During hypoxic exercise some vasoconstriction is needed to match O2 delivery with O2 demand at the microcirculatory level.
about
Regulation of increased blood flow (hyperemia) to muscles during exercise: a hierarchy of competing physiological needsThe ergogenic effect of recombinant human erythropoietin on VO2max depends on the severity of arterial hypoxemia.Functional sympatholysis and sympathetic escape in a theoretical model for blood flow regulation.Skeletal muscle myofibrillar and sarcoplasmic protein synthesis rates are affected differently by altitude-induced hypoxia in native lowlanders.Disparity in regional and systemic circulatory capacities: do they affect the regulation of the circulation?Is pulmonary gas exchange during exercise in hypoxia impaired with the increase of cardiac output?Anti-hypotensive treatment and endothelin blockade synergistically antagonize exercise fatigue in rats under simulated high altitudeDoes cerebral oxygen delivery limit incremental exercise performance?Local control of skeletal muscle blood flow during exercise: influence of available oxygen.Sympathetic restraint of muscle blood flow during hypoxic exercise.Effect of altitude on football performance.Changes in skeletal muscle oxygenation during exercise measured by near-infrared spectroscopy on ascent to altitude.Skeletal muscle vasodilatation during maximal exercise in health and disease.Peripheral circulation.The association of cardiorespiratory fitness with endothelial or smooth muscle vasodilator function.Integrative Conductance of Oxygen During Exercise at Altitude.Biology of VO2 max: looking under the physiology lamp.Prolonged adenosine triphosphate infusion and exercise hyperemia in humans.Maximal heart rate does not limit cardiovascular capacity in healthy humans: insight from right atrial pacing during maximal exercise.Regulation of human skeletal muscle perfusion and its heterogeneity during exercise in moderate hypoxia.Comparison of exogenous adenosine and voluntary exercise on human skeletal muscle perfusion and perfusion heterogeneity.Inhibition of α-adrenergic tone disturbs the distribution of blood flow in the exercising human limb.On the mechanisms that limit oxygen uptake during exercise in acute and chronic hypoxia: role of muscle mass.ATP: a double-edged signalling molecule regulating the flow of oxygen.Graded sympatholytic effect of exogenous ATP on postjunctional alpha-adrenergic vasoconstriction in the human forearm: implications for vascular control in contracting muscle.Evidence that reduced skeletal muscle recruitment explains the lactate paradox during exercise at high altitude.Mitochondrial function in human skeletal muscle following high-altitude exposure.Assessment of cardiac output with transpulmonary thermodilution during exercise in humans.LunHab: interactive effects of a 10 day sustained exposure to hypoxia and bedrest on aerobic exercise capacity in male lowlanders.Restoring heat stress-associated reduction in middle cerebral artery velocity does not reduce fatigue in the heat.PlanHab: hypoxia exaggerates the bed-rest-induced reduction in peak oxygen uptake during upright cycle ergometry.The effects of exercise training under mild hypoxic conditions on body composition and circulating adiponectin in postmenopausal women.Chronic hypoxia increases arterial blood pressure and reduces adenosine and ATP induced vasodilatation in skeletal muscle in healthy humans.Commentaries on viewpoint: evidence that reduced skeletal muscle recruitment explains the lactate paradox during exercise at high altitudeHuman muscle net K+ release during exercise is unaffected by elevated anaerobic metabolism, but reduced after prolonged acclimatization to 4,100 m
P2860
Q27001180-A1881A52-122E-4F91-BC6D-AE01EF9567E5Q33361626-9DF89798-93AB-4B04-83F5-0297A20A0B3EQ33659907-2B30D3B0-E06E-4CED-ADA2-EBBBAB99722BQ33781159-8CD66AFC-338F-453D-93C5-D105FC23C27FQ34447030-A26BCBD6-77A7-4641-8114-087B762A1B1FQ34776493-FE5F015A-BF6B-4317-8C3F-F691681CAAA1Q35194035-C374095C-40EE-4492-A13B-7DD9F0F9CCBDQ35601673-CF292410-5420-4740-9B35-7FC561309721Q35601718-B9AFB619-7319-4EC1-A808-5071A314196CQ37210891-9A179F28-CA5F-4D73-AB05-24DC4F32C39BQ37229984-F55FD9B7-37C6-4ACD-BCCF-01C27C6F8668Q37449916-8E55EA3A-FD4B-4CAF-83D3-62E0B4F08F12Q38048737-6CEF2B7B-1A82-4389-A79D-C6F74D070F3FQ38111280-F218AB21-AD32-4639-A397-4A8CE58EEA87Q38258729-0657D84A-2226-4E02-9EB1-FCA5DB23A40CQ38876617-4099EEBC-9EA6-4C43-8E1C-0DAA8A68AD2AQ39020493-4800BD24-ADF0-41B7-9980-5C2AA9CBC71FQ42089069-780C1B45-6E98-427B-9092-030C095ACAACQ42241820-037132D0-AFBB-41AA-9C45-B90ECE4A0362Q43081547-E548C3E3-7592-451F-9DFB-9B6F5C44BC3DQ43235355-3F86F7F5-FF69-488E-BB02-85ABE2224238Q44187589-B9192FA2-742A-46B1-AFF5-AB41300677DEQ46220420-356A2B42-853B-4310-A084-5EA44E42A513Q46395479-D3FFCF67-3FBF-4B66-AEB5-772FD1C26888Q46490402-CD04F6F4-8085-4B1D-8045-9F0515B60725Q46616350-3B0956DD-0D4A-421D-A0AB-D135CD31D054Q47705588-08C09FFD-2D63-421B-AE1D-5CB32DE9E452Q47794770-23163FFE-04DD-4F29-AA3E-CA5D63775F44Q47924353-351C3F82-CF21-46D7-85A5-E1B75FC4ACE0Q48192454-C7953EC6-A507-48E9-ADA0-77FBC59B32DEQ48656861-7A804F49-7919-4472-98BB-78C5C33B5524Q51136357-C74E6C6C-8AEB-4D54-BB3C-F6BFA70AD680Q51717573-B6C7822A-1397-495A-AEDB-C320CA7098C5Q57102989-03624D06-0CE2-42AE-BDAD-4595221C538FQ58818180-E4430223-DD3B-4868-9C78-478BE29C3C76
P2860
During hypoxic exercise some vasoconstriction is needed to match O2 delivery with O2 demand at the microcirculatory level.
description
2007 nî lūn-bûn
@nan
2007年の論文
@ja
2007年学术文章
@wuu
2007年学术文章
@zh
2007年学术文章
@zh-cn
2007年学术文章
@zh-hans
2007年学术文章
@zh-my
2007年学术文章
@zh-sg
2007年學術文章
@yue
2007年學術文章
@zh-hant
name
During hypoxic exercise some v ...... at the microcirculatory level.
@en
During hypoxic exercise some v ...... at the microcirculatory level.
@nl
type
label
During hypoxic exercise some v ...... at the microcirculatory level.
@en
During hypoxic exercise some v ...... at the microcirculatory level.
@nl
prefLabel
During hypoxic exercise some v ...... at the microcirculatory level.
@en
During hypoxic exercise some v ...... at the microcirculatory level.
@nl
P2093
P2860
P1476
During hypoxic exercise some v ...... at the microcirculatory level.
@en
P2093
Bengt Saltin
Carsten Lundby
Paul Robach
Robert Boushel
P2860
P304
P356
10.1113/JPHYSIOL.2007.146035
P407
P577
2007-10-11T00:00:00Z