1 ction tests, and pleural thickening on chest roentgenogram.

2 fuse, vesicular rash, and a supporting chest roentgenogram.

3 pacity for carbon monoxide (DLCO), and chest roentgenograms.

4 trocardiograms, frontal fluoroscopy, lateral roentgenograms, and pacing threshold levels were studied

5 derwent ETT placement determination by chest roentgenogram (CXR) and by the optical fiber scope.

6 d diaphragm length at TLC, using plain chest roentgenograms (CXRs), in 25 patients (11 males and 14 f

7 ablished which includes fluoroscopy, lateral roentgenograms, intracardiac and surface electrocardiogr

8 be established on the basis of routine spine roentgenograms, making roentgenography a novel tool for

9 umothorax was seen incidentally on a delayed roentgenogram obtained 3 days later.

10 h unsuspected pneumothorax identified on the roentgenogram obtained immediately after the procedure d

11  justify the avoidance of about 60% of chest roentgenograms obtained after thoracentesis.

12                                          The roentgenograms obtained immediately after the procedures

13  purified protein derivative, atypical chest roentgenogram, previous HIV-related condition, and lymph

14  has left dorsal side pain and routine chest roentgenogram shows pleural nodular masses.

15 ent (showing patchy opacification on a chest roentgenogram) than from an uninvolved segment.

16 ed and seven patients who had abnormal chest roentgenograms underwent whole-body PET imaging using FD

17  feeding tube was advanced and a final chest roentgenogram verified its position below the diaphragm.

18                              The first chest roentgenogram was taken to confirm observations made wit

19 d to 30-cm length and before the first chest roentgenogram was taken, the end-tidal carbon dioxide de