A Fuzzy Virtual Actuator for Automated Guided Vehicles

被引:7
|
作者
Stetter, Ralf [1 ]
机构
[1] Ravensburg Weingarten Univ RWU, Dept Mech Engn, D-88250 Weingarten, Germany
关键词
virtual sensors; virtual actuators; fault-tolerance; automated guided vehicles; FAULT-TOLERANT CONTROL; OUTPUT-FEEDBACK CONTROL; VIBRATION CONTROL; SYSTEMS; DESIGN; METHODOLOGY; CONTROLLER; DIAGNOSIS; ABSORBER;
D O I
10.3390/s20154154
中图分类号
O65 [分析化学];
学科分类号
070302 ; 081704 ;
摘要
In the last decades, virtual sensors have found increasing attention in the research community. Virtual sensors employ mathematical models and different sources of information such as actuator states or sensors, which are already existing in a system, in order to generate virtual measurements. Additionally, in recent years, the concept of virtual actuators has been proposed by leading researchers. Virtual actuators are parts of a fault-tolerant control strategy and aim to accommodate faults and to achieve a safe operation of a faulty plant. This paper describes a novel concept for a fuzzy virtual actuator applied to an automated guided vehicle (AGV). The application of fuzzy logic rules allows integrating expert knowledge or experimental data into the decision making of the virtual actuator. The AGV under consideration disposes of an innovative steering concept, which leads to considerable advantages in terms of maneuverability, but requires an elaborate control system. The application of the virtual actuator allows the accommodation of several possible faults, such as a slippery surface under one of the drive modules of the AGV.
引用
下载
收藏
页码:1 / 23
页数:23
相关论文
共 50 条
  • [31] Dynamic positioning of idle automated guided vehicles
    Bruno, G
    Ghiani, G
    Improta, G
    JOURNAL OF INTELLIGENT MANUFACTURING, 2000, 11 (02) : 209 - 215
  • [32] Decentralized management of intersections of automated guided vehicles
    Lombard, Alexandre
    Perronnet, Florent
    Abbas-Turki, Abdeljalil
    El Moudni, Abdellah
    IFAC PAPERSONLINE, 2016, 49 (12): : 497 - 502
  • [33] A MAGNETIC GUIDANCE METHOD FOR AUTOMATED GUIDED VEHICLES
    KAMEWAKA, S
    UEMURA, S
    IEEE TRANSACTIONS ON MAGNETICS, 1987, 23 (05) : 2416 - 2418
  • [34] RECENT DEVELOPMENT OF AUTOMATED GUIDED VEHICLES IN JAPAN
    TSUMURA, T
    ROBOTERSYSTEME, 1986, 2 (02): : 91 - 97
  • [35] Virtual Testing of Software Stacks for Automated Vehicles
    Herrmann, Martin
    ATZ worldwide, 2021, 123 (09): : 36 - 41
  • [36] Flexible dispatching rules for automated guided vehicles based on a self-adapting fuzzy prioritizing system
    Tan, KK
    Lee, TH
    Tang, KZ
    INTELLIGENT AUTOMATION AND SOFT COMPUTING, 1999, 5 (04): : 327 - 336
  • [37] Vehicle Sensor and Actuator Fault Detection Algorithm for Automated Vehicles
    Jeong, Yonghwan
    Kim, Kyuwon
    Kim, Beomjun
    Yoon, Jihyun
    Chong, Hyokjin
    Ko, Bongchul
    Yi, Kyongsu
    2015 IEEE INTELLIGENT VEHICLES SYMPOSIUM (IV), 2015, : 927 - 932
  • [38] Application of Automated Guided Vehicles in Smart Automated Warehouse Systems: A Survey
    Zhang, Zheng
    Chen, Juan
    Guo, Qing
    CMES-COMPUTER MODELING IN ENGINEERING & SCIENCES, 2023, 134 (03): : 1529 - 1563
  • [39] Virtual power plant architecture using OpenADR 2.0b for dynamic charging of automated guided vehicles
    Kolenc, Mitja
    Ihle, Norman
    Gutschi, Christoph
    Nemcek, Peter
    Breitkreuz, Thomas
    Goedderz, Karlheinz
    Suljanovic, Nermin
    Zajc, Matej
    INTERNATIONAL JOURNAL OF ELECTRICAL POWER & ENERGY SYSTEMS, 2019, 104 : 370 - 382
  • [40] Fuzzy logic control for an automated guided vehicle
    Cao, M
    Hall, E
    INTELLIGENT ROBOTS AND COMPUTER VISION XVII: ALGORITHMS, TECHNIQUES, AND ACTIVE VISION, 1998, 3522 : 303 - 312