Have we missed that neural vasodilator mechanisms may contribute to exercise hyperemia at onset of voluntary exercise?

Whether neurally mediated vasodilatation may contribute to exercise hyperemia has not been completely understood. Bülbring and Burn (1935) found for the first time the existence of sympathetic cholinergic nerve to skeletal muscle contributing to vasodilatation in animals. Blair et al. (1...

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Main Authors: Kanji eMatsukawa, Kei eIshii, Nan eLiang, Kana eEndo
Format: Article
Language:English
Published: Frontiers Media S.A. 2013-02-01
Series:Frontiers in Physiology
Subjects:
Online Access:http://journal.frontiersin.org/Journal/10.3389/fphys.2013.00023/full
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spelling doaj-e4796e357d1a45c191d281a799e8b5622020-11-24T20:45:43ZengFrontiers Media S.A.Frontiers in Physiology1664-042X2013-02-01410.3389/fphys.2013.0002333033Have we missed that neural vasodilator mechanisms may contribute to exercise hyperemia at onset of voluntary exercise?Kanji eMatsukawa0Kei eIshii1Nan eLiang2Kana eEndo3Hiroshima UniversityHiroshima UniversityHiroshima UniversityHiroshima UniversityWhether neurally mediated vasodilatation may contribute to exercise hyperemia has not been completely understood. Bülbring and Burn (1935) found for the first time the existence of sympathetic cholinergic nerve to skeletal muscle contributing to vasodilatation in animals. Blair et al. (1959) reported that atropine-sensitive vasodilatation in skeletal muscle appeared during arousal behavior or mental stress in humans. However, such sympathetic vasodilator mechanism for muscle vascular bed in humans is generally denied at present, because surgical sympathectomy, autonomic blockade, and local anesthesia of sympathetic nerves cause no substantial influence on vasodilatation in muscle not only during mental stress but also during exercise. On the other hand, neural mechanisms may play an important role in regulating blood flow to non-contracting muscle. Careful consideration of the neural mechanisms may lead us to an insight about a possible neural mechanism responsible for exercise hyperemia in contracting muscle. Referring to our recent study measuring muscle tissue blood flow with higher time resolution, this review has focused on whether or not central command may transmit vasodilator signal to skeletal muscle especially at the onset of voluntary exercise.http://journal.frontiersin.org/Journal/10.3389/fphys.2013.00023/fullExerciseskeletal musclenear-infrared spectroscopyvasodilatationcentral command
collection DOAJ
language English
format Article
sources DOAJ
author Kanji eMatsukawa
Kei eIshii
Nan eLiang
Kana eEndo
spellingShingle Kanji eMatsukawa
Kei eIshii
Nan eLiang
Kana eEndo
Have we missed that neural vasodilator mechanisms may contribute to exercise hyperemia at onset of voluntary exercise?
Frontiers in Physiology
Exercise
skeletal muscle
near-infrared spectroscopy
vasodilatation
central command
author_facet Kanji eMatsukawa
Kei eIshii
Nan eLiang
Kana eEndo
author_sort Kanji eMatsukawa
title Have we missed that neural vasodilator mechanisms may contribute to exercise hyperemia at onset of voluntary exercise?
title_short Have we missed that neural vasodilator mechanisms may contribute to exercise hyperemia at onset of voluntary exercise?
title_full Have we missed that neural vasodilator mechanisms may contribute to exercise hyperemia at onset of voluntary exercise?
title_fullStr Have we missed that neural vasodilator mechanisms may contribute to exercise hyperemia at onset of voluntary exercise?
title_full_unstemmed Have we missed that neural vasodilator mechanisms may contribute to exercise hyperemia at onset of voluntary exercise?
title_sort have we missed that neural vasodilator mechanisms may contribute to exercise hyperemia at onset of voluntary exercise?
publisher Frontiers Media S.A.
series Frontiers in Physiology
issn 1664-042X
publishDate 2013-02-01
description Whether neurally mediated vasodilatation may contribute to exercise hyperemia has not been completely understood. Bülbring and Burn (1935) found for the first time the existence of sympathetic cholinergic nerve to skeletal muscle contributing to vasodilatation in animals. Blair et al. (1959) reported that atropine-sensitive vasodilatation in skeletal muscle appeared during arousal behavior or mental stress in humans. However, such sympathetic vasodilator mechanism for muscle vascular bed in humans is generally denied at present, because surgical sympathectomy, autonomic blockade, and local anesthesia of sympathetic nerves cause no substantial influence on vasodilatation in muscle not only during mental stress but also during exercise. On the other hand, neural mechanisms may play an important role in regulating blood flow to non-contracting muscle. Careful consideration of the neural mechanisms may lead us to an insight about a possible neural mechanism responsible for exercise hyperemia in contracting muscle. Referring to our recent study measuring muscle tissue blood flow with higher time resolution, this review has focused on whether or not central command may transmit vasodilator signal to skeletal muscle especially at the onset of voluntary exercise.
topic Exercise
skeletal muscle
near-infrared spectroscopy
vasodilatation
central command
url http://journal.frontiersin.org/Journal/10.3389/fphys.2013.00023/full
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