about
Using thermal stress to model aspects of disease statesThermoregulation in multiple sclerosisEffect of whole-body and local heating on cutaneous vasoconstrictor responses in humans.Use of beat-to-beat cardiovascular variability data to determine the validity of sham therapy as the placebo control in osteopathic manipulative medicine research.Dynamic autoregulation of cutaneous circulation: differential control in glabrous versus nonglabrous skin.Insufficient cutaneous vasoconstriction leading up to and during syncopal symptoms in the heat stressed humanEffect of thermal stress on cardiac functionActive recovery attenuates the fall in sweat rate but not cutaneous vascular conductance after supine exercise.Effect of age on cutaneous vasoconstrictor responses to norepinephrine in humans.Skin-surface cooling elicits peripheral and visceral vasoconstriction in humans.Aerobic training improves in vivo cholinergic responsiveness but not sensitivity of eccrine sweat glandsAge- and limb-related differences in the vasoconstrictor response to limb dependency are not mediated by a sympathetic mechanism in humans.Beneficial effects of elevating cardiac preload on left-ventricular diastolic function and volume during heat stress: implications toward tolerance during a hemorrhagic insultDifferential vasodilatory responses to local heating in facial, glabrous and hairy skin.Modelflow underestimates cardiac output in heat-stressed individualsTopical anaesthesia does not affect cutaneous vasomotor or sudomotor responses in human skin.Effects of heat stress on baroreflex function in humans.Augmented supraorbital skin sympathetic nerve activity responses to symptom trigger events in rosacea patients.Acute volume expansion attenuates hyperthermia-induced reductions in cerebral perfusion during simulated hemorrhage.Autonomic neural control of dynamic cerebral autoregulation in humans.Extracellular calcium chelation and attenuation of calcium entry decrease in vivo cholinergic-induced eccrine sweating sensitivity in humans.Effect of volume loading on the Frank-Starling relation during reductions in central blood volume in heat-stressed humans.Pilocarpine-induced sweat gland function in individuals with multiple sclerosis.Acupuncture attenuates exercise-induced increases in skin sympathetic nerve activity.Spectral characteristics of skin sympathetic nerve activity in heat-stressed humans.Effect of thermal stress on the vestibulosympathetic reflexes in humans.Effects of passive heating on central blood volume and ventricular dimensions in humans.Comparison of skin sympathetic nerve responses to isometric arm and leg exercise.Thermal regulatory responses to submaximal cycling following lower-body cooling in humansEvidence of a myogenic response in vasomotor control of forearm and palm cutaneous microcirculationsOmega-3 fatty acid supplementation augments sympathetic nerve activity responses to physiological stressors in humansOrthostatic challenge does not alter skin sympathetic nerve activity in heat-stressed humansMean body temperature does not modulate eccrine sweat rate during upright tiltEffects of heat and cold stress on central vascular pressure relationships during orthostasis in humansDeterminants of skin sympathetic nerve responses to isometric exerciseMen and women exhibit a similar time to task failure for a sustained, submaximal elbow extensor contractionEffect of thermal stress on Frank-Starling relations in humansMechanisms and modulators of temperature regulationSweating chloride bullets: understanding the role of calcium in eccrine sweat glands and possible implications for hyperhidrosis
P50
Q23922427-57E8C9C5-6D11-4930-A68F-38393856BB4FQ24607209-4C143D9D-7AF7-4794-9BDD-76A7857935FAQ30838089-2A661E44-4005-47B8-B316-1F323266ED2EQ30865112-FDEDC499-5C64-4BDC-B44F-11307A5DDF61Q31151533-E4A7B71D-E137-4E1E-9962-35B77B444818Q33159062-6A240F21-2E59-4B09-AE07-AB1B27E865F5Q33159463-8A7E1FA3-21D9-4FEA-8960-A743BDDB470EQ33193260-DAD5B2DE-1838-46A4-8676-4E6590E07CB0Q33207798-9C3570BD-D1D1-4EBE-B756-9548C16406AAQ33292963-005DCE47-A1D8-4C11-9896-CFE2264FB5CDQ34069123-69EAC658-AB84-43C4-93C7-37A49AA62F0DQ34140893-4B0B3C39-0537-4AB8-A9E4-478C769F3245Q34356421-3E82CDC3-2074-41C9-B132-3691CC41A45FQ34362557-DBCFFA84-4309-4C10-B8E5-3A708B1ED8CDQ34598620-ED18C488-BF09-424A-BE8F-40A16A938991Q34714423-E4FDD62D-5F84-4FED-93B9-93A6473AE8D5Q35074408-0901DB3E-F080-46BE-921E-D117CBA80548Q35680501-C08B4531-FACE-417B-AB2F-45395EF4C1F5Q36924153-EF970BB7-5F30-4D3F-A453-8BFDFCF01DEAQ44160803-1FC317A9-AD09-4779-B7FD-EA9F53F041B1Q44722779-AFD4A4A4-BD91-4848-BF13-DF585F5CC4FDQ44912508-69824600-D698-4001-983B-EF177814EF06Q45217014-F79E467A-63AC-4614-AA23-BD6DCD9ABFFAQ45355703-A877187F-D0AE-4344-A2F0-D5F9F4C48AEBQ47685412-1A4D87E8-712C-4342-8A40-ACEE0A88AE3DQ49271224-C5B09A63-E24D-4DCA-9543-E60238CDDD71Q50672386-5AB5EEA2-9496-4CC6-B9D0-81E31E258411Q51699704-2DC01B85-3365-454A-83C2-CC439998E740Q78526846-F92B1851-CE4A-4AD9-9CCA-9D471059175AQ79945543-7B8B73BB-5A89-417D-B4A8-6880C9735B5EQ80795319-11BACECB-C644-4D39-922C-E2639089BB23Q81040119-95F63144-B802-48E4-9C03-230F4E528758Q81096365-FAE72D63-D54D-4894-87F9-C3E2A0E51899Q81364099-E4006593-95F8-4A3B-BE7D-93990C54EEF4Q81469100-C4536B1E-0508-46D9-A8E2-DCC07521F3C2Q82300399-BBCE0CC7-51BD-4AAB-9AAD-BF9598A0E481Q83773085-F789FA35-595C-4258-8055-2085FB4B7394Q84774061-16E6705B-5A36-4927-A73B-E00504A8C694Q85956727-0525DF6E-6AF9-4C89-8635-40FD2401CAAF
P50
description
onderzoeker
@nl
researcher
@en
հետազոտող
@hy
name
Thad E Wilson
@nl
Thad E Wilson
@sl
Thad E. Wilson
@en
Thad E. Wilson
@es
type
label
Thad E Wilson
@nl
Thad E Wilson
@sl
Thad E. Wilson
@en
Thad E. Wilson
@es
prefLabel
Thad E Wilson
@nl
Thad E Wilson
@sl
Thad E. Wilson
@en
Thad E. Wilson
@es
P106
P1153
7403495604
P31
P496
0000-0002-4345-1616