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Pilot Adaptation to Different Classes of Haptic Aids in Tracking Tasks

Haptic aids have been largely used in manual control tasks to complement the visual information through the sense of touch. To analytically design a haptic aid, adequate knowledge is needed about how pilots adapt their visual response and the biomechanical properties of their arm (i.e., admittance)...

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Published in:Journal of guidance, control, and dynamics control, and dynamics, 2014-11, Vol.37 (6), p.1741-1753
Main Authors: Olivari, Mario, Nieuwenhuizen, Frank M, Buelthoff, Heinrich H, Pollini, Lorenzo
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Language:English
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cited_by cdi_FETCH-LOGICAL-c561t-59a3e1f500d9913b79d03612d9b87d3d90cb49c7578bf953723f2c5c916f0423
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container_title Journal of guidance, control, and dynamics
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creator Olivari, Mario
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description Haptic aids have been largely used in manual control tasks to complement the visual information through the sense of touch. To analytically design a haptic aid, adequate knowledge is needed about how pilots adapt their visual response and the biomechanical properties of their arm (i.e., admittance) to a generic haptic aid. In this work, two different haptic aids, a direct haptic aid and an indirect haptic aid, are designed for a target tracking task, with the aim of investigating the pilot response to these aids. The direct haptic aid provides forces on the control device that suggest the right control action to the pilot, whereas the indirect haptic aid provides forces opposite in sign with respect to the direct haptic aid. The direct haptic aid and the indirect haptic aid were tested in an experimental setup with nonpilot participants and compared to a condition without haptic support. It was found that control performance improved with haptic aids. Participants significantly adapted both their admittance and visual response to fully exploit the haptic aids. They were more compliant with the direct haptic aid force, whereas they showed stiffer neuromuscular settings with the indirect haptic aid, as this approach required opposing the haptic forces.
doi_str_mv 10.2514/1.G000534
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ispartof Journal of guidance, control, and dynamics, 2014-11, Vol.37 (6), p.1741-1753
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source Alma/SFX Local Collection
subjects Adaptation
Admittance
Aids
Automation
Aviation
Biomechanics
Control equipment
Control tasks
Cybernetics
Design
Devices
Electrical impedance
Feedback
Haptics
Manual control
Pilots
Tasks
Tracking
Visual
Visual tasks
Workloads
title Pilot Adaptation to Different Classes of Haptic Aids in Tracking Tasks
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