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

2 ction tests, and pleural thickening on 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              Anthropometrics applied to hand roentgenograms showed that metacarpophalangeal measureme

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

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

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

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

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

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