2020
DOI: 10.1101/2020.08.04.237016
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An elasticity-curvature illusion decouples cutaneous and proprioceptive cues in active exploration of soft objects

Abstract: Our sense of touch helps us encounter the richness of our natural world. Across a myriad of contexts and repetitions, we have learned to deploy certain exploratory movements in order to elicit perceptual cues that are optimal and efficient. Such cues help us assess an object’s roughness, or stickiness, or as in this case, its softness. Leveraging empirical experiments combined with computational modeling of skin deformation, we develop a perceptual illusion for softness, or compliance, where small-compliant an… Show more

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“…Indeed, the changes in skin's mechanics caused by those cutaneous contact attributes could elicit different responses of tactile afferents, which may underlie the discriminative and affective perception of touch [22]. For example, larger contact area may recruit more peripheral afferents [23], [24], while larger depths and forces may activate higher firing frequency [25]. Moreover, human touch interactions could be encoded in first-order neural responses of at least some afferent subtypes such as C-tactile afferents for the sensation of pleasantness [14], and single-unit Aβ afferents for distinct emotional messages [10].…”
Section: Discussionmentioning
confidence: 99%
“…Indeed, the changes in skin's mechanics caused by those cutaneous contact attributes could elicit different responses of tactile afferents, which may underlie the discriminative and affective perception of touch [22]. For example, larger contact area may recruit more peripheral afferents [23], [24], while larger depths and forces may activate higher firing frequency [25]. Moreover, human touch interactions could be encoded in first-order neural responses of at least some afferent subtypes such as C-tactile afferents for the sensation of pleasantness [14], and single-unit Aβ afferents for distinct emotional messages [10].…”
Section: Discussionmentioning
confidence: 99%