TY - JOUR
T1 - Biosymbiotic haptic feedback - Sustained long term human machine interfaces
AU - Tyree, Amanda
AU - Bhatia, Aman
AU - Hong, Minsik
AU - Hanna, Jessica
AU - Kasper, Kevin Albert
AU - Good, Brandon
AU - Perez, Dania
AU - Govalla, Dema Nua
AU - Hunt, Abigail
AU - Sathishkumaraselvam, Vasanth
AU - Hoffman, Jordan Philip
AU - Rozenblit, Jerzy W.
AU - Gutruf, Philipp
N1 - Publisher Copyright:
© Elsevier B.V.
PY - 2024/10/1
Y1 - 2024/10/1
N2 - Haptic technology permeates diverse fields and is receiving renewed attention for VR and AR applications. Advances in flexible electronics, facilitate the integration of haptic technologies into soft wearable systems, however, because of small footprint requirements face challenges of operational time requiring either large batteries, wired connections or frequent recharge, restricting the utility of haptic devices to short-duration tasks or low duty cycles, prohibiting continuously assisting applications. Currently many chronic applications are not investigated because of this technological gap. Here, we address wireless power and operation challenges with a biosymbiotic approach enabling continuous operation without user intervention, facilitated by wireless power transfer, eliminating the need for large batteries, and offering long-term haptic feedback without adhesive attachment to the body. These capabilities enable haptic feedback for robotic surgery training and posture correction over weeks of use with neural net computation. The demonstrations showcase that this device class expands use beyond conventional brick and strap or epidermally attached devices enabling new fields of use for imperceptible therapeutic and assistive haptic technologies supporting care and disease management.
AB - Haptic technology permeates diverse fields and is receiving renewed attention for VR and AR applications. Advances in flexible electronics, facilitate the integration of haptic technologies into soft wearable systems, however, because of small footprint requirements face challenges of operational time requiring either large batteries, wired connections or frequent recharge, restricting the utility of haptic devices to short-duration tasks or low duty cycles, prohibiting continuously assisting applications. Currently many chronic applications are not investigated because of this technological gap. Here, we address wireless power and operation challenges with a biosymbiotic approach enabling continuous operation without user intervention, facilitated by wireless power transfer, eliminating the need for large batteries, and offering long-term haptic feedback without adhesive attachment to the body. These capabilities enable haptic feedback for robotic surgery training and posture correction over weeks of use with neural net computation. The demonstrations showcase that this device class expands use beyond conventional brick and strap or epidermally attached devices enabling new fields of use for imperceptible therapeutic and assistive haptic technologies supporting care and disease management.
KW - Closed-loop platform
KW - Continuous operation
KW - Haptic feedback
KW - Posture correction
KW - Robotic surgery training
KW - Wireless power transfer
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U2 - 10.1016/j.bios.2024.116432
DO - 10.1016/j.bios.2024.116432
M3 - Article
C2 - 38861810
AN - SCOPUS:85195373942
SN - 0956-5663
VL - 261
JO - Biosensors and Bioelectronics
JF - Biosensors and Bioelectronics
M1 - 116432
ER -