ライフサイエンスコーパス: bronchoscope

1 ain Erdman ( approximately 25 CFU/animal via bronchoscope).

2 ndobronchial allergen provocations through a bronchoscope.

3 s instilled in the both lung lobes through a bronchoscope.

4 endobronchial allergen provocation through a bronchoscope.

5 soproterenol (2 mg/ml) challenge through the bronchoscope.

6 awake with the aid of a flexible fiberoptic bronchoscope.

7 ar lavage was performed through a fiberoptic bronchoscope.

8 doses of bradykinin, aerosolized through the bronchoscope.

9 ter segmental antigen challenge via a wedged bronchoscope.

10 tly caused by a loose biopsy-port cap in the bronchoscopes.

11 rom the biopsy ports of the three implicated bronchoscopes.

12 s, and observed cleaning and disinfection of bronchoscopes.

13 s of M. tuberculosis, obtained from the same bronchoscope 2 days apart, that demonstrated unique mole

14 id bronchoscope (67%) than with the flexible bronchoscope (30%).

15 a greater percentage removed with the rigid bronchoscope (67%) than with the flexible bronchoscope (

16 Inadequate cleaning and disinfection of the bronchoscope after the procedure performed on Patient 5

17 ated with P. haemolytica A1 via a fiberoptic bronchoscope and euthanized at 2 h postinoculation.

18 e that residual DNA can remain in sterilized bronchoscopes and can be a source of false-positive PCR

19 tbreaks most commonly relate to contaminated bronchoscopes and endoscopic cleaning machines (M. absce

20 M. tuberculosis DNA could remain in sterile bronchoscopes and potentially be a cause of false-positi

21 ures that use the working channel of a rigid bronchoscope are better performed in the patient under g

22 iliarity with the use of flexible fiberoptic bronchoscope are key components while managing patients

23 Endoscopes, including bronchoscopes, are the medical devices most frequently a

24 h approach to use, 'blind' versus fiberoptic bronchoscope-assisted, is influenced by many factors.

25 s a result of the inadequate disinfection of bronchoscopes because of a manufacturing defect.

26 They were closely linked through the bronchoscope by a traditional epidemiologic investigatio

27 Bronchoscope cleaning and disinfection procedures were i

28 Observations revealed that bronchoscope cleaning was inadequate, and the bronchosco

29 An in-house prototype fluorescence bronchoscope demonstrated the capability of porphysomes

30 Lower airway gas, sampled through the bronchoscope during a breathhold, was found to contain N

31 sed by either hypocapnia (0% CO2 through the bronchoscope for 3 min) or by aerosolized acetylcholine

32 procedures performed with three of four new bronchoscopes from the same manufacturer.

33 Of a total of 55 washes of sterile bronchoscopes from two institutions, 2 (3.6%) contained

34 Cultures of samples from three bronchoscopes grew P. aeruginosa, whereas cultures of sa

35 The three bronchoscopes had been part of a nationwide recall.

36 easurements made on the lower airway via the bronchoscope have been successful in adults, but have no

37 biopsy specimens obtained with the flexible bronchoscope have contributed extensively to our underst

38 Not only has clinical use of the flexible bronchoscope improved our evaluation and management of a

39 ecimens obtained with use of endoscopy-suite bronchoscopes increased from 10.4 percent at base line t

40 to patients and optimizing the experience of bronchoscope insertion.

41 racts (500 microg) was instilled through the bronchoscope into the lungs of nonsmoking volunteers.

42 olony-forming units were instilled through a bronchoscope into the right lower and middle lung lobes

43 tracheobronchial anatomy with the fiberoptic bronchoscope is mandatory to increase the successful pla

44 A fiberoptic bronchoscope is not always needed for left double-lumen

45 We conclude that TBNA through the flexible bronchoscope is safe and effective in the diagnosis of i

46 Exposure to a potentially contaminated bronchoscope may have had a role in the death of three p

47 debate continues as to whether a fiberoptic bronchoscope must be used to position a double-lumen tub

48 Today, in most institutions, fiberoptic bronchoscopes of different diameters are available in th

49 patterns of P. aeruginosa isolates from the bronchoscopes, patients, and two environmental samples w

50 choscopes were usually only available in the bronchoscope suite for the exclusive use of the pulmonar

51 We used a wedged bronchoscope technique to measure baseline peripheral ai

52 of the peripheral airways, we used a wedged bronchoscope technique to study asthmatic and normal sub

53 Employing a wedged bronchoscope technique, Rp was measured.

54 tic subjects were studied utilizing a wedged bronchoscope technique.

55 resistance (RP) was measured using a wedged bronchoscope technique.

56 ems may have resulted in the distribution of bronchoscopes that did not meet specifications.

57 s of Surfaxin were administered via a wedged bronchoscope to each of the 19 bronchopulmonary segments

58 We propose a novel bronchoscope tool that would enable spatially dependent

59 mpletely extracted regardless of the type of bronchoscope used.

60 of the catheter, pressure at the tip of the bronchoscope was measured with the subject breath-holdin

61 ronchoscope cleaning was inadequate, and the bronchoscope was never immersed in disinfectant.

62 A contaminated bronchoscope was the most likely source of M tuberculosi

63 A bronchoscope was used in anesthetized dogs to record per

64 A fiberoptic bronchoscope was wedged in the anterior segment of the r

65 breathing, NO concentrations sampled with a bronchoscope were higher in the nasopharynx than at the

66 ifications, the biopsy-port caps on all four bronchoscopes were easily removable, and P. aeruginosa w

67 Sterilized bronchoscopes were flushed with sterile saline, and the

68 Fiberoptic bronchoscopes were usually only available in the broncho

69 We documented contamination of bronchoscopes with P. aeruginosa and S. marcescens and p