1999
DOI: 10.1115/1.2835100
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Dynamic Lumped Element Response of the Human Fingerpad

Abstract: The dynamic response of the fingerpad plays an important role in the tactile sensory response and precision manipulation, as well as in ergonomic design. This paper investigates the dynamic lumped element response of the human fingerpad in vivo to a compressive load. A flat probe indented the fingerpad at a constant velocity, then held a constant position. The resulting force (0-2 N) increased rapidly with indentation then relaxed during the hold phase. A quasilinear viscoelastic model successfully explained t… Show more

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Cited by 133 publications
(91 citation statements)
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“…The finger is a soft, highly deformable object which, besides its complex detailed geometry, exhibits several types of nonlinearities that are manifest at different length scales of interaction with surfaces [16], [17], [18], [19], [20]. Even under the extremely simplified assumption of linear viscoelasticity and perfectly clean contacts free of foreign bodies and liquids, the contact of deformable bodies with rough surfaces gives rise to theories of considerable complexity that are unlikely to yield simple interaction models [21].…”
Section: Introductionmentioning
confidence: 99%
“…The finger is a soft, highly deformable object which, besides its complex detailed geometry, exhibits several types of nonlinearities that are manifest at different length scales of interaction with surfaces [16], [17], [18], [19], [20]. Even under the extremely simplified assumption of linear viscoelasticity and perfectly clean contacts free of foreign bodies and liquids, the contact of deformable bodies with rough surfaces gives rise to theories of considerable complexity that are unlikely to yield simple interaction models [21].…”
Section: Introductionmentioning
confidence: 99%
“…The springs were etched from copper-beryllium sheets 0.13-mm thick and have a combined spring constant of 0.306 N/mm. When the skin is indented over an area approximately equivalent to that of 300 probes, the measured skin stiffness is 3.5 N/mm (Pawluk and Howe, 1999). Thus, the springs of the motors are approximately 25 times stiffer than the skin (91.8 N/mm for 300 probes versus 3.5 N/mm for an equivalent area of skin).…”
Section: Motor Descriptionmentioning
confidence: 99%
“…CT and MRI scans currently being collected will provide the necessary geometric detail to model the bones and soft tissue of the hand. We will also use published experimentally derived models of viscoelastic properties of the finger pads to accurately simulate these deformations [21,28].…”
Section: Modeling the Human Handmentioning
confidence: 99%