1 on delivered to the RTN region in vivo via a
fiberoptic activated the CO(2)-sensitive neurons vigorou
2 A defining characteristic of rigid
fiberoptic and videolaryngoscopic techniques is that glo
3 The nanobiosensor is a unique
fiberoptics-
based tool which allows the minimally invasi
4 were inoculated with P. haemolytica A1 via a
fiberoptic bronchoscope and euthanized at 2 h postinocul
5 omy and familiarity with the use of flexible
fiberoptic bronchoscope are key components while managin
6 gnition of tracheobronchial anatomy with the
fiberoptic bronchoscope is mandatory to increase the suc
7 A
fiberoptic bronchoscope is not always needed for left do
8 The debate continues as to whether a
fiberoptic bronchoscope must be used to position a doubl
9 A
fiberoptic bronchoscope was wedged in the anterior segme
10 ice of which approach to use, 'blind' versus
fiberoptic bronchoscope-assisted, is influenced by many
11 onchoalveolar lavage was performed through a
fiberoptic bronchoscope.
12 patient is awake with the aid of a flexible
fiberoptic bronchoscope.
13 Today, in most institutions,
fiberoptic bronchoscopes of different diameters are avai
14 Fiberoptic bronchoscopes were usually only available in
15 CT findings were correlated with
fiberoptic bronchoscopic findings and clinical records.
16 ,586 central venous catheter insertions, 457
fiberoptic bronchoscopies, and 295 chest tube insertions
17 6 infants and children referred for flexible
fiberoptic bronchoscopy (FFB) we examined the larynx bef
18 Findings were correlated with the results of
fiberoptic bronchoscopy (FOB).
19 Patients with ARDS and controls underwent
fiberoptic bronchoscopy and bronchoalveolar lavage.
20 his procedure was followed within 30 mins by
fiberoptic bronchoscopy and bronchoalveolar lavage.
21 Finally, residents had less access to
fiberoptic bronchoscopy and chest tube insertion.
22 aseline and after treatment phase using both
fiberoptic bronchoscopy and computed tomography scan.
23 assess airway epithelial samples obtained by
fiberoptic bronchoscopy from 81 individuals [normal nons
24 rtiary medical center on patients undergoing
fiberoptic bronchoscopy in the evaluation of enlarged me
25 heobronchial anatomy and the use of flexible
fiberoptic bronchoscopy in thoracic anesthesia.
26 Flexible
fiberoptic bronchoscopy must be considered an art in the
27 from bronchial specimens obtained by either
fiberoptic bronchoscopy or lobectomy.
28 view is to highlight the circumstances where
fiberoptic bronchoscopy should be used in conjunction wi
29 Both fluorescence-mediated tomography and
fiberoptic bronchoscopy techniques have the potential to
30 This review is part of Pro and Contra use of
fiberoptic bronchoscopy to confirm the position of a dou
31 Fiberoptic bronchoscopy was performed 6 h after each exp
32 Fiberoptic bronchoscopy was used to record RP and airway
33 with lung isolation techniques and flexible
fiberoptic bronchoscopy while participating in thoracic
34 ography, methacholine challenge testing, and
fiberoptic bronchoscopy with bronchoalveolar lavage.
35 Fiberoptic bronchoscopy with collection of BAL fluid was
36 ometry, bronchial provocation challenge, and
fiberoptic bronchoscopy with endobronchial biopsy (alway
37 erative day when the clinical evaluation and
fiberoptic bronchoscopy with transbronchial biopsies and
38 n = 53; control subjects, n = 16) underwent
fiberoptic bronchoscopy, bronchoalveolar lavage (BAL), a
39 1.6-16 years) underwent clinically indicated
fiberoptic bronchoscopy, bronchoalveolar lavage (BAL), e
40 ing airways using near-infrared fluorescence
fiberoptic bronchoscopy, in lung parenchyma using intrav
41 Diagnostic
fiberoptic bronchoscopy, lumber puncture, magnetic reson
42 Fiberoptic bronchoscopy, with isolated left main bronchu
43 Fiberoptic bronchoscopy, with proximal airway lavage (PA
44 check the tube is positioned correctly using
fiberoptic bronchoscopy.
45 om 70 pediatric patients undergoing flexible
fiberoptic bronchoscopy.
46 ho underwent bronchoalveolar lavage (BAL) by
fiberoptic bronchoscopy.
47 nary function laboratories and the advent of
fiberoptic bronchoscopy; the rise of asthma, chronic obs
48 We used a novel
fiberoptic catheter imaging system and a genetically enc
49 A
fiberoptic catheter imaging system was developed to impl
50 ence intensities, which were measured with a
fiberoptic catheter placed above wells of varying NIR fl
51 s built in which images created with a 2.7-F
fiberoptic catheter were relayed through a dichroic mirr
52 prospectively evaluate the ability of micro-
fiberoptic catheters, which simultaneously record white
53 evanescent field absorption spectroscopy via
fiberoptic chemical sensors.
54 tivity laser-based immunoassay multi-arrayed
fiberoptics conjugated with rolling circle amplification
55 A 9-Fr introducer is recommended, as
fiberoptic damage may have occurred when the 8.5-Fr intr
56 Cattle were infected with P. haemolytica via
fiberoptic deposition of organisms into the posterior pa
57 The first integrated
fiberoptic DNA sensor array capable of simultaneously mo
58 The
fiberoptic DNA sensor array was used to discriminate a p
59 Improvements and new developments in
fiberoptic endoscope technology, training of airway endo
60 The
fiberoptic endoscope, or fiberscope, was a flexible inst
61 Clinical swallowing examination and serial
fiberoptic endoscopic evaluation of swallowing (days 3,
62 consistencies, and liquids was tested using
fiberoptic endoscopic evaluation of swallowing at three
63 gia in critical illness polyneuropathy using
fiberoptic endoscopic evaluation of swallowing.
64 in 17 of 22 patients (77%) during the first
fiberoptic endoscopic evaluation of swallowing.
65 ENT workup including examination and a nasal
fiberoptic endoscopy by an otorhinolaryngologist in the
66 Fiberoptic endoscopy was developed at the University of
67 ry infection and is easily detected by nasal
fiberoptic endoscopy.
68 ll have a role, despite the extensive use of
fiberoptic endoscopy.
69 after TMR, using a low energy, short-pulse,
fiberoptic excimer laser.
70 ss-sectional area (CSA) were determined from
fiberoptic images (five frames per second) normalized to
71 Results with
fiberoptic imaging demonstrated that all tumors were vis
72 Fiberoptic imaging in an isolated, sealed upper airway w
73 In recent years, advances in
fiberoptic imaging technology, applied to other surgical
74 In recent years, advances in
fiberoptic imaging technology, applied to other surgical
75 Pharyngeal airway
fiberoptic imaging was performed in 10 decerebrate cats
76 Fiberoptic imaging was performed in six decerebrate, tra
77 tomidine and proven techniques such as awake
fiberoptic intubation can be used to safely treat these
78 In cases with laryngeal involvement,
fiberoptic intubation may be necessary.
79 While
fiberoptic intubation remains the preferred choice of ma
80 structing medical professionals in direct or
fiberoptic intubation, surgical airway, and/or supraglot
81 refore challenge the preeminence of flexible
fiberoptic intubation.
82 e used to teach both direct laryngoscopy and
fiberoptic intubation.
83 A
fiberoptic laryngeal examination should be performed in
84 nterviewed and offered further evaluation by
fiberoptic laryngotracheoscopy (FOL) and tracheal comput
85 ng UV-A illumination with a dissolved oxygen
fiberoptic microsensor.
86 A
fiberoptic optical oxygen sensor (optode) was used to de
87 was measured in two rats with a fluorescence
fiberoptic oxygen probe.
88 levels in the vitreous were measured with a
fiberoptic oxygen sensor.
89 ocyanine green clearance, as determined by a
fiberoptic physiologic monitoring system, also improved
90 1) The investigation of
fiberoptic PO2, PCO2, and pH sensor technology as a moni
91 Oxygen distribution was recorded with a
fiberoptic probe in patients undergoing surgery for cata
92 The tip of the flexible
fiberoptic probe was positioned for 3 measurements in al
93 Using an NIR spectrometer fitted with a
fiberoptic probe, living human carotid atherosclerotic p
94 biopsy, each site was sampled by LSS using a
fiberoptic probe.
95 y ill, mechanically ventilated patients with
fiberoptic pulmonary artery catheters in place were rand
96 The system uses
fiberoptic readout of individually cut lutetium oxyortho
97 By
fiberoptic recordings from molecularly defined populatio
98 under direct vision, using a 6.7-Fr (2.2-mm)
fiberoptic scope through the feeding tube.
99 The
fiberoptic scope was advanced through the rostral trache
100 ging device that was based on a miniaturized
fiberoptic sensor (MIFS) was built in which images creat
101 The unitary
fiberoptic sensor array is highly sensitive, has the abi
102 The response of the
fiberoptic sensor to different galactose concentrations
103 Bilitec 2000 using a glass pH electrode and
fiberoptic sensor.
104 cer, each of whose index lesion on screening
fiberoptic sigmoidoscopy was a benign adenoma.
105 A
fiberoptic surface sensor provides a safe and accurate m
106 Recent advances in
fiberoptic systems and video technology have resulted in
107 The latter two employ
fiberoptic technology and are currently under developmen
108 Fiberoptic technology dramatically changed endoscopic pr
109 reated in adjacent segments by advancing the
fiberoptic through the left ventricular wall with the la
110 chnique: bedside videoscopic placement using
fiberoptics through the tube.
111 nm and 11.7 J/cm(2) fluence, with a flexible
fiberoptic tip with a diameter of 200 microm.
112 20 J) i.p. through a cylindrically diffusing
fiberoptic tip.
113 A cardiovascular catheter containing a
fiberoptic waveguide mounted with a galactose-sensitive
114 y laser epi-illumination through a multimode
fiberoptic whose micron-sized tip can be introduced deep
115 c epifluorescence photobleaching, in which a
fiberoptic with a micron-size tip is introduced deep in
116 In fact,
fiberoptic workshops, thoracic workshops and difficult a