1 muscles of the cat hindlimb were placed in a plethysmograph.

2 ied in both a vertical and a horizontal body plethysmograph.

3  monitored during sleep in a horizontal body plethysmograph.

4  calculated from pressure changes within the plethysmograph.

5 .0-mm endotracheal tube attached to a 48.9-L plethysmograph.

6 ed by use of a Buxco unrestrained whole-body plethysmograph.

7 ) using a new, commercially available infant plethysmograph.

8 e animals, respiration was monitored by body plethysmograph along with oxygen consumption (VO2), CO2

9                  Lungs then were placed in a plethysmograph and ventilated for 2 hrs with standardize

10 re (intra-arterial catheter or photoelectric plethysmograph), and flow velocity in the middle cerebra

11 ly moving animals breathing 5% CO2 in air in plethysmograph chambers.

12  Outcomes included blood pressure (tail cuff plethysmograph), echocardiographic and invasive measures

13 formance of an infant-sized air-displacement plethysmograph (PEA POD Infant Body Composition System)

14                              In a whole-body plethysmograph, respiratory responses to 5% CO(2) were c

15 ratory function was measured with a head-out plethysmograph system in conscious rats.

16   To test this hypothesis we used a head-out plethysmograph system to evaluate respiratory parameters

17 ial virus (RSV) were studied in a whole-body plethysmograph to determine if signs of respiratory illn

18 , we measured ventilation using a whole-body plethysmograph, together with EEG and EMG.

19                   A whole-body, flow-through plethysmograph was used to measure hypoxic and hypercapn