Journal of Applied Physiology
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J Appl Physiol 83: 550-558, 1997;
8750-7587/97 $5.00
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Journal of Applied Physiology
Vol. 83, No. 2, pp. 550-558, August 1997
CELLULAR ASPECTS OF LUNG FUNCTION

Aerosolized manganese SOD decreases hyperoxic pulmonary injury in primates. I. Physiology and biochemistry

Steven G. Simonson, Karen E. Welty-Wolf, Yuh-Chin T. Huang, David E. Taylor, Stephen P. Kantrow, Martha S. Carraway, James D. Crapo, and Claude A. Piantadosi

Departments of Medicine and Anesthesiology, Duke University Medical Center, Durham, North Carolina 27710

Received 19 August 1996; accepted in final form 31 March 1997.

Simonson, Steven G., Karen E. Welty-Wolf, Yuh-Chin T. Huang, David E. Taylor, Stephen P. Kantrow, Martha S. Carraway, James D. Crapo, and Claude A. Piantadosi. Aerosolized manganese SOD decreases hyperoxic pulmonary injury in primates. I. Physiology and biochemistry. J. Appl. Physiol. 83(2): 550-558, 1997.---Prolonged hyperoxia causes lung injury and respiratory failure secondary to oxidative tissue damage mediated, in part, by the superoxide anion. We hypothesized that aerosol treatment with recombinant human manganese superoxide dismutase (rhMnSOD) would attenuate hyperoxic lung damage in primates. Adult baboons were anesthetized and ventilated with 100% oxygen for 96 h or until death. Six animals were treated with aerosolized rhMnSOD (3 mg · kg-1 · day-1 in divided doses), and six control animals did not receive enzyme therapy. Physiological variables were recorded every 12 h, and ventilation-perfusion ratio relationships were evaluated by using the multiple inert-gas elimination technique. After the experiments, surfactant composition and lung edema were measured. We found that rhMnSOD significantly decreased pulmonary shunt fraction (P < 0.01) and preserved arterial oxygenation (P < 0.01) during hyperoxia. The rhMnSOD increased lung phospholipids, phosphatidylcholine and disaturated phosphatidylcholine, and decreased lung edema in this model. Testing of higher and lower doses of MnSOD (1 and 10 mg · kg-1 · day-1) in two other groups of baboons produced variable physiological protection, suggesting a "window" of effective dosage. We conclude that aerosolized MnSOD (3 mg · kg-1 · day-1) affords significant preservation of pulmonary gas exchange during hyperoxic lung injury.

antioxidant enzymes; superoxide dismutase; oxygen; acute respiratory distress syndrome; acute lung injury

0161-7567/97 $5.00 Copyright © 1997 the American Physiological Society




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