2019
DOI: 10.1007/s12369-019-00530-1
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Audio-Visual Stimuli Change not Only Robot’s Hug Impressions but Also Its Stress-Buffering Effects

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Cited by 17 publications
(9 citation statements)
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“…Some studies on handshake scenarios were conducted with the Meka robot [59] and HRP-2 robot [60], while other studies investigated kinesthetic teaching using a 7-DoF Franka Emika manipulator [100]. Studies conducted on hugging scenarios investigated the impact of manipulating the visual and tactile appearance using an ARMAR-IIIb robot [61], the duration and style of hugs using a CASTOR robot [62], and the impact of the perceived gender using a Metahug system [57,63].…”
Section: Mapping Scheme For Phrimentioning
confidence: 99%
“…Some studies on handshake scenarios were conducted with the Meka robot [59] and HRP-2 robot [60], while other studies investigated kinesthetic teaching using a 7-DoF Franka Emika manipulator [100]. Studies conducted on hugging scenarios investigated the impact of manipulating the visual and tactile appearance using an ARMAR-IIIb robot [61], the duration and style of hugs using a CASTOR robot [62], and the impact of the perceived gender using a Metahug system [57,63].…”
Section: Mapping Scheme For Phrimentioning
confidence: 99%
“…The main application of human-robot touch interaction is mental therapy for users. Several studies have investigated the merits of touch interaction with robots [7][8][9][10]34]. One famous therapy robot is a touchable seal robot (Paro) whose mental support effectiveness is well known worldwide [7].…”
Section: Touch In Human-robot Interactionmentioning
confidence: 99%
“…While work in HRI has also investigated the effects of social interactions on “stress,” this work has largely focused on how these interactions affect the “wellbeing” of the human actor (see ( Ling and Björling, 2020 ) for a review), but not the artificial agent. For instance, ( Aminuddin et al, 2016 ; Willemse et al, 2017 ; Shiomi and Hagita, 2021 ; Felnhofer et al, 2019 ), assessed numerous psychological and/or physiological measures related to “stress” during and after interactions with a robotic partner, with ( Willemse and Van Erp, 2019 ) assessing the effects after partners had established an (affective) bond with their robot partner. Despite some recent work that assessed how an embodied model of “stress” affected the (compulsive) behaviours and wellbeing of a robot, ( Lewis and Cañamero, 2019 ), more work is still required to understand how the adaptive properties associated with “stress” (and its underlying mechanisms) can affect (positively or negatively) the “wellbeing” of (virtual or physical) artificial agents.…”
Section: Introductionmentioning
confidence: 99%