During heavy exercise, hyperventilation‐induced hypocapnia leads to cerebral
vasoconstriction, resulting in a reduction in cerebral blood flow (CBF). A reduction in CBF …

Hypoxia increases the ventilatory response to exercise, which leads to hyperventilation-
induced hypocapnia and subsequent reduction in cerebral blood flow (CBF). We studied the …

Cerebral blood flow (CBF) is temporally related to exercise-induced changes in partial
pressure of end-tidal carbon dioxide (PetCO2); hyperoxia is known to enhance this …

Previous studies have suggested that a reduction in cerebral oxygen delivery may limit
motor drive, particularly in hypoxic conditions, where oxygen transport is impaired. We …

With hypoxic exposure ventilation is elevated through the hypoxic ventilatory response. We
tested the hypothesis that the resulting hypocapnia reduces maximal exercise capacity by …

This study evaluated whether the reduction of prefrontal cortex oxygenation (ScO2) during
maximal exercise depends on the hyperventilation‐induced hypocapnic attenuation of …

We examined the effects of exposure to 10–12 days intermittent hypercapnia [IHC: 5: 5-min
hypercapnia (inspired fraction of CO2 0.05)-to-normoxia for 90 min (n= 10)], intermittent …

Cerebral blood flow (CBF) is regulated to secure brain O2 delivery while simultaneously
avoiding hyperperfusion; however, both requisites may conflict during sprint exercise. To …

During exercise, as end-tidal carbon dioxide ([Formula: see text]) drops after the respiratory
compensation point (RCP), so does cerebral blood flow velocity (CBFv) and cerebral …

The effect of moderately extended, intermittent-hypoxia (IH) on cerebral perfusion during
changes in CO2 was unknown. Thus, we assessed the changes in cerebral vascular …