Literature DB >> 12541140

Innocuous cooling can produce nociceptive sensations that are inhibited during dynamic mechanical contact.

Barry G Green1, Jennifer V Pope.   

Abstract

In a previous study of the heat grill illusion, sensations of burning and stinging were sometimes reported when the skin was cooled by as little as 2 degrees C. Informal tests subsequently indicated that these nociceptive sensations were experienced if cooling occurred when the stimulating thermode rested on the skin, but not when the thermode was cooled and then touched to the skin. In experiment 1 subjects judged the intensity of thermal (cold/warm) and nociceptive (burning/stinging) sensations when the volar surface of the forearm was cooled to 25 degrees C (1) via a static thermode (Static condition), or (2) via a cold thermode touched to the skin (Dynamic condition). The total area of stimulation was varied from 2.6 to 10.4 cm(2) to determine if the occurrence of nociceptive sensations depended upon stimulus size. Burning/stinging was rated 10.3 times stronger in the Static condition than in the Dynamic condition, and this difference did not vary significantly with stimulus size. In experiment 2, thermal and nociceptive sensations were measured during cooling to just 31 degrees, 29 degrees or 27 degrees C, and data were obtained on the frequency at which different sensation qualities were experienced. Stinging was the most frequently reported nociceptive quality in the Static condition, and stinging and burning were both markedly reduced in the Dynamic condition. In experiment 3 we tested the possibility that dynamic contact might have inhibited burning and stinging not because of mechanical contact per se, but rather because dynamic contact caused higher rates of cooling. However, varying cooling rate over a tenfold range (-0.5 degrees to -5.0 degrees /s) had no appreciable effect on the frequency of stinging and burning. Overall, the data show that mild cooling can produce nociceptive sensations that are suppressed under conditions of dynamic mechanical contact. The latter observation suggests that cold is perceived differently during active contact with objects than during passive heat loss to the environment. Hypotheses about the physiological basis of the nociceptive sensations at mild temperatures and their possible role in the phenomena of paradoxical heat and synthetic heat are discussed.

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Year:  2002        PMID: 12541140     DOI: 10.1007/s00221-002-1280-9

Source DB:  PubMed          Journal:  Exp Brain Res        ISSN: 0014-4819            Impact factor:   1.972


  16 in total

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2.  Topical hindpaw application of L-menthol decreases responsiveness to heat with biphasic effects on cold sensitivity of rat lumbar dorsal horn neurons.

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Review 3.  Converting cold into pain.

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7.  Thermosensitive transient receptor potential (TRP) channel agonists and their role in mechanical, thermal and nociceptive sensations as assessed using animal models.

Authors:  A H Klein; Minh Trannyguen; Christopher L Joe; Carstens M Iodi; E Carstens
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8.  Pruritic and nociceptive sensations and dysesthesias from a spicule of cowhage.

Authors:  R H LaMotte; S G Shimada; B G Green; D Zelterman
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9.  Human cutaneous C fibres activated by cooling, heating and menthol.

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Review 10.  Normal and abnormal coding of somatosensory stimuli causing pain.

Authors:  Steven A Prescott; Qiufu Ma; Yves De Koninck
Journal:  Nat Neurosci       Date:  2014-01-28       Impact factor: 24.884

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