P. Doar

发表

Measurement of plasma glucose under hyperbaric oxygen conditions.

J. Toffaletti, R. Moon, D. Vote, 2000 .

edemapossible implications for immersion pulmonary hemodynamics during immersed prone exercise at 4.7 Effects of hyperoxia on ventilation and pulmonary

R. Moon, A. Boso, M. Natoli, 2015 .

Effects of hyperoxia on ventilation and pulmonary hemodynamics during immersed prone exercise at 4.7 ATA: possible implications for immersion pulmonary edema.

A. J. Walker, R. Moon, M. Natoli, 2010, Journal of applied physiology.

HIGHLIGHTED TOPIC The Physiology and Pathophysiology of the Hyperbaric and Diving Environments Predictors of increased PaCO 2 during immersed prone exercise at 4.7 ATA

W. White, A. Boso, A. Cherry, 2009 .

Predictors of increased PaCO2 during immersed prone exercise at 4.7 ATA.

A. J. Walker, W. White, A. Boso, 2009, Journal of applied physiology.

during simulated dives at 2.8 ATA Effects of age and exercise on physiological dead space

H. J. Mummery, R. Moon, A. Boso, 2015 .

Effects of age and exercise on physiological dead space during simulated dives at 2.8 ATA.

H. J. Mummery, R. Moon, M. Natoli, 2003, Journal of applied physiology.

Effects of head and body cooling on hemodynamics during immersed prone exercise at 1 ATA.

A. J. Walker, R. Moon, A. Boso, 2009, Journal of applied physiology.

The Physiology and Pathophysiology of the Hyperbaric and Diving Environments Effects of head and body cooling on hemodynamics during immersed prone exercise at 1

A. J. Walker, R. Moon, A. Boso, 2009 .

Risk factors for immersion pulmonary edema: hyperoxia does not attenuate pulmonary hypertension associated with cold water-immersed prone exercise at 4.7 ATA.

A. J. Walker, R. Moon, J. Walker, 2011, Journal of applied physiology.