DocumentCode
53929
Title
Analytical and Psychophysical Comparison of Bilateral Teleoperators for Enhanced Perceptual Performance
Author
Hyoung Il Son ; Jang Ho Cho ; Bhattacharjee, Tonmoy ; Hoeryong Jung ; Doo Yong Lee
Author_Institution
Inst. of IndustrialTechnology, Samsung Heavy Ind., Daejeon, South Korea
Volume
61
Issue
11
fYear
2014
fDate
Nov. 2014
Firstpage
6202
Lastpage
6212
Abstract
This paper focuses on the human perception capabilities for haptic interaction with remote environments. The perception capabilities are compared for two well-known control methods with two kinds of haptic cues. Analytical and psychophysical methods are used to analyze the performance. The first control method aims at maximizing the transparency of the remote interactions (i.e., transparency-based method), whereas the second one aims at maximizing the detection and discrimination abilities of the human operator (i.e., perception-based method). For each of these two control methods, two kinds of haptic cues are studied, which use position and force cues from remote environments. Hybrid matrix formulation is employed, and it is analyzed in the frequency domain for these studies. Psychophysical experiments are then conducted for human-centered evaluation and comparison of the control methods. Analytical and experimental results clearly show that the perception-based method, when compared with the transparency-based method, enhances the human operator´s perceptual capabilities of remote environments irrespective of force cues. For each of the two control methods, the force cues always contribute more to the increase in perceptual sensitivity when compared with the case of position cues.
Keywords
haptic interfaces; telerobotics; analytical comparison; bilateral teleoperators; control methods; discrimination abilities; enhanced perceptual performance; haptic cues; haptic interaction; human operator; human perception capabilities; human-centered evaluation; hybrid matrix formulation; perception-based method; psychophysical comparison; remote environments; transparency-based method; Force; Frequency modulation; Haptic interfaces; Impedance; Optimization; Sensitivity; Stability analysis; Kinesthesia; medical robotics; perception; psychophysics; remote haptic interaction;
fLanguage
English
Journal_Title
Industrial Electronics, IEEE Transactions on
Publisher
ieee
ISSN
0278-0046
Type
jour
DOI
10.1109/TIE.2014.2314058
Filename
6779652
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