Author:
Dede Mehmet,Tosunoglu Sabri
Abstract
PurposeThe objective of this study is to enhance the usage of teleoperation fields, such as in nuclear site decommissioning or nuclear waste disposal, by designing a stable, dependable and fault‐tolerant teleoperation system in the face of “extraordinary” conditions. These “extraordinary” conditions can be classified as variable time delays in communications lines, usage of different robotic systems, component failures and changes in the system parameters during task execution.Design/methodology/approachThis paper first gives a review of teleoperation systems developed earlier. Later, fault tolerance is proposed for use in teleoperation systems at the processor, actuator, sub‐system, and system levels. Position/force control algorithms are recommended to address stability issues when there is a loss in communications. Various other controls are also introduced to overcome the instability experienced when there is a time delay in the communications line.FindingsFinally, this work summarizes the teleoperation system architecture and controller design options in terms of a flowchart to help in the conceptual design of such systems.Originality/valueThe impact of these new designs and algorithms will be to expand the limits and boundaries of teleoperation and a widening of its utilization area. Enhanced operation of these systems will improve system reliability and even encourage their use in more critical and diverse applications.
Subject
Industrial and Manufacturing Engineering,Computer Science Applications,Control and Systems Engineering
Reference32 articles.
1. Anderson, R.J. and Spong, W. (1989), “Bilateral control of teleoperation with time delay”, IEEE T. Automation & Control, Vol. 34.
2. Batsomboon, P., Tosunoglu, S. and Repperger, D.W. (2000), “A survey of telesensation and teleoperation technology with virtual reality and force reflection capabilities”, International Journal of Modeling and Simulation, Vol. 20 No. 1, pp. 79‐88.
3. Bennet, D. and Needles, A. (1997), “A new control concept for commercially available telerobotic manipulators”, American Nuclear Society 7th Topical Meeting on Robotics and Remote Systems.
4. Butner, S.E. and Ghodoussi, M. (2003), “Transforming a surgical robot for human telesurgery”, IEEE Transactions on Robotics and Automation, Vol. 19 No. 5, pp. 818‐24.
5. Cavusoglu, M.C. (2000), “Telesurgery and surgical simulation: design modeling, and evaluation of haptic interfaces to real and virtual surgical environments”, PhD dissertation, UC at Berkeley, Berkeley, CA.
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