Vision based control of a 3D inverted pendulum

被引:0
|
作者
Wang, Haoping [1 ]
Vasseur, Christian [1 ]
Koncar, Vladan [2 ]
Chamroo, Afzal [3 ]
机构
[1] Laboratoire D'Automatique, Génie Informatique et Signal (CNRS UMR 8146), Université des Sciences et Technologies de Lille, Bâtiment P2-314/204, F-59655 Villeneuve-d'Ascq cedex, France
[2] GEMTEX, ENSAIT, 9, rue de l'Ermitage, BP 30329, F-59056 Roubaix cedex 01, France
[3] LAII, Université de Poitiers, 40, av. du recteur Pineau, F-86022 Poitiers, France
来源
关键词
CCD cameras - Lyapunov functions - Remote sensing - Inverse problems - Visual servoing - Stabilization;
D O I
10.3166/JESA.43.197-216
中图分类号
学科分类号
摘要
This paper presents a stabilization control system of a 3D inverted pendulum. The challenge is to realize a control via remote sensing based on a low cost CCD camera. The proposed method transforms the 3D problem into a 2D one by choosing a new balancing plane for the pendulum at each camera's sampling instant. For a given plane, two feedback loops are considered. The first one, which is an observation loop, processes the delayed and sampled angle information delivered by the artificial vision system so as to set up a linear and stable model of the pendulum (without any approximations) and to reconstitute its continuous state by means of a specific observer called Piecewise Continuous reduced-order Luenberger Observer (PCO). The second loop, which is a stabilisation loop, makes use of a Lyapunov function based control in order to stabilise the cart-pendulum system. Simulations and experimental results illustrate the method's performance. © 2009 Lavoisier, Paris.
引用
收藏
页码:197 / 216
相关论文
共 50 条
  • [31] Microassembly of Complex and Solid 3D MEMS by 3D Vision-based Control
    Tamadazte, Brahim
    Le Fort-Piat, Nadine
    Dembele, Sounkalo
    Marchand, Eric
    2009 IEEE-RSJ INTERNATIONAL CONFERENCE ON INTELLIGENT ROBOTS AND SYSTEMS, 2009, : 3284 - 3289
  • [32] Time Optimal Attitude Control of 3D Pendulum
    Karthikeyan, K. P.
    Simha, H.
    Priyadarshan, H.
    2016 INDIAN CONTROL CONFERENCE (ICC), 2016, : 60 - 65
  • [33] Passivity based control of a cart with inverted pendulum
    Joergl, Matthias
    Schlacher, Kurt
    Gattringer, Hubert
    OPTIROB 2013: OPTIMIZATION OF THE INTELLIGENT SYSTEMS AND THEIR APPLICATIONS IN AEROSPACE, ROBOTICS, MECHANICAL ENGINEERING, MANUFACTURING SYSTEMS, BIOMECHATRONICS AND NEUROREHABILITATION, 2014, 332 : 339 - 344
  • [34] Fuzzy control based on an inverted pendulum system
    Chen Yong
    Li Huangong
    Wang Jie
    Li Yunxia
    Ai Anna
    ISTM/2007: 7TH INTERNATIONAL SYMPOSIUM ON TEST AND MEASUREMENT, VOLS 1-7, CONFERENCE PROCEEDINGS, 2007, : 3093 - 3096
  • [35] Control of an Inverted Pendulum based on a Reduced Model
    Patete, Anna
    Aguirre, Inaki
    Sanchez, Hector
    INGENIERIA UC, 2011, 18 (01): : 12 - 22
  • [36] A method for control of 2D inverted pendulum
    Li, H
    Xiong, SB
    Sun, QL
    Sun, ZY
    Zhang, H
    ISTM/2005: 6th International Symposium on Test and Measurement, Vols 1-9, Conference Proceedings, 2005, : 4782 - 4784
  • [37] Controlled 3D Biped Stepping Animations using the Inverted Pendulum and Impulse Constraints
    Kenwright, Ben
    2013 INTERNATIONAL CONFERENCE ON CYBERWORLDS (CW), 2013, : 326 - 329
  • [38] Push Recovery by Angular Momentum Control during 3D Bipedal Walking Based on Virtual-mass-ellipsoid Inverted Pendulum Model
    Guan, Kaixuan
    Yamamoto, Ko
    Nakamura, Yoshihiko
    2019 IEEE-RAS 19TH INTERNATIONAL CONFERENCE ON HUMANOID ROBOTS (HUMANOIDS), 2019, : 120 - 125
  • [39] Yaw moment compensation of biped fast walking using 3D inverted pendulum
    Hirabayashi, Takahiro
    Ugurlu, Barkan
    Kawamura, Atsuo
    Zhu, Chi
    AMC '08: 10TH INTERNATIONAL WORKSHOP ON ADVANCED MOTION CONTROL, VOLS 1 AND 2, PROCEEDINGS, 2008, : 296 - +
  • [40] Resolved Motion Control for 3D Underactuated Bipedal Walking using Linear Inverted Pendulum Dynamics and Neural Adaptation
    Paredes, Victor C.
    Hereid, Ayonga
    2022 IEEE/RSJ INTERNATIONAL CONFERENCE ON INTELLIGENT ROBOTS AND SYSTEMS (IROS), 2022, : 6761 - 6767