1 mained stable, with most cases affecting the glottis.

2 rib cage compression, mucus moved toward the glottis (1.01 +/- 2.37mm/min); conversely, mucus moved t

3  production, for example, phonation from the glottis (a sound source for speech) begins suddenly when

4 ess laryngeal subsites such as the posterior glottis and subglottis.

5 ozen biopsies from epiglottis, supraglottis, glottis, and subglottis were prepared for conventional h

6 achea-down sheep, all mucus moved toward the glottis at a mean velocity of 2.1 +/- 1.1 mm/min.

7 endent part of the trachea, moved toward the glottis at an average velocity of 2.2 +/- 2.0 mm/min and

8 aneuvers were produced with open- and closed-glottis maneuvers, with varying degrees of straining, an

9 0 mm Hg) were observed with open- and closed-glottis maneuvers.

10  vallecula obscured; type III: vallecula and glottis obscured), as well as obstruction as a result of

11 iseases, many of which involve the posterior glottis or subglottis.

12 s described by a positive vector (toward the glottis) or negative vector (toward the lungs).

13 s to successful tracheal intubation, time to glottis passage and first end-tidal CO2 measurement, deg

14 orm well on detecting the glottal midline in glottis segmentation data, but are outperformed by deep

15 d first end-tidal CO2 measurement, degree of glottis visualization, and number of problems.

16 ngoscopy may decrease this risk by improving glottis visualization.

17                              The view to the glottis was significantly better, but the number of tech

18 derate, and vigorous pressures with a closed glottis were 22, 38, and 90 mm Hg, respectively.

19  airways, they maintain the size of the rima glottis which is essential for enabling maximal air inta

20 ents with intubation injury to the posterior glottis who received early treatment were compared with