Effects of submersion on V̇O2: comparing maximum aerobic exertion on land and underwater
Authors:
Nicholas C. Bartlett (Medical Student, DMT)
Duke University School of Medicine, Center for Hyperbaric Medicine & Environmental Physiology, Durham, NC, USA
Matthew S. Makowski (M.D.)
Dept. of Medicine and Anesthesiology, Duke University School of Medicine, Durham, NC, USA
Mary C. Ellis (M.D.)
Depts. of Emergency Medicine and Anesthesiology, Duke University School of Medicine, Durham, NC, USA
Michael J. Natoli (MS, CHT)
Administrative Director, Center for Hyperbaric Medicine & Environmental Physiology, Durham, NC, USA
Grace H. Maggiore (Research Assistant)
Center for Hyperbaric Medicine & Environmental Physiology, Durham, NC, USA
Mary C. Wright (MS, Biostatistician)
Center for Hyperbaric Medicine & Environmental Physiology, Durham, NC, USA
Bruce J. Derrick (M.D.)
Depts. of Emergency Medicine and Anesthesiology, Center for Hyperbaric Medicine & Environmental Physiology, Durham, NC, USA
Richard E. Moon (M.D.)
Depts. of Medicine and Anesthesiology
Medical Director, Center for Hyperbaric Medicine & Environmental Physiology, Durham, NC, USA
Keywords: Diving, submersed, oxygen consumption, preload, minute ventilation
Title: Effects of submersion on V̇O2: comparing maximum aerobic exertion on land and underwater
SHORT, RUNNING TITLE: COMPARING MAXIMAL AEROBIC EXERTION ON LAND AND UNDERWATER.
ABSTRACT
Introduction: Submersion results in blood redistribution into the pulmonary circulation, causing changes in pulmonary compliance and increased cardiac preload. Few studies have compared incremental exercise to exhaustion (V̇O2maxtesting) in a dry environment with ..