Single-digit cold-induced vasodilation adaptations during an Antarctic expedition

An increasing number of people are spending time in Polar Regions for work and tourism and this can increase the risk of tissue injuries, e.g. frostbite. The risk would be reduced if beneficial peripheral blood flow adaptions occurred but data regarding the trainability of the cold-induced vasodilat...

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Veröffentlicht in:Polar biology 2020-05, Vol.43 (5), p.555-563
Hauptverfasser: Tyler, Christopher James, Lambert, Robert, Kumar, Alexander, Stroud, Mike Adrian, Cheung, Stephen Sau-Shing
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container_end_page 563
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container_title Polar biology
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creator Tyler, Christopher James
Lambert, Robert
Kumar, Alexander
Stroud, Mike Adrian
Cheung, Stephen Sau-Shing
description An increasing number of people are spending time in Polar Regions for work and tourism and this can increase the risk of tissue injuries, e.g. frostbite. The risk would be reduced if beneficial peripheral blood flow adaptions occurred but data regarding the trainability of the cold-induced vasodilation (CIVD) response are equivocal. Five healthy males spent almost 8 months in Antarctica; five of them at a semi-permanent camp (− 44 °C; 2752 m). CIVD tests (30 min index finger immersion into 0 °C water) were performed on the 12th, 39–40th, 67–68th, 179th and 234th days of the expedition in a climate-controlled caboose. Heart rate (HR), thermal sensation of the finger, pain sensation, and mean arterial pressure (MAP) were recorded. Minimum, maximum, and mean finger temperature were greater, onset time was earlier ( r  = 0.34), and amplitude was greater ( r  = 0.55) on day 234 than day 12 suggesting that adaptation occurred. Time-point data suggested that the adaptations were progressive. Cardiovascular and perceptual data also showed some adaptation. MAP was lower on day 234 than day 12 ( r  = 0.47 and r  = 0.47) but mean HR was higher ( r  = 0.55). Mean and peak thermal sensation ( r  = 0.31–0.59; r  = 0.31) and perceived pain ( r  = 0.58; r  = 0.36) both improved over the course of the expedition. Of interest to Polar Region visitors, beneficial peripheral and perceptual adaptations to prolonged Antarctic exposure can occur with 2 h of daily outdoor exposure although the rates at which adaptation occurs differ.
doi_str_mv 10.1007/s00300-020-02659-6
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MAP was lower on day 234 than day 12 ( r  = 0.47 and r  = 0.47) but mean HR was higher ( r  = 0.55). Mean and peak thermal sensation ( r  = 0.31–0.59; r  = 0.31) and perceived pain ( r  = 0.58; r  = 0.36) both improved over the course of the expedition. 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MAP was lower on day 234 than day 12 ( r  = 0.47 and r  = 0.47) but mean HR was higher ( r  = 0.55). Mean and peak thermal sensation ( r  = 0.31–0.59; r  = 0.31) and perceived pain ( r  = 0.58; r  = 0.36) both improved over the course of the expedition. 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subjects Adaptation
Biomedical and Life Sciences
Blood flow
Blood pressure
Blood vessels
Dilatation
Ecology
Expeditions
Finger
Frostbite
Heart beat
Heart rate
Injury prevention
Life Sciences
Microbiology
Oceanography
Original Paper
Pain
Pain perception
Peripheral blood
Plant Sciences
Polar environments
Submerging
Thorium
Tourism
Vasodilation
Zoology
title Single-digit cold-induced vasodilation adaptations during an Antarctic expedition
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