Regulatory mechanisms of cerebral blood flow during exercise: new concepts.
about
Physical exercise-induced protection on ischemic cardiovascular and cerebrovascular diseasesHigh-intensity interval exercise and cerebrovascular health: curiosity, cause, and consequenceBrain BDNF levels elevation induced by physical training is reduced after unilateral common carotid artery occlusion in rats.Aging blunts hyperventilation-induced hypocapnia and reduction in cerebral blood flow velocity during maximal exercise.Alveolar gas exchange and tissue oxygenation during incremental treadmill exercise, and their associations with blood O(2) carrying capacity.Aerobic Exercise for Reducing Migraine Burden: Mechanisms, Markers, and Models of Change ProcessesAcute volume expansion attenuates hyperthermia-induced reductions in cerebral perfusion during simulated hemorrhage.Regulation of cerebral blood flow in mammals during chronic hypoxia: a matter of balance.Physical exercise alleviates debilities of normal aging and Alzheimer's disease.The functional role of the alpha-1 adrenergic receptors in cerebral blood flow regulation.Peripheral circulation.Relationship between cognitive function and regulation of cerebral blood flow.Brain-derived neurotrophic factor of the cerebral microvasculature: a forgotten and nitric oxide-dependent contributor of brain-derived neurotrophic factor in the brain.Exercise training could improve age-related changes in cerebral blood flow and capillary vascularity through the upregulation of VEGF and eNOSThe Effect of Psychomotor Performance, Cerebral and Arterial Blood Saturation between African-American and Caucasian Males Before, During and After Normobaric Hypoxic Exercise.Dehydration affects cerebral blood flow but not its metabolic rate for oxygen during maximal exercise in trained humans.Blood flow distribution during heat stress: cerebral and systemic blood flow.The effect of changes in cerebral blood flow on cognitive function during exercise.Estimation of cerebral vascular tone during exercise; evaluation by critical closing pressure in humans.Effects of aerobic exercise training on large-conductance Ca(2+)-activated K (+) channels in rat cerebral artery smooth muscle cells.Assessment of cerebral autoregulation: the quandary of quantification.Integration of Central and Peripheral Regulation of the Circulation during Exercise: Acute and Chronic Adaptations.Effect of increases in cardiac contractility on cerebral blood flow in humans.The role of exercise in mitigating subcortical ischemic vascular cognitive impairment.Transcranial Doppler-determined change in posterior cerebral artery blood flow velocity does not reflect vertebral artery blood flow during exercise.Pilot physiology, cognition and flight performance during flight simulation exposed to a 3810-m hypoxic condition.Heat stress exacerbates the reduction in middle cerebral artery blood velocity during prolonged self-paced exercise.Effects of acute hypoxia on cerebrovascular responses to carbon dioxide.Exercise training increases inwardly rectifying K+ current and augments K+-mediated vasodilatation in deep femoral artery of rats
P2860
Q26765311-C949EE31-E3A2-4800-B6BA-5ACC35085DAEQ27692080-849F3A63-2CC8-4D24-A3A0-2B45111375AEQ34727179-80C536F4-9640-47BC-8ABE-B3912B681CEEQ35916463-190E4843-8CEF-4DEE-8949-72EFD8E99EA7Q36193686-4213FDA0-BF54-4298-8E31-8881D8C062ADQ36743908-0B43E3DD-D380-45EA-88DE-F61E03A6A344Q36924153-073A95DF-5BC8-4576-BF77-D52E5C57CCDAQ37555773-868943B8-5A06-4370-98E0-ADE557FB271CQ37794278-6CD8D2C1-9922-4E19-BB7F-6B19FF3D160EQ37948765-A4A4C8CD-9E77-4941-A34F-CD885BB097DEQ38111280-EB488521-DA66-4F38-9669-89FD15C0CFCDQ39117015-6382F088-6365-41A3-83D5-F645E38202EBQ39641511-26C10DB8-59CC-41D7-B37A-49DF560B1BCAQ41264055-964131BE-3AEC-421F-8559-ADECE0A50228Q41685277-3F3EC4BD-F4CB-43B5-A517-4AA8A7DF4AF4Q42083015-7EA6C30F-5910-429A-B3E7-0F3DBFF2893EQ42844938-839F6635-649A-4D76-AEE1-3B20C85CFB27Q43070601-44997C87-43FA-4088-B64C-C91F22460A75Q43130314-C3FD9205-433F-43DF-828E-90E9C1D4C25AQ43662348-C748B46B-E243-494F-B193-AD8413386470Q45076193-ABFB87EE-75D8-4BED-AF19-EADBA7BEF3B2Q47651108-38E59853-DDB2-4674-A9E1-9E8B4A02E9DFQ47668951-4E62B5B9-8F99-46D1-A9A2-F5C4BEA4BEBEQ48143394-DF6B13DE-4443-4272-A94C-28971F386541Q51008896-A21EA487-B662-43E7-90A1-EACC18B40691Q51768025-CA5CCA7E-AD5E-41D6-A4AE-44EA47D5BEC1Q53516709-24AA46CE-8CE2-45D2-A333-AD1D52B87BF3Q53597667-42BFE67C-E357-4858-8707-144C6FA8A260Q59114642-332786E6-2E3A-45C0-8A4E-7A187474B74B
P2860
Regulatory mechanisms of cerebral blood flow during exercise: new concepts.
description
article científic
@ca
article scientifique
@fr
articolo scientifico
@it
artigo científico
@pt
bilimsel makale
@tr
scientific article published on July 2009
@en
vedecký článok
@sk
vetenskaplig artikel
@sv
videnskabelig artikel
@da
vědecký článek
@cs
name
Regulatory mechanisms of cerebral blood flow during exercise: new concepts.
@en
Regulatory mechanisms of cerebral blood flow during exercise: new concepts.
@nl
type
label
Regulatory mechanisms of cerebral blood flow during exercise: new concepts.
@en
Regulatory mechanisms of cerebral blood flow during exercise: new concepts.
@nl
prefLabel
Regulatory mechanisms of cerebral blood flow during exercise: new concepts.
@en
Regulatory mechanisms of cerebral blood flow during exercise: new concepts.
@nl
P1476
Regulatory mechanisms of cerebral blood flow during exercise: new concepts.
@en
P2093
Philip N Ainslie
P304
P356
10.1097/JES.0B013E3181AA64D7
P577
2009-07-01T00:00:00Z