Ventilatory response to exercise does not evidence electroencephalographical respiratory-related activation of the cortical premotor circuitry in healthy humans

Aim The neural structures responsible for the coupling between ventilatory control and pulmonary gas exchange during exercise have not been fully identified. Suprapontine mechanisms have been hypothesized but not formally evidenced. Because the involvement of a premotor circuitry in the compensation...

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Veröffentlicht in:Acta Physiologica 2012-07, Vol.205 (3), p.356-362
Hauptverfasser: Jutand, L., Tremoureux, L., Pichon, A., Delpech, N., Denjean, A., Raux, M., Straus, C., Similowski, T.
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container_end_page 362
container_issue 3
container_start_page 356
container_title Acta Physiologica
container_volume 205
creator Jutand, L.
Tremoureux, L.
Pichon, A.
Delpech, N.
Denjean, A.
Raux, M.
Straus, C.
Similowski, T.
description Aim The neural structures responsible for the coupling between ventilatory control and pulmonary gas exchange during exercise have not been fully identified. Suprapontine mechanisms have been hypothesized but not formally evidenced. Because the involvement of a premotor circuitry in the compensation of inspiratory mechanical loads has recently been described, we looked for its implication in exercise‐induced hyperpnea. Methods Electroencephalographical recordings were performed to identify inspiratory premotor potentials (iPPM) in eight physically fit normal men during cycling at 40 and 70% of their maximal oxygen consumption (V·O2max). Relaxed pedalling (0 W) and voluntary sniff manoeuvres were used as negative and positive controls respectively. Results Voluntary sniffs were consistently associated with iPPMs. This was also the case with voluntarily augmented breathing at rest (in three subjects tested). During the exercise protocol, no respiratory‐related activity was observed whilst performing bouts of relaxed pedalling. Exercise‐induced hyperpnea was also not associated with iPPMs, except in one subject. Conclusion We conclude that if there are cortical mechanisms involved in the ventilatory adaptation to exercise in physically fit humans, they are distinct from the premotor mechanisms activated by inspiratory load compensation.
doi_str_mv 10.1111/j.1748-1716.2012.02427.x
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Suprapontine mechanisms have been hypothesized but not formally evidenced. Because the involvement of a premotor circuitry in the compensation of inspiratory mechanical loads has recently been described, we looked for its implication in exercise‐induced hyperpnea. Methods Electroencephalographical recordings were performed to identify inspiratory premotor potentials (iPPM) in eight physically fit normal men during cycling at 40 and 70% of their maximal oxygen consumption (V·O2max). Relaxed pedalling (0 W) and voluntary sniff manoeuvres were used as negative and positive controls respectively. Results Voluntary sniffs were consistently associated with iPPMs. This was also the case with voluntarily augmented breathing at rest (in three subjects tested). During the exercise protocol, no respiratory‐related activity was observed whilst performing bouts of relaxed pedalling. Exercise‐induced hyperpnea was also not associated with iPPMs, except in one subject. Conclusion We conclude that if there are cortical mechanisms involved in the ventilatory adaptation to exercise in physically fit humans, they are distinct from the premotor mechanisms activated by inspiratory load compensation.</description><identifier>ISSN: 1748-1708</identifier><identifier>EISSN: 1748-1716</identifier><identifier>DOI: 10.1111/j.1748-1716.2012.02427.x</identifier><identifier>PMID: 22356255</identifier><language>eng</language><publisher>Oxford: Blackwell Publishing Ltd</publisher><subject>Adult ; Bicycling ; Biological and medical sciences ; cerebral cortex ; Cerebral Cortex - physiology ; control of breathing ; Electroencephalography ; exercise ; Exercise - physiology ; Fundamental and applied biological sciences. 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Suprapontine mechanisms have been hypothesized but not formally evidenced. Because the involvement of a premotor circuitry in the compensation of inspiratory mechanical loads has recently been described, we looked for its implication in exercise‐induced hyperpnea. Methods Electroencephalographical recordings were performed to identify inspiratory premotor potentials (iPPM) in eight physically fit normal men during cycling at 40 and 70% of their maximal oxygen consumption (V·O2max). Relaxed pedalling (0 W) and voluntary sniff manoeuvres were used as negative and positive controls respectively. Results Voluntary sniffs were consistently associated with iPPMs. This was also the case with voluntarily augmented breathing at rest (in three subjects tested). During the exercise protocol, no respiratory‐related activity was observed whilst performing bouts of relaxed pedalling. Exercise‐induced hyperpnea was also not associated with iPPMs, except in one subject. 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Suprapontine mechanisms have been hypothesized but not formally evidenced. Because the involvement of a premotor circuitry in the compensation of inspiratory mechanical loads has recently been described, we looked for its implication in exercise‐induced hyperpnea. Methods Electroencephalographical recordings were performed to identify inspiratory premotor potentials (iPPM) in eight physically fit normal men during cycling at 40 and 70% of their maximal oxygen consumption (V·O2max). Relaxed pedalling (0 W) and voluntary sniff manoeuvres were used as negative and positive controls respectively. Results Voluntary sniffs were consistently associated with iPPMs. This was also the case with voluntarily augmented breathing at rest (in three subjects tested). During the exercise protocol, no respiratory‐related activity was observed whilst performing bouts of relaxed pedalling. Exercise‐induced hyperpnea was also not associated with iPPMs, except in one subject. 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subjects Adult
Bicycling
Biological and medical sciences
cerebral cortex
Cerebral Cortex - physiology
control of breathing
Electroencephalography
exercise
Exercise - physiology
Fundamental and applied biological sciences. Psychology
Humans
Male
Motor Cortex - physiology
Oxygen Consumption - physiology
Pulmonary Ventilation - physiology
Respiration
Rest - physiology
Vertebrates: anatomy and physiology, studies on body, several organs or systems
title Ventilatory response to exercise does not evidence electroencephalographical respiratory-related activation of the cortical premotor circuitry in healthy humans
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