Journal of Applied Physiology
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J Appl Physiol 90: 2221-2230, 2001;
8750-7587/01 $5.00
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Vol. 90, Issue 6, 2221-2230, June 2001

Hyperoxia-induced changes in mouse lung mechanics: forced oscillations vs. barometric plethysmography

Ferenc Peták1,2, Walid Habre3, Yves R. Donati4,5, Zoltán Hantos4, and Constance Barazzone-Argiroffo4,5

1 Division of Anesthesiologic Investigations, Departments of 4 Pathology and 5 Pediatrics, University of Geneva, 1211 Geneva; 3 Division of Anesthesia, Geneva Children's Hospital, 1205 Geneva, Switzerland; and 2 Department of Medical Informatics and Engineering, University of Szeged, 6720 Szeged, Hungary

Hyperoxia-induced lung damage was investigated via airway and respiratory tissue mechanics measurements with low-frequency forced oscillations (LFOT) and analysis of spontaneous breathing indexes by barometric whole body plethysmography (WBP). WBP was performed in the unrestrained awake mice kept in room air (n = 12) or in 100% oxygen for 24 (n = 9), 48 (n = 8), or 60 (n = 9) h, and the indexes, including enhanced pause (Penh) and peak inspiratory and expiratory flows, were determined. The mice were then anesthetized, paralyzed, and mechanically ventilated. Airway resistance, respiratory system resistance at breathing frequency, and tissue damping and elastance were identified from the LFOT impedance data by model fitting. The monotonous decrease in airway resistance during hyperoxia correlated best with the increasing peak expiratory flow. Respiratory system resistance and tissue damping and elastance were unchanged up to 48 h of exposure but were markedly elevated at 60 h, with associated decreases in peak inspiratory flow. Penh was increased at 24 h and sharply elevated at 60 h. These results indicate no adverse effect of hyperoxia on the airway mechanics in mice, whereas marked parenchymal damage develops by 60 h. The inconsistent relationships between LFOT parameters and WBP indexes suggest that the changes in the latter reflect alterations in the breathing pattern rather than in the mechanical properties. It is concluded that, in the presence of diffuse lung disease, Penh is inadequate for characterization of the mechanical status of the respiratory system.

respiratory mechanics; airway resistance; lung elastance; enhanced pause


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