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Realistic active haptic guided exploration with Cartesian control for force–position tracking in finite time
Author(s) -
Omar A. Domínguez-Ramírez,
Vicente ParraVega
Publication year - 2006
Publication title -
applied bionics and biomechanics
Language(s) - English
Resource type - Journals
SCImago Journal Rank - 0.397
H-Index - 23
eISSN - 1754-2103
pISSN - 1176-2322
DOI - 10.1533/abbi.2006.0053
Subject(s) - haptic technology , cartesian coordinate system , computer science , kinematics , imaging phantom , simulation , teleoperation , tracking (education) , computer vision , position (finance) , controller (irrigation) , virtual reality , interface (matter) , visualization , artificial intelligence , control theory (sociology) , control (management) , mathematics , pedagogy , maximum bubble pressure method , biology , psychology , geometry , bubble , classical mechanics , parallel computing , agronomy , radiology , medicine , physics , finance , economics
Perception and interaction with virtual surfaces, through kinaesthetic sensation and visual stimuli, is the basic issue of a haptic interface. When the virtual or real object is in a remote location, and guidance is required to perceive kinaesthetic feedback, a haptic guidance scheme is required. In this document, with purpose of haptic-guided exploration, a new scheme for simultaneous control of force and cartesian position is proposed without using inverse kinematics, and without using the dynamic model of PHANToM, though a strict stability analysis includes the dynamic model of PHANToM. We rely on our previously proposed results to propose a new haptic cartesian controller to reduce the burden of computing cartesian forces in PHANToM. Furthermore, a time base generator for finite-time tracking is also proposed to achieve very fast tracking and high precision, which translated into high fidelity kinaesthetic feedback

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