science & Business Media; 2013 Mar 14.
    [4] Wu S, Li R, Liu X, Yang L, Zhu M. Experimental study of thin wall milling chatter stability nonlinear criterion. Procedia CIRP. 2016 Jan 1;56:422-7.
    [5] Antoniou A. Digital Filters: Analysis, Design, and Signal Processing Applications, McGraw-Hill Education.
    [6] Sontag ED. Smooth stabilization implies coprime factorization. IEEE transactions on automatic control. 1989;34(4):435-43.
    [7] Tadepalli SK, Kandanvli VK, Vishwakarma A. Criteria for stability of uncertain discrete-time systems with time-varying delays and finite wordlength nonlinearities. Transactions of the Institute of Measurement and Control. 2018 Jun;40(9):2868-80.
    [8] Claasen TA, Mecklenbräuker WF, Peek JB. Second-order digital filter with only one magnitude-truncation quantiser and having practically no limit cycles. Electronics Letters. 1973 Nov 1;9(22):531-2.
    [9] Agarwal N, Kar H. Overflow oscillation-free realization of digital filters with saturation. COMPEL-The international journal for computation and mathematics in electrical and electronic engineering. 2018 Nov 22;37(6):2050-66.
    [10] Kar H. An improved version of modified Liu–Michel's criterion for global asymptotic stability of fixed-point state-space digital filters using saturation arithmetic. Digital Signal Processing. 2010 Jul 1;20(4):977-81.
    [11] Kumar MK, Kar H. ISS criterion for the realization of fixed-point state-space digital filters with saturation arithmetic and external interference. Circuits, Systems, and Signal Processing. 2018 Dec;37(12):5664-79.
    [12] Rout J, Kar H. ISS criterion for Lipschitz nonlinear interfered fixed-point digital filters with saturation overflow arithmetic. Circuits, Systems, and Signal Processing. 2022 Feb;41(2):1038-51.
    [13] Krichman M, Sontag ED, Wang Y. Input-output-to-state stability. SIAM Journal on Control and Optimization. 2001;39(6):1874-928.
    [14] Ahn CK. IOSS criterion for the absence of limit cycles in interfered digital filters employing saturation overflow arithmetic. Circuits, Systems, and Signal Processing. 2013 Jun;32(3):1433-41.
    [15] Kokil P, Shinde SS. Asymptotic stability of fixed-point state-space digital filters with saturation arithmetic and external disturbance: an IOSS approach. Circuits, Systems, and Signal Processing. 2015 Dec;34(12):3965-77.
    [16] Kumar MK, Kokil P, Kar H. A new realizability condition for fixed-point state-space interfered digital filters using any combination of overflow and quantization nonlinearities. Circuits, Systems, and Signal Processing. 2017 Aug;36(8):3289-302.
    [17] Rani P, Kokil P, Kar H. l 2-l∞ suppression of limit cycles in interfered digital filters with generalized overflow nonlinearities. Circuits, Systems, and Signal Processing. 2017 Jul;36(7):2727-41.
    [18] Agarwal N, Kar H. An improved criterion for the global asymptotic stability of 2-D state-space digital filters with finite wordlength nonlinearities. Signal processing. 2014 Dec 1;105:198-206.
    [19] Boyd S, El Ghaoui L, Feron E, Balakrishnan V. Linear matrix inequalities in system and control theory. Society for industrial and applied mathematics; 1994 Jan 1.
    [20] Lofberg J. YALMIP: A toolbox for modeling and optimization in MATLAB. In2004 IEEE international conference on robotics and automation (IEEE Cat. No. 04CH37508) 2004 Sep 2 (pp. 284-289). IEEE.
    [21] Cai C, Teel AR. Input–output-to-state stability for discrete-time systems. Automatica. 2008 Feb 1;44(2):326-36.
    [22] Liu D, Michel AN. Asymptotic stability of discrete-time systems with saturation nonlinearities with applications to digital filters. IEEE Transactions on Circuits and Systems I: Fundamental Theory and Applications. 2002 Aug 6;39(10):798-807.
    [23] Ahn CK. Two new criteria for the realization of interfered digital filters utilizing saturation overflow nonlinearity. Signal Processing. 2014 Feb 1;95:171-6.
    [24] Butterweck HJ, Ritzerfeld JH, Werter MJ. Finite wordlength effects in digital filters: a review. Eindhoven University of Technology; 1988.
    [25] Arif I, Rehan M, Tufail M. Toward local stability analysis of externally interfered digital filters under overflow nonlinearity. IEEE Transactions on Circuits and Systems II: Express Briefs. 2016 Jul 12;64(5):595-9.
    [26] Gupta PK, Singh K, Kandanvli VK. Further results on delay-dependent stability analysis of uncertain discrete-time systems exerting generalized overflow nonlinearities and time-varying delays. InInternational Conference on VLSI, Communication and Signal processing 2020 Oct 9 (pp. 1081-1100). Singapore: Springer Nature Singapore.
    [27] Singh S, Kar H. Realisation of overflow oscillation-free fixed-point digital filters with 2’s complement arithmetic. International Journal of Electronics Letters. 2022 Oct 2;10(4):436-46.
    [28] Kar H. An LMI based criterion for the nonexistence of overflow oscillations in fixed-point state-space digital filters using saturation arithmetic. Digital Signal Processing. 2007 May 1;17(3):685-9.
    [29] Parthipan CG, Arockiaraj XS, Kokil P. New passivity results for the realization of interfered digital filters utilizing saturation overflow nonlinearities. Transactions of the Institute of Measurement and Control. 2018 Nov;40(15):4246-52.
    [30] Singh VI. Elimination of overflow oscillations in fixed-point state-space digital filters using saturation arithmetic. IEEE Transactions on Circuits and Systems. 1990 Jun;37(6):814-8.
    [31] Kanithi SK, Kandanvli VK, Kar H. Limit cycle-free realization of interfered discrete-time systems with time-varying delay and saturation. Journal of Control, Automation and Electrical Systems. 2024 Jun;35(3):461-73.
    [32] Kanithi SK, Singh K, Kandanvli VK, Kar H. Discrete-time state delayed systems with saturation arithmetic: Overflow oscillation-free realization. Smart Science. 2024 Jan 2;12(1):43-52.
    [33] Pandey S, Tadepalli SK, Bhusnur S, Nigam R. Improved stability and passivity results for discrete time-delayed systems with saturation nonlinearities and external disturbances. Circuits, Systems, and Signal Processing. 2024 Jan;43(1):103-23.
    [34] Rehan M, Tufail M, Akhtar MT. On elimination of overflow oscillations in linear time-varying 2-D digital filters represented by a Roesser model. Signal Processing. 2016 Oct 1;127:247-52.
    [35] Xia W, Zheng WX, Xu S. Realizability condition for digital filters with time delay using generalized overflow arithmetic. IEEE Transactions on Circuits and Systems II: Express Briefs. 2018 May 1;66(1):141-5.
    [36] Gupta PK, Singh K, Kandanvli VK, Kar H. New criterion for the stability of discrete-time systems with state saturation and time-varying delay. Journal of Control, Automation and Electrical Systems. 2023 Aug;34(4):700-8.
    [37] Kokil P, Jogi S, Ahn CK, Kar H. An improved local stability criterion for digital filters with interference and overflow nonlinearity. IEEE Transactions on Circuits and Systems II: Express Briefs. 2019 May 24;67(3):595-9.
    [38] Chaurasia D, Singh K, Kandanvli VK, Kar H. Stability of uncertain 2-d discrete delayed systems with saturation. International Journal of Advanced Technology and Engineering Exploration. 2022 Jun 1;9(91):771.
    [39] Nayak S, Parija SR, Gupta PK. Assessing stability in discrete-time systems impacted by interference and state delays: An approach using ISS. e-Prime-Advances in Electrical Engineering, Electronics and Energy. 2024 Dec 1;10:100828.
    [40] Prakash R, Kumar K, Tadepalli SK. LMI‐based stability analysis for delayed discrete‐time systems with saturation nonlinearities verified via FPGA hardware. Asian Journal of Control. 2026.
    [41] Pulikonda M, Kokil P. Passivity-Based Approach for Exponential Stability of Discrete Time System Under Overflow Nonlinearities. Journal of Control, Automation and Electrical Systems. 2025 Dec;36(6):1094-106.
    [42] Chu YC, Glover K. Bounds of the induced norm and model reduction errors for systems with repeated scalar nonlinearities. IEEE Transactions on Automatic Control. 1999 Mar 31;44(3):471-83.
    [43] Strang G. Introduction to applied mathematics. Wellesley, MA: Wellesley-Cambridge Press; 1986.

Swagatika Nayak, Smita Rani Parija, Pushpendra Kumar Gupta, and V. Krishna Rao Kandanvli (2026), IOSS Criterion for Lipschitz Nonlinear Fixed Point Discrete -Time Systems Employing External Interference and Saturation Overflow. IJEER 14(2), 572-580. DOI: 10.37391/IJEER.140232.