Acta Physiologica· 2014Q1· Review
Skin temperature: its role in thermoregulation
- 503citations
- Q1SCImago
- 2014year
Short summary
Skin temperature from hairy skin provides auxiliary feedback to the thermoregulation system, reducing response time and load error, while glabrous skin primarily assesses local object temperatures as feedforward signals for behavior.
AI-generated from the title and abstract; the full text is not read.
Key points
- Hairy skin temperature provides auxiliary feedback (both negative and positive) to the thermoregulation system.
- This feedback from hairy skin reduces the system's response time and load error.
- Glabrous skin, particularly in heat-exchange organs, assesses local object temperatures as feedforward signals for behavior.
- Autonomic thermoregulation relies on feedback, while thermoregulatory behaviors utilize both feedback and feedforward signals.
AI-generated from the title and abstract; the full text is not read.
Abstract
This review analyses whether skin temperature represents ambient temperature and serves as a feedforward signal for the thermoregulation system, or whether it is one of the body's temperatures and provides feedback. The body is covered mostly by hairy (non-glabrous) skin, which is typically insulated from the environment (with clothes in humans and with fur in non-human mammals). Thermal signals from hairy skin represent a temperature of the insulated superficial layer of the body and provide feedback to the thermoregulation system. It is explained that this feedback is auxiliary, both negative and positive, and that it reduces the system's response time and load error. Non-hairy (glabrous) skin covers specialized heat-exchange organs (e.g. the hand), which are also used to explore the environment. In thermoregulation, these organs are primarily effectors. Their main thermosensory-related role is to assess local temperatures of objects explored; these local temperatures are feedforward signals for various behaviours. Non-hairy skin also contributes to the feedback for thermoregulation, but this contribution is limited. Autonomic (physiological) thermoregulation does not use feedforward signals. Thermoregulatory behaviours use both feedback and feedforward signals. Implications of these principles to thermopharmacology, a new approach to achieving biological effects by blocking temperature signals with drugs, are discussed.
The authors' abstract, as published at the source. Acta Physiologica, 2014 · DOI ↗
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Field: Sensory Systems
Sensory SystemsNeuroscience