Fractional-order single state reset element

被引:0
|
作者
Nima Karbasizadeh
Niranjan Saikumar
S. Hassan HosseinNia
机构
[1] Delft University of Technology,Department of Precision and Microsystem Engineering
来源
Nonlinear Dynamics | 2021年 / 104卷
关键词
Mechatronics; Motion control; Nonlinear control; Reset control; Fractional order control;
D O I
暂无
中图分类号
学科分类号
摘要
This paper proposes a fractional-order reset element whose architecture allows for the suppression of nonlinear effects for a range of frequencies. Suppressing the nonlinear effects of a reset element for the desired frequency range while maintaining it for the rest is beneficial, especially when it is used in the framework of a “Constant in gain, Lead in phase” (CgLp) filter. CgLp is a newly introduced nonlinear filter, bound to circumvent the well-known linear control limitation—the waterbed effect. The ideal behaviour of such a filter in the frequency domain is unity gain while providing a phase lead for a broad range of frequencies. However, CgLp’s ideal behaviour is based on the describing function, which is a first-order approximation that neglects the effects of the higher-order harmonics in the output of the filter. Although CgLp is fundamentally a nonlinear filter, its nonlinearity is not required for all frequencies. Thus, it is shown in this paper that using the proposed reset element architecture, CgLp gets closer to its ideal behaviour for a range of frequencies, and its performance will be improved accordingly.
引用
收藏
页码:413 / 427
页数:14
相关论文
共 50 条
  • [31] Influence of Fractional-Order Element Properties on Frequency Filter Characteristics
    Kubanek, David
    Koton, Jaroslav
    Dvorak, Jan
    2019 11TH INTERNATIONAL CONGRESS ON ULTRA MODERN TELECOMMUNICATIONS AND CONTROL SYSTEMS AND WORKSHOPS (ICUMT), 2019,
  • [32] History and Progress of Fractional-Order Element Passive Emulators: A Review
    Kartci, Aslihan
    Herencsar, Norbert
    Machado, Jose Tenreiro
    Brancik, Lubomir
    RADIOENGINEERING, 2020, 29 (02) : 296 - 304
  • [33] Fractional order modelling of fractional-order holds
    J. A. Tenreiro Machado
    Nonlinear Dynamics, 2012, 70 : 789 - 796
  • [34] FRACTIONAL-ORDER ITERATIVE LEARNING CONTROL FOR FRACTIONAL-ORDER LINEAR SYSTEMS
    Li, Yan
    Chen, YangQuan
    Ahn, Hyo-Sung
    ASIAN JOURNAL OF CONTROL, 2011, 13 (01) : 54 - 63
  • [35] Synchronization of Fractional-Order Hyperchaotic Systems via Fractional-Order Controllers
    Li, Tianzeng
    Wang, Yu
    Yang, Yong
    DISCRETE DYNAMICS IN NATURE AND SOCIETY, 2014, 2014
  • [36] DESIGN OF UNKNOWN INPUT FRACTIONAL-ORDER OBSERVERS FOR FRACTIONAL-ORDER SYSTEMS
    N'Doye, Ibrahima
    Darouach, Mohamed
    Voos, Holger
    Zasadzinski, Michel
    INTERNATIONAL JOURNAL OF APPLIED MATHEMATICS AND COMPUTER SCIENCE, 2013, 23 (03) : 491 - 500
  • [37] Fractional-Order Sliding Mode Synchronization for Fractional-Order Chaotic Systems
    Wang, Chenhui
    ADVANCES IN MATHEMATICAL PHYSICS, 2018, 2018
  • [38] Fractional-order inverse filters revisited: Equivalence with fractional-order controllers
    Bertsias, Panagiotis
    Psychalinos, Costas
    Minaei, Shahram
    Yesil, Abdullah
    Elwakil, Ahmed S.
    MICROELECTRONICS JOURNAL, 2023, 131
  • [39] Stabilization of fractional-order unstable delay systems by fractional-order controllers
    Kheirizad, Iraj
    Jalali, Ali Akbar
    Khandani, Khosro
    PROCEEDINGS OF THE INSTITUTION OF MECHANICAL ENGINEERS PART I-JOURNAL OF SYSTEMS AND CONTROL ENGINEERING, 2012, 226 (I9) : 1166 - 1173
  • [40] Fractional-order Legendre functions for solving fractional-order differential equations
    Kazem, S.
    Abbasbandy, S.
    Kumar, Sunil
    APPLIED MATHEMATICAL MODELLING, 2013, 37 (07) : 5498 - 5510