RELIABILITY AND INTEGRATED CAPABILITIES OF LOCOMOTION AND MANIPULATION FOR AUTONOMOUS ROBOT ASSEMBLY

被引:11
|
作者
LUETH, TC [1 ]
NASSAL, UM [1 ]
REMBOLD, U [1 ]
机构
[1] UNIV KARLSRUHE,IPR,INST REAL TIME COMP SYST & ROBOT,D-76128 KARLSRUHE,GERMANY
关键词
AUTONOMOUS ROBOT; LOCOMOTION; MANIPULATION; FAULT TOLERANCE; ERROR RECOVERY; MOBILE MANIPULATION;
D O I
10.1016/0921-8890(94)00029-2
中图分类号
TP [自动化技术、计算机技术];
学科分类号
0812 ;
摘要
Autonomous assembly with a mobile robot is a demanding task. On the other hand, high sophisticated capabilities such as assembly are a qualification for future service robots. Autonomous behaviour of a robot is always based on the extent of individual capabilities, the integration of individual capabilities to obtain new ones, and the reliability of the various capabilities. The Karlsruhe Autonomous Mobile Robot KAMRO, a mobile two-arm robot, is able to perform assembly tasks without human intervention in a limited scope. It is able to move collision free between several workstations in an industrial environment, to locate assembly parts at a workstation and to put them together. During the past three years the robot has become more powerful and reliable by different improvements. The extensions are: reactive mobility, simultaneous use of both manipulators, independent or in a kinematic chain, active vision with hand-eye cameras, and mobile manipulation. The reliability has been increased by strategies for error avoidance on planning and execution level and error recovery. The improvements are basic steps towards reliable robots for large scale applications. They have increased the success rate of the KAMRO robot by almost two magnitudes.
引用
收藏
页码:185 / 198
页数:14
相关论文
共 50 条
  • [41] Autonomous framework for segmenting robot trajectories of manipulation task
    Sang Hyoung Lee
    Il Hong Suh
    Sylvain Calinon
    Rolf Johansson
    Autonomous Robots, 2015, 38 : 107 - 141
  • [42] A Soft Amphibious Robot with Buoyancy Control and Underwater Manipulation Capabilities
    Yang, Yang
    Zheng, Haozhe
    Xie, Yuan
    Jiang, Pei
    Li, Yingtian
    INTELLIGENT ROBOTICS AND APPLICATIONS, ICIRA 2024, PT III, 2025, 15203 : 311 - 324
  • [43] Learning affordance relations in a mobile robot with limited manipulation capabilities
    Ugur, Emre
    Oztop, Erhan
    Sahin, Erol
    NEUROSCIENCE RESEARCH, 2009, 65 : S183 - S183
  • [44] Exploiting the technological capabilities of autonomous vehicles as assembly items to improve assembly performance
    Kathmann, Tom
    Reh, Daniel
    Arlinghaus, Julia C.
    ADVANCES IN INDUSTRIAL AND MANUFACTURING ENGINEERING, 2023, 6
  • [45] Integrated and Adaptive Locomotion and Manipulation for Self-reconfigurable Robots
    Collins, Thomas Joseph
    Shen, Wei-Min
    TOWARDS AUTONOMOUS ROBOTIC SYSTEMS (TAROS 2017), 2017, 10454 : 150 - 165
  • [46] Three-Dimensional Stability Criterion of Integrated Locomotion and Manipulation
    Yoneda, Kan
    Hirose, Shigeo
    Journal of Robotics and Mechatronics, 1997, 9 (04): : 267 - 274
  • [47] A Motion Planning Approach for Nonprehensile Manipulation and Locomotion Tasks of a Legged Robot
    Zhang, Guoteng
    Ma, Shugen
    Shen, Yayi
    Li, Yibin
    IEEE TRANSACTIONS ON ROBOTICS, 2020, 36 (03) : 855 - 874
  • [48] Experimental Validation of a Hybrid Mobile Robot Mechanism with Interchangeable Locomotion and Manipulation
    Ben-Tzvi, Pinhas
    2009 IEEE-RSJ INTERNATIONAL CONFERENCE ON INTELLIGENT ROBOTS AND SYSTEMS, 2009, : 420 - 421
  • [49] TerminatorBot: A novel robot with dual-use mechanism for locomotion and manipulation
    Voyles, RM
    Larson, AC
    IEEE-ASME TRANSACTIONS ON MECHATRONICS, 2005, 10 (01) : 17 - 25
  • [50] Magnetic Robot and Manipulation for Active-Locomotion With Targeted Drug Release
    Kim, Sung Hoon
    Ishiyama, Kazushi
    IEEE-ASME TRANSACTIONS ON MECHATRONICS, 2014, 19 (05) : 1651 - 1659