DocumentCode
21287
Title
Wireless Sensing and Vibration Control With Increased Redundancy and Robustness Design
Author
Peng Li ; Luyu Li ; Gangbing Song ; Yan Yu
Author_Institution
Halliburton, Houston, TX, USA
Volume
44
Issue
11
fYear
2014
fDate
Nov. 2014
Firstpage
2076
Lastpage
2087
Abstract
Control systems with long distance sensor and actuator wiring have the problem of high system cost and increased sensor noise. Wireless sensor network (WSN)-based control systems are an alternative solution involving lower setup and maintenance costs and reduced sensor noise. However, WSN-based control systems also encounter problems such as possible data loss, irregular sampling periods (due to the uncertainty of the wireless channel), and the possibility of sensor breakdown (due to the increased complexity of the overall control system). In this paper, a wireless microcontroller-based control system is designed and implemented to wirelessly perform vibration control. The wireless microcontroller-based system is quite different from regular control systems due to its limited speed and computational power. Hardware, software, and control algorithm design are described in detail to demonstrate this prototype. Model and system state compensation is used in the wireless control system to solve the problems of data loss and sensor breakdown. A positive position feedback controller is used as the control law for the task of active vibration suppression. Both wired and wireless controllers are implemented. The results show that the WSN-based control system can be successfully used to suppress the vibration and produces resilient results in the presence of sensor failure.
Keywords
actuators; control system synthesis; feedback; microcontrollers; position control; redundancy; robust control; sensors; vibration control; wireless channels; wireless sensor networks; WSN-based control systems; active vibration suppression; control law; long distance sensor-actuator wiring; maintenance costs; model compensation; positive position feedback controller; reduced sensor noise; redundancy; robustness design; sampling periods; sensor breakdown; sensor failure; sensor noise; system state compensation; vibration control system; wireless channel; wireless microcontroller-based control system; wireless sensor network-based control systems; Algorithm design and analysis; Communication system security; Control systems; Hardware; Protocols; Wireless communication; Wireless sensor networks; Redundancy; robustness; vibration control; wireless sensor networks;
fLanguage
English
Journal_Title
Cybernetics, IEEE Transactions on
Publisher
ieee
ISSN
2168-2267
Type
jour
DOI
10.1109/TCYB.2014.2306811
Filename
6757040
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